* A . • - .. c ■ ENCYCLOPAEDIA BRITANNICA SEVENTH EDITION. THE ENCYCLOPEDIA BRITANNICA DICTIONARY OF ARTS, SCIENCES, AND GENERAL LITERATURE. SEVENTH EDITION, WITH PRELIMINARY DISSERTATIONS ON THE HISTORY OF THE SCIENCES, AND OTHER EXTENSIVE IMPROVEMENTS AND ADDITIONS; INCLUDING THE LATE SUPPLEMENT. A GENERAL INDEX, AND NUMEROUS ENGRAVINGS. VOLUME XVI. ADAM AND CHARLES BLACK, EDINBURGH; M.DCCC.XLII. ENCYCLOPEDIA BRITANNICA NAVIGATION, INLAND. Naviga¬ tion, Inland. General observa¬ tions. Origin of ca'nals. ¥NLAND WATERS, suitable for navigation, form a medium of conveyance, upon which can be transported, at a very small expense, and with a smooth or easy mo¬ tion, all sorts of articles; but it is especially adapted for those which are very heavy, very bulky, or which could not well bear any rough carriage. In these respects, in¬ land navigation has greatly the advantage of common roads, and is often preferable even to railways; and, besides, in many cases where a ship cannot be brought close up to a railway, goods can be loaded immediately from, or disload- ed into, a canal-boat coming alongside of the ship, thus avoiding a second loading and disloading. Frequently, too, canals combine the advantage of aqueducts and of drain¬ age with navigation; but they can never compete with rail¬ ways where great speed of travelling is required, or where water is scarce, or in the time of frost; for the value of inland navigation in any particular country, or the fitness of that country for it, must depend very much on the sup¬ ply of water, and the duration of the season which is ex¬ empt from frost. In the following brief treatise, we shall confine ourselves chiefly to artificial navigation,1 and touch very slightly upon rivers and lakes ; because descriptions of the most of these will be found in other parts of the work, either under their own names or those of the countries to which they belong; and the same thing may be said of va¬ rious canals. It is not known when, by whom, or in what country, arti¬ ficial water communications were first constructed; though it is extremely probable that canals which had originally been made as aqueducts for drainage and for irrigation, came at length to be applied to the purposes of naviga- tmn. It is well known that works of this kind, connected with the Nile, the only river of Egypt, had existed in that country at a period so remote, that history has left us nearly as ignorant of the precise era of their origin, as it has of that Naviga¬ tion, Inland. of the pyramids. Nay, history does not so much as inform us with certainty when, or by whom, the great canal was first constructed, which anciently connected the Nile with the Red Sea. The early inhabitants of Babylonia or Chal- daea guarded against the detrimental inundations of the Ti¬ gris and Euphrates, by numerous artificial rivers and canals, which served to distribute the waters for the benefit of the country in general; and these at length were applied to form an easy navigation between its different parts. At a very remote period of antiquity, too, canals and pits were dug in Boeotia for drawing off the water of the Lake Copais, in order to prevent its overflowing the whole country ; and these came to be afterwards used for navigation. The “fos- siones Philistines” which were large canals, first made to drain the marshes bordering on the Po, are ascribed to the Canaanites, and especially to the Caphtorim, who at a remote period are supposed to have emigrated from the country of the Philistines. EGYPT. It is not our intention to enter into a particular descrip- Great ca¬ tion of even the existing canals of Egypt; but, on account nal an- of the recent attempts to abridge the route to India bycientlJ passing through Egypt, we shall briefly advert to the an.c°nstruct- cient history of its great canal, and to the proposals for re-^ a^0jts storing it, or constructing another across the isthmus of1 e a* Suez, especially as the other route to India by the Eu¬ phrates has been abandoned. Some learned moderns, per¬ plexed by the vague and contradictory statements of the ancients respecting a canal between the Nile and the Red Sea, have questioned its having ever existed, except par¬ tially as an aqueduct for irrigation. The survey made by order of Bonaparte in 1799 has, however, not only tended to remove these doubts, but also to ascertain the line which it ever'hetlte ““ “1’^ Ttwhich were given it artificially , for when- form, whilst the hollow comers at the bottom nro L ^ Protube[ant. corners gradually crumble away, taking a rounded ,n ™nrvilin“°^ S“-p 8 s tl,e c”n,our of the section °f ,l,e c“al for the NAVIGATION, INLAND. Naviga¬ tion, Inland. followed. Of ninety miles of inland water communication of which it consisted, it appears that sixty-five were cut by human labour ; and, of this portion, about one half yet ex- ists in many parts so entire that its dimensions can be mea¬ sured with tolerable accuracy, and little more than clean¬ ing would be required to render it again fit for navigation. According to the French engineers, this canal extended upon one level from Bubastis toArsinoe; or rather, it must have had a very slight declivity, so as to carry the waters of the Nile to the Red Sea. . ^ u at The direct distance from the nearest point of the Me¬ diterranean, which is a little south-east ot Tyneh, to the northern extremity of the Arabian Gulf, which is a little to the north-east of Suez, is about seventy-five miles ; and it is almost precisely the same from the latter to the site of the ancient Bubastis, on the now deserted Pelusiac branch of the Nile. The length of a canal from sea to sea, following what the French engineers considered as the most suitable ground, would be ninety-three miles, and that of the ancient canal from the Red Sea to the Nile was about ninety-two. Since, according to the levels taken by the French, the inundation of the Nile, when not restrained by artificial barriers, must have reached to within two or three miles of the Red Sea, it has been supposed that the practicability of forming a canal must have suggested itself at an early period. The sandy isthmus north of Suez, which is but a yard above high-water level at present, has, no doubt, dur¬ ing the lapse of 3000 years, been raised a little by deposits of%oil and sand. It is therefore supposed, that in those remote ages when the canal was first thought of, a shallow trench or furrow two or three miles long would have united the waters of the Nile and the Red Sea, affording the an¬ cients a pretty correct idea of the relative levels of the Delta and the Gulf.1 Aristotle, Pliny, and Strabo, ascribe the plan of forming the canal to Sesostris. The two foimer say it was abandoned because the waters of the Red Sea were higher than the Delta. Strabo treats this opinion as unfounded. Herodotus, in his book Euterpe, says the pro¬ ject was begun about 616 before Christ, by Necos, the son of Psammeticus, but who desisted at the command of the oracle, after having lost 120,000 men, and that it was com¬ pleted by Darius Hystaspes; that the canal was supplied with water from the Nile, which it joined a little above Bubastis; and that it terminated in the Arabian Gulf near the city Patumos. Diodorus says it was begun by Necos, and continued by Darius, who afterwards abandoned it from the fear of Egypt being inundated by the Red Sea, but that it was completed by Ptolemy Philadelphus; that it extended from the Gulf to the Bay of Pelusium ; and that it had sluices or gates, which were opened to allow ships to pass and quickly shut again (lib. i. sect. 1). Accord- jng to Strabo, certain lakes above Pelusium in the desert were connected with the Red Sea by one canal, and with the Delta by another ; and these lakes, which had original¬ ly been bitter, became sweetened by the introduction of the water of the Nile. This canal was completed by Ptole¬ my, who constructed a gate which afforded an easy pas¬ sage between the sea and the canal, and which some fancy to have been what we now call a lock (lib. xvii.). Accord¬ ing to Pliny, the canal reached only from the Nile to the Bitter Lakes, and was about thirty-four miles long. These statements may be reconciled by supposing, that though from the Delta to the Gulf the canal had been repeatedly opened, the communication with the Red Sea being dif¬ ficult, and only available for ships during a very limited Naviga- part of the year, this southern portion of the canal had been jnlan,d> often closed and abandoned. The other portion being ser- viceable for a longer season, might be kept more generally open About the year 644, the canal was re-established and greatly improved by the Caliph Omar, who carried the western end south to Cairo, by a branch called the ‘ Canal of the Pfince of the Faithful,” but afterwards the “ Canal of Cairo.” The water being thus taken from a point of the Nile six feet higher than the former one, the navigation could, of course, be kept open during a much longer part of the year. In this way the Nile and Red Sea were con¬ nected for more than 120 years; but since then the com¬ munication has been shut during more than 1000 years. The line or track of the ancient canal, in its more im- Irack of i.ne line or uai;* ui niv. —, proved state, is generally represented on maps as having a pretty close resemblance to a semicircle, both extremities Nile t0 being nearly in the thirtieth parallel of latitude, and the Re(1 sea. middle about half a degree more to the north. Such a line almost coincides with that surveyed by the French engineers between Suez and Cairo, and which they have described in their great work on Egypt. But, from the flatness of the country, they thought it would likewise be quite practi¬ cable to construct a ship canal, which would join the two seas, independently altogether of the Nile, by leading off1 a branch from near the middle of the line which we have just mentioned, to meet the Mediterranean at Tyneh, a place nearly in the meridian of Suez. This second canal being only~of the same length as the other, and free from the tedious navigation of the Nile, would be a much shorter route and, if fed and kept clear by a constant curient from the Red Sea, it would be navigable at all seasons, and quite independent of the extremely variable depth of water in the Nile. According to the French engineers, the current having a fall of twenty-six feet, would have energy enough not only to clear the canal of drift sand, &c. but also to hollow out and maintain a channel in the shallow and muddy bottom of the bay at lyneh, so as to afford a suf¬ ficient depth of water into the port. Some English en¬ gineers, again, who have more recently visited Egypt, think a preferable and still shorter canal might be constructed from Suez to the great lakeMenzaleh, which communicates with the Mediterranean to the west of Tyneh. But there is every reason to believe that the proposed railway across the isthmus would be greatly preferable to any canal which would not admit ships. There would be no tunnels, nor rock cuttings, nor stu¬ pendous aqueduct bridges required in forming a ship ca¬ nal across the isthmus. The only difficulty would probably be to obtain a sufficient depth of water at the ports in the two seas. Were this attained, we might assert with Mr Maclaren, “ that there is not a spot in the world where a water communication of equal extent could be made with the same facility, and where human skill could pro¬ duce so great a change with so small an effort.” Ihe na¬ vigation would suffer no interruption from frost in that climate; though there is reason to think that the differ¬ ence of level in the two seas must vary somewhat with the direction and force of the wind, increasing with a south wind, and diminishing with a north ; but this is not likely to be to such an extent as to prove at all detrimental to the scheme. The Nile, which is remarkable for having no tributaries Present for 1300 miles up from its mouth, continues navigable for navigati011 large vessels 600 miles above Cairo, up to the cataracts, 1 Such is nearly Mr Maclaren’s view of the matter (Edin. Phil. Jour. vol. xiii. p. 274); but, since the levels of several coasts, rela¬ tively to those of the contiguous seas, are known to have varied sensibly in the course of a few centuries, it is evident that, inde- nendentlv either of depositions or corrosions, the relative levels of the Delta, Mediterranean, and Red Sea may now be very different from what they were 3000 years ago. Hence such a mode of judging how far the notions of the ancients on this point were correct,, entirely fails. NAVIGATION, INLAND. Naviga- so long as it is sufficiently swollen by any remains of the tion, inundation ; but its waters become so low in May and June Inland. as on]y t0 jje t}ien navigable for small boats. A great part of the Delta is intersected in all directions with canals or aqueducts conveying water from the Nile for the use of the inhabitants, and for irrigating their fields; and some of these are likewise used for navigation. The present enter¬ prising ruler of Egypt has turned his attention to the con¬ struction of canals; but, like his predecessors of old, he has been much blamed for being a very hard task-master, especially to the poor women and children, whom he com¬ pels to assist the men in digging canals, with no other tools than their fingers, and to continue at such work sometimes till numbers of them expire upon the spot. The “ house of bondage” was nothing to this. The pasha has, however, been very unfortunate in the canal which he made in this manner, with the loss of 23,000 lives in ten months, from Alexandria to Fouah, a distance of about forty miles, as it has by no means come up to his expectations.1 It is said that he is about to construct a very gigantic bridge of stone across the Nile, at the point where it is cleft into two principal branches, about five leagues below Cairo; and that this bridge is to be furnished with gates for regulat¬ ing and retaining the waters for the necessary supply of the aqueducts and canals. Already he has made a bridge of this sort over the ancient Canal of Jussuf, which runs along the west side of the Nile, considerably above or to the south of the proposed new bridge. CHINA. Chinese No'country abounds more in canals and navigable rivers canals. t]ian China; but the greater part of that vast empire is so little known to foreigners, that the state of its inland na¬ vigation is in a great measure conjectural. The Chinese date the formation of some of their canals prior even to the Christian era ; but, however that may be, they have, as far as is known, made almost no improvement on their mode of construction since Europeans became acquainted with them. Their canals, after all, are rather rivers flowing through considerably altered channels, than what are strict¬ ly artificial communications by still water. The Imperial or Grand Canal, forming a communication between Canton and the neighbourhood of Pekin, is, according to some, 2000 miles long, whilst others make it only 825. The whole line is no doubt of great length, but it is uncertain how much of it is mere river navigation. It is said to have occupied 30,000 men for forty-three years, and to have been completed in a. d. 980. Innumerable branches run from it in every direction. Since almost no part of it is level or still water, it has been inferred that the Chinese are ignorant of levelling; but this wTe should regard as a most groundless surmise, because the mere dealing so much with the management of waters as they have done for many ages could not fail to have taught these people, however stupid, something of the principles of levelling. It seems rather to have been the want of locks which na¬ turally led them purposely to give that form to their canals; and it should not be forgotten that stagnant canals would be exceedingly unwholesome in a warm climate. INDIA. The inland navigation of the vast territory of India is of the most extensive sort, particularly that of the great rivers, the Indus, the Ganges, and the Brahmaputra, with their numerous branches, creeks, and canals. Taking the limit of the Ganges and Jumna to the west and south, and the 3 Brahmaputra and Megna to the east, the country inter- Naviga- sected by navigable rivers, &c. may be computed as cover- Ttl1on’ ing an area exceeding 180,000 square miles. ^ n an<^ ^ There is an uninterrupted navigation of 1000 miles upjn(lus the Indus from the sea to Lahore, which is situated on the Ravee or Hydraotes, one of the most meandering of the five Punjab rivers or branches composing the Chenab. But, owing to the numerous shallows and sand-banks in some parts of the Indus, this extensive navigation can only be said to be open to the flat-bottomed boats of the coun¬ try, which draw but four feet of water. There are, how¬ ever, few rivers on which steam could be used with better effect than on the Indus, which is said to discharge four or five times as much water as the Ganges. It has no rocks nor rapids, and, unless when swollen, the current does not exceed two and a half miles an hour. The swell com¬ mences about the end of April, increases till July, and disappears altogether in September. Captain Burnes, who treats largely on this subject, supposes that the Indus is also navigable all the way up to Attock.2 There are many canals connected with the Indus, but they are principally for the purpose of irrigation, and the greater part of them are mostly natural creeks, having no water except during the swollen state of the river. Such canals intersect the delta, and are likewise pretty nume¬ rous between the latitudes of 26° 20' and 28°, particularly on the west side of the river; but the most ancient artifi¬ cial canals connected with this river seem to belong to the Punjab district. By means of the Ganges and its subsidiary streams, all Ganges, sorts of articles can be conveyed between the sea and the north-west portions of Hindustan, over a distance of more than 1000 miles; and the time may not be distant when the navigations of the Indus and Ganges will be connected by a canal. The commercial capital Calcutta, upon the Hooghly branch of the Ganges, is therefore favourably si¬ tuated for internal navigation. It is about 100 miles from the sea, and 130 from the Sandheads; but it has a very intricate and tedious navigation through the banks of sand and mud, which occasionally shift their beds in the Hooghly River, as wrell as in the other branches of the Ganges. The Nuddeah Rivers, which connect the Ganges with the Hooghly, are likewise, for eight months in the year, so extremely shallow, that the water communication between Calcutta and the upper country is during that time maintained by the Sunderbund passages, at a great expense of time and labour. To obviate this inconvenience, it has been proposed to construct a canal, which, branch¬ ing off from the Ganges at Rajamahl, shall join the Hoogh¬ ly at Mirzapore near Kulna; for, owing to the difference of level at the extremities, amounting to sixty feet, and the height of the Ganges itself varying thirty feet at dif¬ ferent seasons, an open cut, without locks, would not suf¬ fice. The intended line, besides, being 300 miles shorter than the present route, would traverse a country rich in iron-ore and limestone, and would pass near extensive col¬ lieries. Since the renewal of the East India Company’s charter, the following works have been executed: Canal between the Ganges and Bugruttee Rivers; repair of an ancient aqueduct in the Deyra Doon, and restoration of the Delhi Canal; canal to unite the Hooghly with the Ganges, through the Salt-water Lake ; canal to unite the Damrah and Chur- ramunee; re-opening of Feroze Shah’s Canal in Delhi com¬ pleted ; restoration of Zabita Khan’s Canal in the Upper Dooab; the course of Ali Murdher’s Canal drawn into Delhi; a new cut for the Votary Nullah; and canal at Chumnapore. A canal of seventy miles is now being exe. 1 St John’s Travels in the Valley of the Nile. Captain Buines 1 ravels to Bokhara; and his Memoir on the Indus, in the Journal of the Royal Geographical Society. NAVIGATION, INLAND. Naviga¬ tion, Inland. cuted, if not already finished, in the king of Oude’s domi¬ nions, between the Ganges and its tributary the Goomty. , There are several canals in Agra, but they are chiefly used ' for irrigation ; some of them are of considerable antiquity. Backwater South Malabar, and nearly all Travancore, are naturally navigation, provided near their coasts with a noble system of inland navigation, called the Backwater, which extends from Chow- ghaut in Malabar on the north, to Trivanderam, the capi¬ tal of Travancore, within fifty miles of Cape Comorin, on the south, a distance of 170 or 180 miles. A continuation of it is in progress of being naturally formed, and is in fact navigable ninety miles farther for small boats during the rains, from Clowghaut to Cotah, sixteen miles south of Tellicherry; and all that this portion requires is, that the bed be deepened during the dry weather. The rivers descending to the sea at intervals of every eight or ten miles, would flow into and fill the deepened bed during the rains. The Backwater runs nearly parallel to the sea¬ shore, sometimes at the distance of a few hundred yards, at other times of three or four miles. Its breadth varies from 200 yards to twelve or fourteen miles ; its depth from many fathoms to a few feet. Into this Backwater, as into a grand trunk, all the numerous rivers, flowing like so many veins from the Western Ghauts, are discharged and re¬ tained. The Backwater empties itself into the sea only by six mouths; of all which the only one navigable for ships is the mouth on the south bank of which is situated Cochin. There is a bar at this mouth, but on it there are seventeen or eighteen feet of water at spring tides. CEYLON. In the maritime provinces of Ceylon, particularly in Batticaloa, the internal communication is maintained by canals connecting extensive salt lakes, which have stupen¬ dous embankments, said to have been constructed by the Cingalese three centuries before the Christian era. Small vessels from India may land their cargoes at Calpentyn, in the Gulf of Manaar, and have them conveyed by canal to Columbo. In the southern parts, where the rains are copious, canals are not less useful in draining the low lands than in the conveyance of produce; whilst in the northern districts, owing to the frequent droughts, they are in the greatest request for irrigation. There are rivers in Cey¬ lon which might be rendered navigable to a considerable extent. Mr Brook, in tracing the course of the Maha Villagunga River in 1825, came on the ruined tracks of several very extensive canals, one of which had been from five to fifteen feet deep, and from forty to 100 feet wide, and which, according to the natives, had been cut by people forty feet in height. EUROPE. Inland. Both Greeks and Romans failed in their repeated at¬ tempts to cut a canal through the Isthmus of Corinth. The Romans indeed were more successful in some of the branches which they cut for drainage from the Rhine; though these and others of the sort are now likely soon to be all cut off; or closed next the Rhine by locks. But the honour of properly introducing artificial navigation into Europe seems to be due to Italy and Holland, in both of which countries it has long been practised to a consider¬ able extent, though their canals were made principally for the purposes of irrigation and of drainage. It is now com¬ puted that about the twenty-sixth part of Holland is taken up by canals, one of which is of uncommon dimensions. They have been gradually introduced into the different Naviga- countries of Europe, and to such an extent that, by means tion, of canals and rivers, an internal water communication now ^ connects various parts of the great seas which surround that quarter of the globe. The Caspian is connected with the Baltic through the Wolga, the great lake Ladoga, and intervening canals; and the Baltic is also connected with the Black Sea through other rivers and artificial waters. The Ladoga Canal, formed along the southern shore of that lake, for the sake of a better navigation, extends from Schlusselburg to New Ladegaat, at the mouth of the Vol- kof, a distance of sixty-seven miles and a half, on one le¬ vel, with a guard-lock at each end. This canal is seventy feet wide ; and the depth of water, according to the sea¬ son of the year, varies from seven to ten feet. To such an extent has inland navigation been carried in Russia, by connecting rivers and lakes by canals, that, with the ex¬ ception of one interruption or portage of sixty miles, goods may be conveyed by water 4472 miles, from Petersburg to the frontiers of China ; and also from the same capital to Astracan, a distance of 1434 miles. The Bega Navigation, in Hungary, extends about se¬ venty-three miles, from Fascet through the Bannat by Temeswar to Becskerek, whence vessels pass by the Bega into the Theiss, a little above its junction with the Da¬ nube. The Canal of Francis, again, extends from the Da¬ nube by Zambor to the Theiss, which it joins near Fold- var, being sixty-two miles in length. The summit rises only twenty-seven feet. On the west, the German Sea communicates with the Baltic likewise by the Canal of Kiel through Holstein, and by the Gotha Navigation through Sweden. The famous Canal of Languedoc, in the south of France, forms a com¬ munication between the Mediterranean and the Atlantic ; and the equally famous and more capacious Caledonian Canal, in the north of Scotland, forms a similar communi¬ cation between the German and the Irish Seas. Most of the great rivers and many lakes in other parts of Europe are also connected by canals, thereby greatly facilitating the intercourse between different nations, as well as be¬ tween different parts of the same state. In the north of Germany, the Elbe,1 the Oder, the Vistula, and the Niemen, are so connected by canals as to form a water communica¬ tion over an extent of about 500 miles, viz. from the fron¬ tiers of Russia to the city of Hamburg, and running nearly parallel to the shores of the Baltic, at a distance of 100 miles. This is often called the Prussian Navigation. The;Canal of Kiel joins the river Eyder with the bay of Kiel, on the north-eastern coast of Holstein ; thus form¬ ing a navigable communication between the German Sea and the Baltic, and enabling vessels to pass from the one to the other, without performing the long and difficult voyage round Jutland, and through the Cattegat ana the Sound. The Eyder is navigable for vessels not drawing more than nine feet water, from Tonningen, near its mouth, to Rendsburg, where it is joined by this canal, which com¬ municates with the Baltic at Holtenau, about three miles north of Kiel. The length of the canal is about twenty miles and a half, exclusive of about six miles and a half of what is principally river navigation, but attended with con¬ siderable difficulty, from shifting sand-banks. The canal is about ninety-five feet wide at top, fifty-one and a half at bottom, and nine and a half deep. Its summit rises twenty- four feet and a third above the sea, by six locks. The Gotha Navigation in like manner connects the Cat¬ tegat at Gottenburg with the Baltic at Soderkceping. It 1 According to Berghaus, the waters of the Elbe will not be navigable twenty-four years hence, if they continue to diminish at the same rate as they have done for the last fifty years; but attempts are being made to deepen it by dredging. Many other inland waters are said to be on the decrease, particularly the Caspian. NAVIGATION, INLAND. Naviga- consists partly of canals and partly of the river Gotha and t'°n> the lakes Wener, Wetter, &c. The late Sir Thomas Tel- ' Inland. for^ visited and was consulted in several parts of this ^ work, which is said to be a masterly performance. The navigations, however, in the northern and interior parts of Europe are sadly interrupted by frost during a great part of the year, and therefore merit less notice. Holland. Canal of The canals of Holland are innumerable; but, on account Amster- of the smallness of that country, and our narrow limits, we dam and g^u on]y notice the great ship canal of Amsterdam and Niewdiep. which is one of the most magnificent and capa¬ cious in the world. It was constructed to afford a safe and easy passage for large vessels between Amsterdam and the German Sea; for although the roadstead in front of this city has forty feet of water, yet, on the pampus or bar, where the river Ye enters the Zuyder Zee, there are only ten feet; and therefore any considerable ship must only be partially loaded when passing this bar. The Zuy¬ der Zee being everywhere full of shallows, all ordinary means of improving the access to Amsterdam necessarily failed ; and this seems to have suggested the idea of con¬ structing a great ship canal from this city to Niewdiep, near the Helder, the most northern point of the province of Holland. The direct distance is forty-one miles, but along the track of the canal it is about fifty and a half. The width at the water s surface is a hundred and twenty- four feet and a half, at the bottom fifty-six, with a depth of twenty feet nine inches. Like most of the Dutch ca¬ nals, its level is that of the highest tides, and it receives its supply of water from the sea, but which at neap tides has to be raised by a steam-engine. The design of the high level is no doubt to exclude mud. This canal is crossed by about eighteen drawbridges. It has tide-locks only, and these are, of course, at the extremities ; but be¬ tween them there are, besides, two sluices with flood-gates. The locks and sluices are double, that is, there are two in the breadth of the canal. There is a towing path on each side, and the water is broad enough for two frigates to pass. This canal was begun in 1819, and finished in 1825. From the Ye at Amsterdam, where the canal begins, be¬ tween artificial embankments, it proceeds north to Pur- merend, then west to Alkmaar Lake, again north by Alk- maar to within two miles of the sea near Petten, from which it runs nearly parallel to the coast till it joins the sea at the fine harbour of Niewdiep. The Helder is the only place on the shores of Holland which has deep water, and this is owing to its being opposite the Isle of Texel, which, by contracting the water to about the breadth of a mile, occasions a current sufficient to scour and deepen the channel. Had it not been for the shallow water, a canal of half the length might have connected Amsterdam with the German Sea. France. By means of its fine rivers, France was naturally pos¬ sessed of a considerable inland navigation ; but it has, be¬ sides, many excellent canals, and in various places this ex¬ tensive country is well adapted for a great many more. We can, however, only give a brief description of its prin¬ cipal canals, some of which are of very recent construc¬ tion, or not quite finished. Languedoc ^nguedoc Canal, connecting the Bay of Biscay with Canal. t“e Mediterranean, commences in the port of Cette in the bay of Lyons, from which it proceeds in a westerly direc¬ tion through the lake of Thau, passing by Agde, Beziers, and, through a tunnel of 181 yards at Malpas, thence 5 by Sommail to Carcassonne. From this the course is north- Naviga. west by Castelnaudary to Naurouse, which is on the sum- ti00' mit-level; and to this it has ascended in all 621^ feet, v . by seventy-four locks. The remainder of the track con- Y ^ tinues north-west to its termination in the river Garonne at Toulouse, with a total descent of 207 feet by twenty- six locks. The entire length is 241,146 metres, or about 148 miles ; breadth at top sixty-one feet, at bottom thirty- four, with a depth of six feet and a half. The total length of feeders is about forty-nine miles. This great canal was begun in April 1661, and finished in June 1681. The rest of its history is given at great length in most works on inland navigation. But although usually ascribed to the genius and skill of Paul Riquetti, intendant of the province of Languedoc, it is very ques¬ tionable how far he was qualified for such a vast and diffi¬ cult enterprise, in which he had had no previous expe¬ rience. Nay, from a comparison of the different state¬ ments, it appears that, in place of engineer, Riquetti had been rather the contractor for the whole works, and had advanced one fourth of the outlay, for which his descend¬ ants still draw a considerable revenue from the canal. Ac¬ cording to General Andreossy,1 the works were planned and conducted by a relative of his, Francois Andreossy, an Italian engineer, who had had experience in the con¬ struction of canals in his own country, and who was em¬ ployed by Riquetti to conduct this great work. The Canal of Narbonne is a branch running south from Narbonne. the Canal of Languedoc to Narbonne, where, uniting with the Robine, the line is continued to the sea considerably to the south-west of Cette. The Canal of Arles and Bouc was undertaken in order Arles and to avoid the shifting sands which render the navigation of’Bouc. the mouths of the Rhone difficult and dangerous. Besides, it affords an outlet to the superfluous water of the district, by which means lands formerly useless may be rendered valuable. This canal extends twenty-seven miles and a half along the east bank of the Rhone, from Arles on that river to the port of Bouc in the Mediterranean. It is fur¬ nished with four locks. Being intended for sea-going vessels, it is sixty-eight feet wide at the top, forty-four at bottom, and fully six feet deep. The sides are raised three feet above the highest floods of the Rhone. The Canal of Beaucaire is very similar to that of Arles and Beaucaire. Bouc, was made for a similar purpose, and is nearly of the same length, with four locks. It commences at Beaucaire, on the west bank of the Rhone, and extends in a south¬ west direction by Aigues Mortes to the sea; but from Aigues Mortes it also communicates with Montpellier and the port of Cette by means of the Canal de Grave and the Canal of the Lakes. The Canal of Craponne commences near Arles, and runs Craponne. eastwards for about thirty-five miles to the Durance. It is principally used for drainage. Several others, which branch southward from it, are chiefly employed for the same pur¬ pose, and for irrigation. The Canal of Givors commences at that place, on the Givors. Rhone, ten miles below Lyons, and proceeds eight miles to the Gier. It was originally intended to have been con¬ tinued to the Loire at St Etienne. The Canal of the Centre commences in the Saone at Centre. Chalons, and terminates in the Loire at Digoin, from which the navigation is continued by the Canal of the Loire. It is about seventy-one miles long, rising 400 feet from the Saone by fifty locks, and falling 240 feet to the Loire by thirty locks. The Canal of the Loire begins at Digoin, in the Canal The Loire of the Centre, from which it crosses the Loire by an aque- 1 Ilistoire du Canal dn Midi, 8vo, Paris, 1800. 6 NAVIGATION, INLAND. Naviga¬ tion, Inland. Briare. Loing. Orleans. Nivernais. duct of five miles, and running along the south-west side of that river, it also crosses the river Allier by an aque¬ duct, but still continuing on the same side of the Loire, till, a little above Briare, it re-crosses that river through its bed, and there terminates in the Canal of Briare. Its whole length is 134 miles, with forty-five locks for a rise and/all of 317 feet. It was begun in 1822, and was near¬ ly finished at the end of 1836. _ The Canal of Briare, connecting the Seine with the Loire, was the earliest important project of the sort in France, and the first in that country which had locks car¬ rying it over a height. It was begun in 1605, and finish¬ ed in 1642 ; but the works had been suspended from 1610 to 1639. The length is thirty-four miles and a quarter, but the breadth varies from twenty-five to thirty-two feet. It begins in the Loire near Briare, ascends by Ouzonne along3the side of the Trezee River, by Rogny, where there are seven locks; then passes by Chatillon and Montnigis, and near Cepay joins the river Loing, a tributary of the Seine. _ , , . . The Canal of Loing is a prolongation, tor about thirty- three miles, of the Canal of Briare, from Montargis to the Seine, near the city of Moret. It descends 137 feet by twenty-one locks. . The Canal of Orleans connects the Canal of Loing near Montargis with the Loire near Orleans. The length is about forty-five miles, with twenty-eight locks for a rise of 1371 feet from the Loing, and a fall of ninety-eight to the Loire. The Canal of Nivernais begins in the Yonne at Auxerre, and ends at Decize, near the junction of the Aron with the Loire. It is 103 miles long, with 117 locks for a rise and fall of 746 feet. It is only partially in use, but is ex¬ pected to be finished in 1838. The Canal of Berry, or of the Cher, consists of three branches united at one point near Khimbe. i heir total length is 186 miles, with 110 locks for a rise and fall of 757 feet. The works are unfinished, and the navigation only partially in use. The Canal of Layon consists of the river Layon made na¬ vigable for thirty-five miles up from its mouth at Chalonne on the Loire. It has twenty-eight locks, and is principally used for the carriage of coals. . ixaiiivs The canal from Nantes to Brest was intended principally and Brest. for conveying materials and stores during war to the lar¬ gest and most important arsenal of France. It is composed of three canals passing successively from the basins of the Loire, of La Vilaine, and of Blavet, to the river Alne, which joins the harbour of Brest. Its total length is 218 miles, with 238 locks for a rise and fall of 1711 feet; but there are about seventy miles not yet finished. The Canal of Blavet, which is only a branch, towards the sea, of the Nantes and Brest Canal, begins at Pontivy and ends at Hennebon. Its length is thirty-four and a half miles, with twenty-seven locks for a rise and fall of 162 feet. From Hennebon the Blavet is navigable to the sea. The Canal of Hie and Ranee is designed to open a navi¬ gable communication between the Channel and the Bay of Biscay, across the peninsula of Bretagne ; and also to con¬ nect, through the Canal of Nantes and Brest, the ports of Nantes, Brest, and St Malos. It is fifty miles long, with twenty locks for an ascent of 129 feet on the side of the Vilaine, and twenty-eight locks for 193 feet on the side of the Ranee. This canal was begun in 1804 and opened in 1832, but the reservoirs are scarcely yet completed. In the course of the river Isle, between Perigueux and ments have been made on the channel to render it navi¬ gable. Naviga¬ tion, Inland. Berry. Layon. Nantes Blavet. life and liance. Itiver Isle. Libourne, which is eighty-four miles and a half, the dif¬ ference of level is 237 feet. It was therefore naturally unfit for navigation. To remedy this, it has lately been furnished with thirty-nine locks, and various other improve- The Canal of the Rhone and Rhine connects the basins of these two rivers, commencing on the Saone near bt Jean anj de Losne, and ending near Strasburg. _ It is sometimes llhine< called the Canal of Alsace. The entire length is 203 miles, including the branch of sixteen miles and one third from Mulhausen to Humngue, near Basle. The prin¬ cipal line has 160 locks, and the branch four: there are also thirteen sluices. There is a rise of 550 feet on he side of the Saone, and a fall again of 658 on that of the Rhine. This canal was planned about the middle of last century: the part between the Dole and the Saone was begun in 1784 and finished in 1790 ; but the whole line was 0nTh°ePCanal1of Burgundy, uniting the basins of the Seine Burgundy, and of the Rhone, and thus forming part of perhaps the shortest navigable line from Havre de Grace to Marseilles, has one end at La Roche-sur-Yonne, and the other at St Jean de Losne, on the Saone. Its entire length is 141 miles, with 191 locks ; it rises 612 feet from the baone, and falls again 923 feet towards the Yonne. It has a tunnel of two miles. It was begun in 1775, and, after various interrup¬ tions, opened in 1832. There has been a deficiency of water in the dry season, but possibly this may be remedied. The Canal of Ardennes, connecting the valleys of the Ardennes. Aisne and the Meuse, begins atDoncherry, on the Meuse, and joins the Aisne at Semuy, whence it is continued on the one side to Neufchatel, and on the other to \ouziers. It has forty-nine locks to overcome a difference of level of fifty-two and a half feet next the Meuse, and 355i to¬ wards the Aisne. The total length is sixty-one miles. The Canal of the Ourcq is only the river of that nameOurcq. rendered navigable for twenty miles, principally to supply Paris with water, and to turn mills. The canal from the Seine to the Seine, viz. from near Seine to St Denis to the basin of the arsenal, near the Pontdu Jar-the Seine, din du Roi, is about eight miles long, and was made to avoid the bridges of Paris, and a loop or bend of the river amounting to about seventeen miles. It consists of three parts: 1st, The Canal of St Denis, which is four miles and a quarter long, with twelve locks; 2d, about one mile of the Canal de 1’Ourcq ; and, 3d, the Canal of St Martin, which, including the basin of the arsenal, is about two miles and three quarters. The Canal of St Maur is a cut of three quarters of a St Maur. mile, to avoid a bend of eight miles in the Marne, about two miles and a half above its junction with the Seine. It has often been proposed to cut off other bends in these rivers. Several of the long narrow loops in the Seine, near Rouen, might be easily cut off with great advantage; but the river is in general so ill suited for navigation on other accounts, that a separate canal, as has long been proposed, would be greatly preferable. The river Oise forms the channel through which the RiverOise canals of the north, as well as the Scheldt, the Somme, the Meuse, and the Aisne, communicate with Paris. I he im¬ portance of keeping it in a proper state for trading vessels is therefore sufficiently obvious. A lateral canal of seven¬ teen miles was opened in 1828. It connects two points on the river twenty-eight miles distant along the course, and avoids a difficult and dangerous navigation to that extent. The towing and pilotage of a large boat, which now cost only four or five francs, along the canal, formerly cost 200 along the part of the river for which the canal is substi¬ tuted. The traffic has of course increased remarkably. The Canal of the Somme, which is part of a navigable The line connecting Paris with the sea, is ninety-one and a halt Somme, miles long from its commencement, near St Limon, to its termination at the mouth of the Somme. It has twenty- three locks, with a rise and fall of 178 feet. NAVIGATION, INLAND. Naviga- The Canal of St Quxntin commences at that place on the tion, rjver Somme, and proceeds by Omini, Le Trouquoi, Bel- Inland- linglise, Riqueval, and Maquincourt, to Cambray on the Scheldt, a total distance of thirty-two miles and two thirds, tin. Um From the commencement to the lock of Trouquoi, at the end of the summit, is about four miles, rising thirty-three feet and a half by five locks. The summit-level extends about thirteen miles and a quarter. In this there are two tunnels ; one of 1191 yards at Trouquoi, and another of the very great length of three miles and three-fifths at Riqueval. Their width is twenty-six feet and a quarter. The remain¬ ing fifteen miles and two fifths to Cambray descend 1231 feet by seventeen locks. From this the navigation may either be continued along the Scheldt, or by the Canal of Lille or that of St Omer, the river Deule, &c. to the sea at Calais, Gravelines, Dunkirk, Furnes, Ostend, &c. Spain. Spain, from its abounding in great valleys separated by rugged mountains, is not the most suitable country for inland navigation. But its principal rivers, the Ebro, Guadalquivir, Guadiana, Tagus, Douro, and Minho, are to a considerable extent navigable, have their sources in the middle of the kingdom, and fall into the Atlantic Ocean and Mediterranean. These, and various other rivers of less note in Spain, might easily be connected by navi¬ gable canals, so as to form a ready communication between many of the interior districts of that extensive country, and between these again and the sea. In this, as in many other respects, the prosperity of Spain has been greatly impeded by superstition, priestcraft, changes of dynasties, and the frequent wars in which it has been involved, so that it has accomplished very little indeed in inland navi¬ gation. An early project of the sort was, however, effected by the Saracens, who formed a canal from the city of Gre¬ nada to the navigable river Guadalquivir, which falls into the Bay of Cadiz. But the Romans, it is said, had long before this formed an aqueduct to convey fresh water to Cadiz, from springs more than thirty miles distant. In 1776 a canal was projected, and partly executed, to form a communication between Carthagena and the river Gualantin, at a distance of more than 100 miles. In 1784, a survey was made of a canal, which, beginning near the Escurial, should proceed to join the Tagus, thence to the Guadiana, and terminate in the Guadalquivir, above An- dujar. It was partly executed. It is chiefly in the north of Spain that canals have been constructed. A line pro¬ jected in Old Castille, from Segovia to Olea, near Rey- nosa, is ninety-nine miles long, exclusive of the princi¬ pal branch to the cities of Castille and Leon. Another canal has been projected in the province of Campos, to the west of Pisuerga, to pass by Medina de Rio Seco, and at Grisotu to unite with the Canal of Castille. The Emperor Charles V. of Germany proposed a canal to be carried along the valley of the Ebro, and onward to the Bay of Biscay. It was intended to receive the waters of the Ebro at Tudela, in Navarre, and thence descend towards Sara¬ gossa and Quinto. Great Britain. General Long after artificial canals had been introduced on the observa- Continent, England contented herself with merely endea¬ vouring to improve the navigation of her rivers. The prin¬ ciples on which the earliest acts of parliament were framed for this purpose, consisted in deepening, straightening, and embanking the rivers, where necessary ; and, by means of sluices and weirs, penning up or lowering the surface of the water, for the purpose of producing “ flashes,” and over¬ coming the obstructions to navigation. Long experience, however, showed that navigations of this sort were liable to perpetual deterioration, from the alterations produced in 7 the regimen of the rivers by such artificial works, which Naviga- frequently augmented instead of remedying the evil, tion, whilst they obstructed the general drainage of the country. Inlanch The circuitous navigation, and the trackage against the ^Y ^" stream, were at all times laborious and dilatory. These dif¬ ficulties suggested the propriety of deserting the natural bed of the river, and led to the formation of separate cuts, with the pound-locks, and the various contrivances which were subsequently invented to supersede their use. Until the invention of the lock, therefore, very little could be done in the way of inland navigation, except in the fens, when connected with drainage. Accordingly, the most an¬ cient attempts of this kind are to be found in the Carr and Foss Dikes by the Romans; the former skirting the up¬ lands and fens, from the river Nene at Peterborough, to the river Witham, near Lincoln, by a canal of forty miles; and the latter connecting the Witham at Lincoln with the Trent above Gainsborough, by a level cut of eleven miles. In England, the artificial system of navigation has been carried on for more than half a century, on a scale no less extensive than the drainage. The passing of an act in 1755 for constructing the first artificial canal in England, which was that of Sankey Brook, the completion of that work in 1760, and the formation of the Duke of Bridgewater’s Canal in 1761, opened the eyes of the nation to the vast advantages that were likely to be derived from artificial na¬ vigation, and led to the system of direct and indirect com¬ munication, which has united all the great rivers and ports of the kingdom. In Scotland, the progress of inland navi¬ gation, although less rapid, has been proportionally suc¬ cessful. As early as the reign of Charles II., the idea of joining the Forth and Clyde is said to have originated with his brother, James Duke of York; and, if true, forms a singular exception to the rest of his history. The subject was again resumed in 1722 ; in 1760 a survey was made by Messrs Mackell and Watt; and in 1766 that great work was commenced by Mr Smeaton, and completed in 1790. Between the above periods, also, Mr Watt made many re¬ ports on the improvement of the Clyde, and on the proposed Monkland, Crinan, and Caledonian Canals; and, in 1802, Mr Telford was employed to make surveys of the whole coast and interior of Scotland, with a view to improving its harbours and rivers, and which ultimately led to the execution of the Caledonian Canal by that able engineer. The following is a concise account of the principal in¬ land navigations of Britain, arranged alphabetically. Aberdare Canal, about six and a half miles long, is a branch of the Cardiff or Glamorgan Canal, from near the aqueduct of the latter over the river Taff. It terminates at Ynys Cynon, three quarters of a mile from Aberdare. From this canal proceed railways to the iron-works of God- leys, Abernaut, Aberdare, &c. and also to a steep descent to the Neath Canal, up which waggons are drawn by a steam-engine. It has been proposed to unite the Aber¬ dare Canal with that of the Neath. Aberdeen Canal extends about nineteen miles from the tideway in the port of that town up the valley of the river Don to Inverury. It rises 169 feet by seventeen locks, of which fifteen are near the city. The width of this canal is twenty-three feet, and the average depth three feet nine inches. The Adur River, in Sussex, has been rendered navigable southward from Binesbridge, in West Grinsted, to the sea at Southwick, below Shoreham Harbour, a distance of fourteen miles. Aire and Calder Navigation. The river Aire, in York¬ shire, is navigable for sloops of sixty tons for forty miles,, from its mouth in the Ouse at Armin, up to Leeds, where the Leeds and Liverpool Canal begins. The river Calder falls into the Aire about ten miles below Leeds, and is navigable about ten miles to Wakefield, where the Calder 8 Naviga¬ tion, Inland- NAVIGATION, INLAND. and Hebble Navigation commences. From the Aire and Calder not less than three canals and their branches have , been carried across the central ridge of England to Man¬ chester and Liverpool, forming an important water com¬ munication between that port and Hull, and between these and the intervening manufacturing districts. Alford Canal is to extend from the town of Alford, in Lincolnshire, to the sea at Anderby, a distance of six and a half miles, with a depth of eight feet. The Ancholm and Caistor Navigations join the Humber above Hull. The old meandering course of the river Ancholm is changed into a nearly straight canal twenty- six miles long, and running nearly from south to north. The Caistor Canal, which meets it from the east, is about four miles long. They serve the double purpose of drain¬ ing a marshy track, and affording a communication to the towns of Caistor and Market-Raisin. Andover Canal begins in the tideway at Redbridge, in Southampton Water, and proceeding northward up the east side of the Anton River, ends at Barlowrs Mill, near Andover. It is about twenty-two miles and a half long, and descends 177 feet towards the sea. From near its middle the abandoned Salisbury Canal branches off to the west, whilst from its south end the Southampton Canal passes eastward to the Itchin River. Arun River Navigation begins at Newbridge, near Wis- borough Green, and proceeds thirteen miles, partly by the course of the river, and partly by cuts to Arundel Haven. From this the river Arun itself has been rendered navi¬ gable all the way to Arundel Port, making a total length of twenty-six miles and a quarter. Arundel Canal, see Rother River. Ashby-de-la-Zouch Canal passes by a very winding course northward for forty miles, to the town of that name, from the Coventry Canal at Marston Bridge, nearNewnea- ton. The first thirty miles and a half, together with parts of the Oxford and Coventry Canals, form one level of se¬ venty-three miles; but on the next two miles there is a rise of 140 feet to the summit-level, which then continues four miles north of the great tunnel, and in the next quar¬ ter of a mile the fall is eighty-four feet. One branch of about two miles goes off to Swadlingcote Colliery ; another almost a mile falling twenty-eight feet to Stainton Lime- works ; a third 200 yards to Hinckley Wharf. Besides, there is a railway of about six miles to Ticknall Lime- works, and another of five miles to Measham Collieries. Near Ashby-de-la-Zouch is a tunnel of 700 yards, and near Snareston another of 200 yards. At Boothorpe a steam-engine raises water, which passes in a feeder to the summit-level. This canal passes one aqueduct bridge at Shakerton, and another at Snareston. Ashton and Oldham, or Ashton-under-Lyne, Canal, branches off from the Rochdale Canal at Manchester. It passes Fairfield, and terminates in the Huddersfield Canal at Duckenfield Bridge. The length is eleven miles, and the rise 152 feet. A branch of a quarter of a mile connects it with Peake Forest Canal, another of one mile goes up to the town of Ashton, a third of nearly four miles to New Mill and to Park Collieries, and a fourth of six miles to Stockport. Avon River, Hampshire, was once made navigable from the sea at Christchurch north to Salisbury, a distance of 36 miles. The works were, however, very insufficient, and were allowed to go to ruin, and the river is now only navi¬ gable two miles in the tideway. Avon River, Warwickshire and Worcestershire, is navi¬ gable from Stratford-upon-Avon, near the junction of the Stratford Canal, to the Severn at Tewkesbury, a distance of forty-three miles and three eighths, in a south-westerly direction. This navigation is of great use to the towns of Pershore, Evesham, and Stratford. Avon River, Gloucestershire and Somersetshire, is navi- Naviga- gable from Bath, near the commencement of the Kennet and Avon Canal, and passes by Bristol to the Severn at ^ . . King’s Road, a distance of twenty-six miles and a half in a north-west direction. Its course formerly lay through the heart of the city of Bristol; but a new channel for the river has been cut on the south side of that city, two miles in length, whilst the ancient course has been converted into an excellent floating dock and harbour, which on the north receives the small river Frome, navigable only for half a mile through the city. At Mbrgan s Pill, six miles below Bristol, is the junction of the proposed Bridgewater and Taunton Canal. Axe River, Somersetshire, is navigable from its mouth in Uphill Bay, Bristol Channel, eastward to Lower Weare, near Axbridge, a distance of nine miles. Near Loxton it is crossed by the proposed line of the Bridgewater and Taunton Canal. Barnsley Canal begins in the river Calder, a little be¬ low Wakefield Bridge, and proceeds south and west over a track of fifteen miles and a half to its termination at Barnby Basin. In the first three miles it rises 120 feet by twenty-one locks, partly fed by a steam-engine. A great quantity of coal and paving-stone is conveyed by this canal. It connects the manufacturing towns in the west riding of Yorkshire. Basingstoke Canal commences at Westley, in the Wey River, about two miles from the Thames, and proceeds westerly thirty-seven miles in Surrey and Hants, to the town of Basingstoke. It rises 195 feet in the first fifteen miles, by twenty-nine locks ; the remainder is level. Baybridge Canal, in the county of Surrey, proceeds from Binesbridge along the course of the river Arun to Baybridge, which is about three miles and three eighths. It rises fourteen feet, by two locks. Birmingham and Fazeley Canal begins at the east end of the Old Birmingham Canal, near Farmer’s Bridge, in Birmingham, and passes through a part of the town, thence by Newhall, Middleton Hall, and Drayton manor-house, to the Coventry Canal at Fazeley, near Tamworth, a dis¬ tance of fifteen miles, with a fall of 248 feet. The re¬ maining five miles and a half to Whittington Brook are level. Birmingham (Old) Canal, twenty-two miles and a hah long, proceeds from Farmer’s Bridge, passes Smethwick and Oldbury. It then passes to the east of Tipton and Wolver¬ hampton to the Staffordshire and Worcestershire Canal, near Autherley, where it descends 132 feet by twenty-one locks. The supply of water is chiefly drawn from old coal¬ mines by steam power. This canal communicates with the Worcester and Birmingham Canal at Birmingham, with the Dudley Canal near Tipton Green, and with the Wyrley and Essington Canal near Wolverhampton. By means of its canals, Birmingham communicates with the most im¬ portant towns in England and Wales. The Birmingham and Liverpool Junction Canal com¬ mences in the summit-level of the Staffordshire and Wor¬ cester Canal near Tettenhall, about a mile from Autherley, the place where the Birmingham Canal communicates with the Staffordshire and Worcester Canal. Its course is north¬ westerly to its termination in the United Navigation of the Ellesmere and Chester Canal near Dorford Hall. The to¬ tal length is thirty-nine miles, with a fall of 175 feet by twenty-seven locks. The Blyth River, Suffolk, is navigable from Halesworth Bridge to the haven of Southwold, about nine miles, de¬ scending by four locks. The Bourn Eau River is navigable from the river Glen in Deeping Fen, for three and a half miles, in a north-west direction, to the town of Bourn. The Bradford Canal extends from the Leeds and Liver- NAVIGATION, INLAND. 9 Naviga- pool Canal, near the village of Shipley, to the town of Brad- tion* ford, a distance of three miles, rising eighty-six feet by ten Inland. i0Cj{S> which are each sixty-six feet long and fifteen wide. The Brecknock and Abergavenny Canal proceeds from the Monmouthshire Canal, about a mile south of Pontypool, and, crossing the river Avon by an aqueduct, continues for fourteen miles and a half on a level line to the west of Uske, whence it goes on to Brecon, eighteen miles and a half, with a rise of sixty-eight feet, the entire length be¬ ing thirty-three miles. Various railways proceed from this canal to the different iron and coal works in that rich mi¬ neral district. The Bridgewater Canal, which has already been noticed, may be called the root and model of canal navigation in England, being the first which crossed hill and valley in that country. The general direction of its principal line, which extends from Manchester to Runcorn-Gap, in the tide-way of the Mersey, amounting to about twenty-se¬ ven miles, is nearly south-west, in the counties of Ches¬ ter and Lancaster, and, except the last 600 yards, in which there is a fall of eighty-two feet and a half by ten locks, the whole of this branch, together with twenty- eight miles of the other branches, and eighteen of the Grand Trunk Canal, into which it joins, in all seventy- three miles, are on one level. The determination of pre¬ ferring one level led to the construction of such tunnels, aqueducts, and embankments, as were truly formidable in that infant state of canal operations. Nothing, however, could shake the fortitude and perseverance of the Duke of Bridgewater, or baffle the ingenuity of his talented en¬ gineer, James Brindley. The original design of the part of this canal first projected was for conveying coals from the duke’s mines at Worsley to Manchester, a distance of about seven miles ; but when the canal had reached the road from Warrington to that town, it was resolved to vary the line by crossing the river Irwell at Banton Bridge, and proceed to Manchester up the south side of that river, with a branch to Longford Bridge. From this latter place it was next proposed to carry the canal past Altringham, to the river Mersey, at Hempstones in Cheshire; but this line was partly changed, and the canal finally carried by Preston Brook to Runcorn. In 1795 an extension was made from Worsley Mill to the town of Leigh in Lanca¬ shire, with a branch to Chat Moss. The branches of this canal in the collieries under ground are together said to exceed eighteen miles in length. It is said, that notwithstanding the great and increasing traffic upon the Liverpool and Manchester Railway, there has been no falling off in the canal business between these towns, but a considerable increase. The Bridgewater and Taunton Canal has been projected to commence at Morgan’s Pill in the river Avon, six miles below Bristol, and to pass south-westerly by Bridgewater to Taunton, a distance of forty-two miles and a half. The Britton Canal commences in the river Neath, direct¬ ly opposite the end of the Neath Canal, and runs south-west to Swansea Harbour in the river Tawe, a distance of four miles and a quarter. The Bude and Launceston Canal commences in Bude Haven, within the port ofPadstow, from which it runs south¬ easterly for five miles and three fourths to the Red Post, and thence easterly by a very crooked course of fifteen and five eighths farther to its termination at Thornbury. From the Red Post a branch of nineteen miles passes south by a very winding course along the west bank of the river I amar to near Launceston. From Veala a branch of three miles and seven eighths passes to Virworthy; and another of one mile and a half from Burmsdon to Moreton Mill. Several inclined planes are used on this canal and its branches. Bure River, Norfolk, is navigable from the town of Ayls- vol. xvi. ham by a very crooked south-easterly course to its mouth Naviga- in the Yare, near the sea at Yarmouth, a distance of forty tion’ miles by the river ; at Horning Marsh it receives the Ant River, a navigable branch of eight miles, proceeding from the termination of the North Walsham and Dilham Canal at Wayford Bridge; and at Thurn it receives the Thurn River branch of seven miles from Hickling Broad. Burn River, see Larke. Bury River is a wide estuary entering from the west, be¬ tween the southern parts of Carmarthenshire and Glamor¬ ganshire, and is navigable for about twelve miles inwards to the mouth of the River Loughor, which again continues the navigation two miles farther up the country north¬ wards, and is joined by various railways. The Bute Ship Canal commences in Cardiff Harbour, near the mouth of the river Taft’, in Glamorganshire, running north to Cardiff' Moors, and thence, parallel with the Gla¬ morganshire Canal, to near Whitmoor Lane, on the south side of the town of Cardiff, where it terminates. The part from the commencement to Cardiff Moors is called the Entrance Ship Canal, and is almost two miles long, and 33 feet deep. The upper part, called the Basin, is about 1500 yards long, and twenty feet deep, with two short cuts to the Glamorganshire Canal. Caister, see Ancholm. Calder and Hebble Navigation commences at Fall Ing, near Wakefield, in the Aire and Calder Navigation, and proceeds, partly by the river, and partly by side cuts and locks and weirs, twenty two miles, to Sowerby Bridge Wharf, near Halifax, where it enters the Rochdale Canal, having descended 192| feet by twenty-eight locks. The Caledonian Canal. A valley remarkable for its unifor¬ mity, straightness, and depth, and extending from sea to sea, between two parallel ranges of steep mountains, divides the Highlands of Scotland into two nearly equal parts. The ge¬ neral direction of this chasm is from north-east to south¬ west, making an angle of about 35 degrees with the meridian; and, besides being entered at each extremity by an arm of the sea, viz. by the Moray Frith on the north, and Loch Linnhe on the south, the rest of its bottom is for the most part occupied by a concatenation of rivers and lakes. The remarkably elongated form and contiguity of these lakes had long ago suggested the facility of forming an inland commu¬ nication between the Atlantic Ocean and the German Sea. For, to accomplish this important object, it seemed sufficient to connect these lakes and the friths by several short canals, amounting together to twenty-three miles, and thereby obtain a navigable line to an extent of more than 100 miles ; and this was farther recommended by the summit- level only rising ninety-four feet and a half above the sea. So far back as the year 1773, this line had been surveyed by the celebrated James Watt, who reported favourably of it, and proposed that the lakes should be connected by a canal of a very moderate size. Nothing farther, how¬ ever, was done till early in the present century, when the subject was taken up by government, and new surveys were made by Messrs Jessop and Telford, who recom¬ mended a canal of such dimensions as should admit fri¬ gates of thirty-two guns, and the greater part of merchant ships, particularly that class which trade between the Bal¬ tic and the ports of Ireland and the west coast of Britain, as by this means a tedious and often dangerous navigation by the Orkneys would be avoided. The work was next set about at the public expense, and under the direction of Mr Telford, who gave to the undertaking the name of the Caledonian Canal. The dimensions then proposed by him, and which have been in a great measure adhered to, were a width of fifty feet at bottom, 120 at top, and a depth of twenty feet; the locks to be from 170 to 180 feet long, forty wide, with a depth of twenty feet of water be¬ sides the lift or rise. These measures have been followed a ]0 NAVIGATION, INLAND. Inland. Naviga- in the case of the locks, but as yet the canal has only been tion, excavated to the depth of fifteen feet in the summit-level, , though the width has been slightly increased to 122 feet ' at top, but with a break in the slope such that there is on each side a horizontal shelf six feet broad at the depth of two feet under the surface of the water. The design of this break in the slope of the sides is to keep large ves¬ sels from approaching too close to the brink of the canal, and destroying the upper edge of the banks, either by contact or by the eddy produced between the vessel and the sides of the canal. It serves, besides, to prevent any loose earth which may crumble in at the margin from go¬ ing down to the bottom, and retains it there till it be con¬ venient to clean it out. It was not deemed advisable that the rivers which flow through or from the lakes in the valley should form any part of this line of navigation; but on entering from the north w^e find the Caledonian Canal commencing with a sea-lock at Clachnacarry, in a sheltered bay of Loch Beauly, which is the more inland part of the Moray Frith. The sea-lock here is about two miles north-west of Inver¬ ness, and three quarters of a mile west of the well-frequent¬ ed ferry of Kessock, which is near the mouth of the river Ness. In order to have sufficient depth of water at or¬ dinary neap-tides, it was necessary, on account of the flat¬ ness of the shore, to place this lock about 400 yards with¬ in sea-water mark, an operation which was attended with no small difficulty, on account of the softness of the bottom. This lock is 170 feet long, forty wide, with a lift of eight feet and a half; and proceeding from it, the canal is form¬ ed by embankments till it passes the sea-mark, where ano¬ ther lock of the same size, with a lift of six feet, is built on firm ground. Next, on the south of this, is the Muir- ton basin, 967 yards long and 162 broad, with a wharf for the trade in that quarter, being about a mile from Inver¬ ness. At the southern extremity of this basin is a swivel or swing bridge for the public road between Beauly and Inverness; and then four locks, which, however, from their being connected, have only five double gates in the whole. These raise the canal thirty-two feet, which puts it on the ordinary summer level of Loch Ness. Each lock is 180 feet between the gates, and forty wide. From this the canal proceeds by gentle windings till it meets and runs along the north-west bank of the river Ness to the small lake Doughfour, which is about 2100 yards long, and from five to nine fathoms deep, and is six miles and a half from Clachnacarry. It communicates with Loch Ness by the pass of Bona Ferry. The intended line of canal being on the west side of the river Ness, which in three different places approached close to the steep sides of the hills on the west, it was necessary to alter the course of that river, so as to obtain room for the canal without cut¬ ting into the hills. At the entrance to Loch Doughfour is a regulating or guard-lock, without any lift, to prevent any overflow from the lake. It is 170 feet long, and forty wide. It was necessary to deepen this small loch in seve¬ ral places by dredging, and to raise it six feet to the level of Loch Ness by a wear and embankment. The next part of this navigation, and by far the most extensive lake in it, is Loch Ness, a fine sheet of water, about twenty-three miles and three quarters long, and from one to LS mile broad. Its depth is so great that it never freezes, being from five to 129 fathoms, and along the middle it averages 100. It affords good anchorage at each end, and also in a few bays, although the sides of this lake are generally straight. It was proposed to introduce buoys for more convenient mooring. There are nowhere in it either rocks or banks detached from the shore. Loch Ness receives the river Oich in its western shore, not far from its southern extremity, and a little south of this the canal leaves the lake, whilst almost quite at the southern end stand the fort and village of Fort Augustus. From this the canal ascends forty feet by five locks, and at Callachie, about two miles and a half farther on, it rises ^ eight feet by another lock. 1 hree miles more, bring it to Loch Oich, where a regulating lock raises it thirty inches, so as to be even with that lake, which is on the summit- level. To obtain a proper line for the canal upon the south- east side of the river Oich, the channel of that river has been somewhat altered. Loch Oich, which forms the summit-level of this navigation, is about three miles and three quarters long, and, on an average, a quarter of a mile broad. In one place in the middle, and at both ends, it had to be deepened by dredging. The water which falls into this lake, particularly from the river Garry, af¬ fords at all times an ample supply for the canal. Between Loch Oich and the next lake in the line, Loch Lochy, there is no natural communication. The interval is about a mile and three quarters, and rises twenty feet above Loch Oich, which, with the depth of the canal, required a cutting of thirty-five feet. Loch Lochy, which was twen¬ ty-one feet nine inches lower than Loch Oich, has been raised about twelve feet by an embankment to avoid rock¬ cutting, and the canal descends to it nine feet nine inches by two locks, one of which is also a regulating or guard lock. Loch Lochy is ten miles long, and averages one in breadth. In some places it is seventy-six fathoms in depth. About half a mile of the course of the river Lochy had ta be shifted into a new bed to make room for the canal, which now, in its last stage, proceeds from the lake for eight miles along the north-west bank of that river over a rugged surface to the shore of Loch Eil, which is the more inland part of the frith called Loch Linnhe. A little south of Loch Lochy there is a regulating lock ; and about a mile from Loch Eil there are eight connected locks, called Nep¬ tune’s Stairs, by which the canal descends sixty-four feet. At Corpach shore it falls fifteen feet by two locks, and, after expanding into a basin 250 yards long and 100 broad, it finally descends seven feet nine inches by the sea-lock into Loch Eil, near Fort William. The entire length of this navigation is sixty miles and a half, and that of the artificial part, including Loch Dough¬ four, is twenty-three miles and eight chains. There are in all twenty-eight locks. This canal has as yet been a most unprofitable speculation, for all it has hitherto yielded does not pay the mere expense of maintaining it. Foreigners affect to smile at the classic title of “ Neptune’s Stairs,” which is not altogether free from vanity; but although many locks have certainly a greater lift, as, for instance, five locks rising together eighty-eight feet on the Leeds and Liverpool Canal, yet it is very unusual for gates to be so wide, and to descend twenty feet into the water, besides the eight feet of lift. The gates indeed descend five feet too low, and so do the locks, but this was done intention¬ ally, in the expectation that the canal might yet be made five feet deeper. Amongst the wonders lately announced in Kentucky, we find locks thirty-eight feet wide, with a lift of sixteen feet. Such, however, will often spend just double the water in lowering a boat through the same height which locks with eight feet of lift would do, espe¬ cially if none of the water can be withdrawn from the locks into side-ponds. Cam, or Grant River, is navigable fourteen miles, from Cambridge to its mouth in the Great Ouse at Harrimere, above Ely. It is embanked above the fens in all its lower parts, and has sluices for making flashes of water, to enable boats to pass the shallows. There is a cut of three miles from it to Rehe, and another of three miles and a half to Burwell. Camel River is navigable from Guinea Port, near Wade Bridge, to the sea at Stepper Point, three miles east from Naviga¬ tion, Inland. NAVIGATION, INLAND. 11 Naviga- Padstow, in the Bristol Channel, a distance of eight miles tion> and a half by the low-water channel. Inland. Canterbury Navigation, or river Stour, from the city of Canterbury to the Downs at Sandwich Haven, having been very imperfect and incommodious, an act was obtain¬ ed in 1825 for making various improvements on it; parti¬ cularly a canal or harbour eight feet deep, from the Small Downs, commencing between the Batteries No. 1 and 2, to the river Stour at Sandwich, which is to be two and a half miles in length from the end of the proposed jetty of 1000 feet next the Downs ; thence the navigation is continued in its old course sixteen miles to Fordwich, where there is a lock of six feet lift. From this to the tail of Abbots Mill, Canterbury, the length is two miles and a quarter, includ¬ ing three short cuts amounting together to one and a quarter mile. There is another lock of six feet lift half a mile from Canterbury. The total length is twenty miles and seven eighths. Cardiff Canal, see Glamorganshire. Carlisle Canal proceeds north-west from the west side of that city, and twice crossing the line of the Piets’ Wall, continues by Kirk-Andrews to Wormanby, taking a west¬ erly direction along the south side of the Piets’ Wall, by Burgh ; thence crossing the marshes, and passing by Drum- burgh Castle and Glasson, it enters the Solway Frith at Fisher’s Cross near Bowness. It is eleven miles and a quar¬ ter long, descending seventy feet by nine locks. Carron River, Stirlingshire, is navigable from its mouth, in the estuary of the Forth, up to the village of Carron Shore, and thus far vessels drawing seven or eight feet water may ascend at neap tides; but still larger vessels come up for a shorter way to Grangemouth, where this river connects by means of a tide-lock with the Forth and Clyde Canal, and is indeed the only entrance to it from the Forth. But from the Carron Iron Works, which are situated farther up on this river, there is a cut southward to that same canal at the village of Bainsford. Cart River, Renfrewshire, sometimes called the White Cart, is navigable for about five miles, from the town of Paisley northwards to the Clyde near Inchinnan ; but this navigation is now in a great measure superseded by the Glasgow and Paisley Canal. The Chelmer and Blackwater Navigation extends east¬ wards from the basin at Chelmsford to the tideway at Col¬ lier’s Reach, a distance of thirteen miles and five eighths, partly by the course of the river Chelmer, and partly by cuts, viz. first, to Burleigh Mill, ten miles and seven eighths, with a fall of fifty-nine and a half feet; thence to Hey- bridge, one mile and an eighth, falling seven feet; and thence by a canal of one mile and five eighths to the basin at Collier’s Reach, with a fall to low-water mark of twelve feet and two thirds. From this, the length of the estuary of Blackwater to the sea opposite Sales Point is about eleven miles. Chester Canal, see Ellesmere. The Chesterfield Canal commences in the tideway of the Trent at Stockwith, in Nottinghamshire, near the mouth of the Idle. The general direction of its crooked course is south-west to Chesterfield, a distance of forty-six miles, having a rise of 335 feet, and fall of eighty-five feet, with sixty-five locks. Between Harthill and the village of Wales there is a tunnel of 2850 yards on the summit-level. Clyde River becomes navigable at Glasgow, and, pro¬ ceeding thence westward by Govan and Renfrew, it receives the river Cart a little below that town. From this it gra¬ dually expands into a fine estuary, which, at Port-Glas- gow, becomes fully two miles wide. Along the course of the river, the distance from Gorbals Bridge in Glasgow, to the mouth of the Cart, is about seven miles; thence to Bowling Bay, where it is joined by the Forth and Clyde Canal) four and a half; thence to Dumbarton harbour, three; and thence to Port Glasgow, five. But the total Naviga- length of the navigable part of this river to where it falls t^on> into the Frith of Clyde opposite Roseneath, is about twen-^j^an^' ty-five miles. Under the act 6 Geo. IV. this navigation was to be made thirteen feet deep at neap tides. The trade upon it is very extensive. Colne River is navigable from the Hythe, near Colches¬ ter, to the sea. From the Hythe to Wivenhoe the dis¬ tance is three miles and a half, and thence the river ex¬ pands into an estuary extending four miles and a half far¬ ther to the sea opposite the isle of Mersea. Conway River, Denbighshire, is navigable in the tideway from Llanrwst to its mouth at Conway harbour, a distance of thirteen miles and a half. Coombe Hill Canal extends from this village in Glou¬ cestershire to Fletcher’s Leap on the Severn, a distance of three miles and a half, falling fifteen feet. The Coventry Canal commences at the Trent and Mersey, or Grand Trunk Canal, on Fradley Heath, whence it goes southerly to Huddlesford, being there joined by the Wyr- ley and Essington Canal. It next proceeds to Fazeley, near Tamworth, where the Birmingham and Fazeley Canal locks down into it. It then crosses the Tame by Amling- ton, approaching the Little Anker River, running parallel to it; then by Polesworth and Hartshill it proceeds to its termination at Coventry. The wLole track just mention¬ ed amounts to thirty-seven miles and three fourths, but of this the second five miles and a half from the north end now belong to the Birmingham Canal. From Fazeley to Atherstone, about ten miles, there is a rise of ninety-six feet, by thirteen locks. Cree River is navigable about eight miles in the tide¬ way from Carty, near Newton-Stewart, to Creetown, in WTigton Bay. The Crinan Canal, in Argyleshire, runs nearly south-east from Crinan, in the Sound of Jura, to Ardreshaig in the frith of Loch Fine, and is about nine miles and a half long by from twelve to fifteen feet deep, with fifteen locks. From the west it rises fifty-nine feet to the summit-level, and then falls fifty-eight feet to the east. This short ship canal tends greatly to simplify and abridge the navigation in this quarter, as it cuts off about sixty miles from the long isthmus or tongue of land called Cantire, which ves¬ sels must otherwise double or go round. The Cromford Canal, eighteen miles in length, proceeds from the head of the Nottingham Canal by Hynor Harly, Tadmoor, and Critch, to Cromford, near Matlock. In the first four miles it rises eighty feet, and the rest is level. It has several tunnels; one at Ripley is 2966 yards long. Crouch River is navigable in the tideway from Hull bridge, in Essex, to its mouth in the sea at Foulness, a dis¬ tance of sixteen miles. The Croydon Canal commences in the Grand Surrey Canal, near Deptford, and extends nine miles and a half southward to Croydon. It rises about 150 feet, by twen¬ ty-six locks. Darent River is navigable about four miles in the tide¬ way from Dartfort to Longreach in the Thames. Dart River is navigable about twelve miles and a half in the tideway from about a mile above Totness down to Start Bay in the English Channel. The Dearne and Dove Canal commences in a side cut of the Don or Dunn River, between Swinton and Mexbourgh, and terminates in the aqueduct carrying the Barnsley Canal over the river Dearne. It is about nine miles and a quar¬ ter long, and rises altogether 127 feet, by eighteen locks. Deben River, Suffolk, is navigable about nine miles and a half in the tideway from Wilford Bridge, about a mile above Woodbridge, down to the sea about four miles north of Harwich. At high water it has the appearance of a considerable estuary, and at Woodbridge and Rams- 12 NAVIGATION, INLAND. Naviga- holt there are docks for ship-building and commodious lion. Inland. wharfs. Dee River, Cheshire, is navigable in the tideway for large vessels from Hand Bridge, at the city of Chester, by a new channel of eight miles, to where it enters the es¬ tuary of the Dee; and thence by the low-water channel to the opening into the Irish Sea off Great Helbre Island, which is a farther distance of fifteen miles and a half. At Chester this river connects with the Chester CanaL The Derby Canal commences in the Trent, near Swark- stone, and about three furlongs to the north enters the Grand Trunk Canal, having risen twenty-six feet. From this to Derby, five miles and a quarter, it rises twelve feet, and, crossing the Derwent, proceeds three miles and a quarter by Little Chester and Breadsall, rising seventeen feet, to its termination at Little Eaton. From the east bank of the Derwent a brajich extends eight miles and a half to the Ere wash Canal, falling twenty-nine feet. Derwent River, in Derbyshire, is navigable from the town of Derby, with a very tortuous course, till it falls into the Trent at Wilden Ferry, below Shardlow, where the Grand Trunk or Trent and Mersey Canal connects with that river. This navigation extends about thirteen miles. Derwent River, in Yorkshire, is navigable from Yeding- ham Bridge to Barmby, in the tideway of the Ouse, about seven miles below Selby, a distance of forty-nine miles and a half, viz. from Yedingham Bridge to New Malton eleven miles and a half, thence to Howsham Hall nine and a half, thence to Stamford Bridge six and a quarter, and thence to the Ouse twenty-two. The Donnington Wood Canal commences in the Shrop¬ shire Canal, near its junction with the Shrewsbury Canal, and runs north-east, for seven miles, to Pave Lane Wharf, near Newport. Douglas Navigation, see Leeds and Liverpool. The Driffield Navigation, eleven miles in length, com¬ mences at Aike Beck Mouth, in the river Hull, and ends at Great Driffield. The first five miles is in the Hull, and the remainder by a canal. The Hull and Leven Canal, of three miles, is a branch of this. Droitwich Canal extends five miles and three quarters from Chapel Bridge, in that town, to Hawford, on the Severn, descending fifty-nine feet and a half, by eight locks. It is fed from salt springs. The Dudley Canal proceeds from the Worcester and Birmingham Canal, near Selly Oak in Worcestershire, and passes a little east of Hales Owen, and north of Dudley, to the Old Birmingham Canal, near Tipton. From near Dudley it proceeds to the Black Delph and Stourbridge Canals. For the first ten miles and a half it is level to the Black Delpb, thence two miles to Stourbridge it falls eighty-five feet by nine locks, and in three quarters of a mile to the Dudley tunnel it rises thirty-one feet by five locks. Through the 2926 yards of the tunnel it is level; thence, in one furlong, to Old Birmingham Canal, it falls thirteen feet by two locks. The main line is thirteen miles long. There are two more tunnels, one at Lapal of 3776 yards, and another at Grotsy Hill, 623 yards. The Dun River Navigation, consisting of parts of the river Dun or Don, and short pieces of canal alternately, commences in the Ouse at Goole Bridge, and extends south-west about thirty-nine miles to Tinsley, near Shef¬ field, where it is joined by the Sheffield Canal. The total rise is ninety-two feet and a quarter, by sixteen locks. Eden River has been made navigable ten miles and a half in the tideway from Carlisle Bridge, by Kirk-Andrews and Rockcliff, to Burgh Marsh Point, where it empties it¬ self into the Solway Frith. It has been in some measure superseded by the Carlisle Canal. The Edinburgh and Glasgow Union Canal has its western extremity at lock No. 16 of the Forth and Clyde Canal, from the south-eastern bank of which it rises 110 feet, by eleven connected locks, to a height which enables it to be conti¬ nued for thirty-one miles wholly on one level to its termi¬ nation at Edinburgh. These locks are a little west of lal- kirk, which the canal passes on the south, proceeding east¬ ward through Prospect Hill tunnel of 696 yards in the solid rock, then over the Avon by a stupendous aqueduct bridge eighty feet above the water of that river. This is about two miles west of Linlithgow, which the canal passes close on the south, and continuing east six miles farther, turns south past the villages of Winchburgh and Broxburn, and then east again to the aqueduct bridge by which it crosses the river Almond ; thence by Ratho to another aqueduct bridge at Slateford over the Water of Leith ; and finally, to Port Hopetoun Basin at Edinburgh. This canal is forty feet wide at top, twenty at bottom, and five deep. The late Mr Telford recommended to continue the line of this canal from Falkirk to lock No. 20, at the eastern extremity of the Forth and Clyde summit, and to reserve the more depress¬ ed junction at No. 16 for the Grangemouth trade only. By this mode about nine fewer locks would need to be passed in the journey between Edinburgh and Glasgow; and both canals would require less water, especially as the Union Canal would then throw a large quantity of water into the summit of the Forth and Clyde Canal, which the latter now receives at too low a level to be ot any use. The Ellesmere and Chester Canal begins at Ellesmere Port in the tideway of the Mersey, about ten miles south¬ east of the port of Liverpool, proceeding south by Stoke, Wervin, and between Moston and Mollington Hall to Ches¬ ter, where a short branch locks down into the river Dee. From this it passes east by the north wall of the city, then more southerly by Christleton and Beeston Castle, to Wardle Green, from which a branch goes to join a branch of the Grand Trunk at Middlewich. The main line pro¬ ceeds a mile and a half from Wardle Green to near Hurle- ston, whence another branch proceeds to near Darlord Hall near Nantwich, and connects with the Birmingham and Liverpool Junction Canal. From Hurleston the main line proceeds southward by Burland to Woodcot, and thence westward to near Whitechurch, where the canal enters Shropshire. Next, passing close by a detached part of Flintshire, it reaches the Cottage; and then continuing westerly by the south side of Ellesmere, to which there is a short branch, it turns more southerly to Francton Com¬ mon, where the Llanymynech branch proceeds from it to the Montgomeryshire Canal. The direction of the main line is again westerly by Halston Hall, crossing the river Ceiriog by a fine aqueduct, then through Chirk Tunnel to the river Dee, which it passes by means of the famous cast- iron aqueduct bridge at Pont-y-Cysylte. (See the article Aqueduct.) The entire length of the main line from the Mersey to the Montgomeryshire Canal is sixty-one miles, viz. to Chester, eight miles and a quarter, with a rise of forty-six feet; to Hurleston Locks, fifteen miles and three quarters, with a rise of 131 feet; to Francton Common, twenty-five miles, with a rise of 115 feet; and to the Mongomeryshire Canal, eleven miles and a half, with a fall of fifty-two feet. The branch to meet the Birmingham and Liverpool Junc¬ tion Canal is two miles, and level. The branch from the Cottage to Edstaston Wharf is three miles; the branch to the town of Ellesmere is one furlong; the branch to the Ruabon Brook Railway is fully eleven miles; and that from Wardle Green to the Grand Trunk is nearly ten miles, with a fall of forty-four feet. This navigation, con¬ sidering its extent, is remarkable for having been princi¬ pally undertaken for agricultural purposes, the supply ol towns and manufactories being a secondary consideration, though these have been greatly benefited by it. For many other particulars, see Priestley’s Account of Canals. Naviga¬ tion, Inland. NAVIGATION, INLAND. 13 Naviga- The English and Bristol Channels Ship Canal was pro- tion, jected principally with the view of shortening and render- inland. jng more certain and expeditious the passage of vessels trading from the Bristol Channel, the ports of Ireland, and the western ports of Britain, to the English Channel. Its length is to be forty-four miles and five eighths from its southern extremity, at Beer Roads, Seaton Bay, in the English Channel, to the northern, in Bridgewater Bay, in the Bristol Channel, which is shorter by fully 220 miles than going round the Land’s End. The width is to be ninety-feet, with a depth of fifteen. The Erewash Canal proceeds from the Cromford Canal, near Langley Bridge, to the Trent, near Sawley Ferry, be¬ ing eleven miles and three quarters long, with a fall of 109 feet. The Nut-Brook Canal proceeds from the middle of this, and farther down it receives a branch of the Derby Canal, and near Sawley the Trent Canal. « The Exe River and Exeter Canal. The estuary of the Exe is navigable for eight miles, from Exeter up to the town of Topsham, and a little above this a canal proceeds from the river, running fully three miles up its west side. It is said that the first lock constructed in England was on this navigation, in 1675. But in 1829 an act was passed for making the canal enter the estuary at the Turf, two miles lower down, which will increase its length to five miles, with a depth of fifteen feet. Forth River begins to be navigable at Stirling Bridge; but the tide reaches a little farther, to Craigforth Mill. From this downward the windings of the river are singu¬ larly intricate ; its course to Alloa measuring more than three times the direct distance, which is only seven miles. On this account, although vessels of from sixty to seventy tons have water enough to Stirling, it is visited by few excepting steamers. About three miles above Alloa the Forth receives the river Devon, which is itself navigable for a short way, and very susceptible of great improve¬ ment. From this the Forth gradually expands into an es¬ tuary two miles wide opposite the mouth of the Carron, which is at the distance of thirty miles from Stirling by water. This estuary, called the Frith of Forth, continues eastward about forty-six miles farther to the Isle of May, where it may be reckoned to enter the German Sea. The Forth and Clyde Canal commences in Grangemouth harbour, in the small river Carron, about two miles by the low-water channel, above its mouth in the estuary of the Forth. The general direction of this canal is that of west by south. It at first runs a considerable way on one level along the south side of the Carron, with which it again communicates by a cut from it at Bainsford, to that river at the Carron Iron-Works. The main line then passes to the north-west of Falkirk, and thence to Bonny Bridge, proceed¬ ing by the south side of Kilsyth, and along the south bank of the river Kelvin, and over the Logie Water by a stone aqueduct at Kirkintilloch. It then reaches Hamilton Hill about two miles from the north-west quarter of the city of Glasgow, to which there is a branch of two miles and three quarters, communicating with a branch from the Monk- land Canal at Port-Dundas basin. The main line now pro¬ ceeds westerly, crossing the Kelvin by a noble aqueduct, and then runs along the side of the Clyde, till it at length locks down to that fine river at Bowling Bay. The main line is thirty-five miles long, fifty-six feet wide at top, twenty-seven at bottom, and ten feet deep. In ten miles and three quarters from Grangemouth to the summit, it rises 156 feet by twenty locks. The summit-level con¬ tinues about sixteen miles, and from it to the Clyde there is a descent of 156 feet by nineteen locks. Each lock is seventy-four feet long by twenty wide. At lock No. 16 from Grangemouth, this canal connects with the Edinburgh and Glasgow Union Canal. Few canals have proved so lucrative as the Forth and Clyde. Instead of having its eastern extremity in the Car- Naviga- ron, it was originally intended to have had it considerably t^on’ farther east, or lower down the Forth, in the deeper water. lnlan • at Borrowstownness. This would certainly have been an immense improvement, but probably not so easily executed as some imagine; for the work was really once consider¬ ably begun, and after all abandoned, chiefly, we presume, from the difficulty of passing over the river Avon, without raising the canal a good deal for several miles along the low carse lands. The remains of a bungled aqueduct bridge for this purpose were lately to be seen on the banks of that river. The Foss Navigation, in the north riding of Yorkshire, follows the course of the river Foss from Stillington Mill, partly in that river and partly by canal, for about twelve miles and a half, to the Ouse, at York, descending forty- seven feet and two thirds. Foss-dike Navigation commences in the Trent, at Torksey, continuing south-east on one level for eleven miles, through a flat country, to Brayford Mere, near Lincoln High Bridge, where it is joined by the river Witham; and about five miles west of Lincoln it receives the river Till. At Tork¬ sey is a double lock, with gates pointed both ways. This canal is supposed to have been first executed by the Ro¬ mans. Gippen or Gipping River has been made navigable from near Stowmarket for sixteen miles in a south-easterly di¬ rection, to where it falls into the tideway of the Orwell, on the south side of the town of Ipswich, near Stoke Bridge. From this the estuary of the Orwell extends about twelve miles to the sea at Landguard Fort. Glamorganshire or Cardiff Canal commences about one mile and a half below Cardiff, on the east side of the river Taff, near its entrance intoPenarth harbour. It runs north¬ west, parallel with the Taff, by the city of Landaff, cross¬ ing the Taff by an aqueduct bridge, and it is then joined by the Aberdare Canal. Still keeping up the vale, it reaches its termination at Merthyr Tydvil; the total length being about twenty-five miles, with a rise of 611 feet. The Glasgow, Paisley, and Ardrossan Canal, though ori¬ ginally intended to connect these places, and to be thirty- two miles and three quarters long, has as yet only been exe¬ cuted for twelve miles. It begins at Port Eglinton, near Glasgow, proceeding westerly by the north bank of the White Cart River, along which it continues till near Paisley, where it crosses that river, and then passes on the south of that town to its termination at Johnstone. It is twenty- eight feet wide at top, fourteen at bottom, four and a half deep, and all on one level. The excavation of the rest of the canal seems to be quite laid aside ; but the line is to be continued to Ardrossan by a railway now in the course of being constructed. Glastonbury Navigation begins at the confluence of the rivers Brue and Parrett, in the Bristol Channel, running along the course of the Brue to Highbridge, and is to be continued by a canal, partly in that river, to the west side of the town of Glastonbury, in all fourteen miles and a quarter. Glenkenns Canal, on the Solway, though described in various books for the last thirty-five years, has never yet been executed. The Gloucester and Berkeley Ship Canal begins in the Severn, at Sharpness Point, about three miles north of the town of Berkeley, proceeding by Slimbridge and Saul, and, crossing the Stroud Canal on the same level, it passes Wheatenhurst, Hardwick Court, and Hempstead House, and reaches the city of Gloucester, where it terminates in a spacious basin, out of which there is a lock into the Severn. The distance between Sharpness and Gloucester by the Severn is twenty-eight miles, whilst by the canal it is only sixteen and a half, and avoids a difficult and often 14 NAVIGATION, INLAND. Naviga- dangerous navigation. The width of this canal is seventy non, feetj depth eighteen, and it is level throughout. Inland. Qrancj Junction Canal proceeds from the Thames at Brentford, across the Brent rivulet, to the valley of the Colne, which it continues to follow past Uxbridge, Rick- mansworth, Walford, King’s Langley, Two-Waters, Berk- hampstead, to the summit-level at Cowroast; being thirty- five miles and three eighths, with a rise of 395 feet, and through an almost continued series of mill pools. The summit-level extends only three miles and three fourths to Tring, and is chiefly in deep cutting. From Tring the ca¬ nal continues by Marswath, near to Leighton Buzzard and Fenny Stratford, to the Ouse at Wolverston, near Stony Stratford, a distance of twenty-five miles and a quarter, with a descent of 192 feet. Here it crosses the Ouse on a small aqueduct, and an embankment half a mile long. Then running along the western side of, and hav¬ ing crossed the Five Rivers, the canal arrives at Stoke- Bruern, being a distance of six miles and a half, with a rise of 112 feet. It next goes through Blisworth tunnel, of 3080 yards, proceeding by Western Beck to the south¬ ern extremity of Whitton parish, being thirteen miles and a half, on one level. In three quarters of a mile from this to Whitton Mill it rises sixty feet, and then continues le¬ vel for four miles and a quarter, to the farther extremity of Braunston tunnel, of 2045 yards. It is seven eighths of a mile, with a fall of thirty-seven feet, from this tunnel to the junction with the Oxford Canal. The total length of the main line of the Grand Junction between the limits now mentioned is ninety miles and a quarter. Its average width is forty-three feet, and depth from four and a half to five feet. The locks are eighty-two feet long by four¬ teen and a half wide. The Paddington branch, of thirteen miles and a half, is of the same dimensions. It connects with the main line about midway between Uxbridge and Brentford, and again with the Regent’s Canal at Padding¬ ton. From Tring a level branch of six miles and three quarters reaches near Wendover; and, a little north of Tring, a branch of six miles goes to Alyesbury, falling ninety-five feet. From the embankment over the Ouse, a branch of nine miles and a half proceeds to the town of Buckingham; and another of nine miles from Gayton, by Old Stratford, to the Nen, near Northampton. By means of the Grand Junction a communication has been opened between London and the great manufacturing districts in the interior of the kingdom. The Grand Surrey Canal commences at Wilkinson’s Gun Wharf, on the south bank of the Thames, about a quarter of a mile east of the Thames Tunnel, and passing 1200 yards through the docks of this navigation, its course is southward, approaching at Bridge Place within 250 yards of the King’s Dock Yard at Deptford, near to where it is joined by the Croydon Canal. It then turns west by Peck- ham New Town to the north side of Adlington Square, where it terminates. It is four miles and two chains in length. Grand Trunk, see Trent and Mersey. The Grand Union Canal unites with the Leicester Union Canal near Foxton, about four miles from Market Har- borough, to which there is a branch. Its course is south¬ erly, passing through a tunnel of 1166 yards at Bosworth, between Lutterworth and Northampton, and thence by Elkington and Guildsborough to Crick, at which there is a tunnel of 1524 yards. Then leaving Watford on the east, it continues to its termination in the Grand Junction Canal at Long Buckby. The entire length is about forty- five miles, with an ascent of seventy-six feet by ten locks, and a fall of fifty-four feet by seven locks. Grantham Canal commences at the town of that name in Lincolnshire, passing Harloxton, Woolsthorp Point, Stainwith Close, Cropwell Butler, to its termination in the river Trent, nearly opposite the mouth of the Netting- Nayiga- ham Canal. The'length is about thirty-three miles, with tl0n’ a fall of a hundred and forty-seven feet and a half. A v n ^ _ branch of three miles and a half goes to the town of Bing¬ ham. Gresley Canal forms a short connecting portion between or in the line of the Newcastle-under-Line Canal and the Newcastle-under-Line Junction Canal, the principal pur¬ poses of which are for conveying coals from the Apdale and Partridge Collieries on the west, and the Caldon line from the east. The Hartlepool Ship Canal connects the Hartlepool har¬ bour with the sea. It is 300 yards long, and nineteen feet deep, being cut through the solid rock. Hereford and Gloucester Canal commences in the Se¬ vern opposite Gloucester, crosses Alney Isle and another branch of the Severn to Lassington, and terminates at Byster’s Gate in Hereford. In eighteen miles from the Severn to Ledbury it rises 195^ feet, and then continues on the summit-level eight and a half miles to Monkhide, from which it descends thirty feet in three miles to With- ington March, and thence to Hereford, six miles, it is level. The total length is thirty-five miles and a half, with three tunnels of 2192, 1320, and 440 yards respectively. Hertford Union Canal is a cut of one mile in length, to connect the Hackney Cut of the River Lea Navigation at White-Post Bridge, near Temple Mills, with the Regent’s Canal at Old Ford Lock, Bethnal Green. It is also called the Lea Union and Sir George Duckett’s Canal. The Horncastle Navigation commences in the Old Witham River, near Tattershall, Lincolnshire, and, partly occupying the bed of what was formerly the Tattershall Canal, proceeds to Horncastle by the course of the Bain River. It is about eleven miles long, and very little elevat¬ ed above the sea. Huddersfield Canal commences on the southern side of that town, running south-west by Slaithwaite, nearly pa¬ rallel with a branch of the Colne, for seven miles and a half, which river it crosses three times by aqueducts ; and, ascending 436 feet by forty-two locks, it attains, near Mars- den, the highest summit-level in the island, being 656 feet above the sea, but only four miles long. This is princi¬ pally occupied by the Standedge tunnel, of 5451 yards, which is upwards of three miles, being the largest in Bri¬ tain, from which the canal emerges into the vale of Dig- gle in Saddlewmrth, to near Wrigley Mill. It then glides along the valley alternately on the north and south sides of the River Tame, past Dobcross, Scout, and Stayley Bridge, to its junction with the Manchester, Ashton, and Oldham Canal, near Duckinfield Bridge ; having passed a farther distance of eight miles and a quarter, with a de¬ scent of 334^ feet by thirty-three locks. There is a tun¬ nel at Scout of 240 yards, and another at Ashton of 198 yards. This canal forms part of the shortest water com¬ munication between the east and west coasts. Hull River, see Driffield. Itchin Navigation follows the course of the river Itchin from Blackbridge, near the city of Winchester, to the tide¬ way at Northam, near the town of Southampton, a distance of fourteen miles. Ivel River, which empties itself into the Ouse at Temps- ford in Bedfordshire, has been made navigable for five miles and three fourths, up to Biggleswade ; and it has long been proposed to extend it five miles and a quarter farther, up to Sheffbrd. Ivelchester and Langport Canal, in Somersetshire, is nearly seven miles long, running eastward from its com¬ mencement in the river Parrett, below the town of Lang¬ port, to Ivelchester or Ilchester. Kennet and Avon Canal commences at the head of the navigable part of the river Kennet, at Newbury in Berk- NAVIGATION, INLAND. 15 shire^ar.dpassesup thevalleyofthatriverby Hungerford little above this it is connected with the Regent's Canal Naviga- by a cut of one mile, called the Hertford or Lea Union tion, Lanai* l1rom lemnle lYTills T. t0 Eastgate ^Bridge, in fUT bt Edmunds. Being connected with the Ouse, near Littleport, it is a very useful navigation. Lea River Navigation commences at the town of Hert- S easterly by Ware to its junction with the Stort River Navigation, near Hoddesden, from which it veers south to Waltham Abbey, and preserves the same Wans!endt0 j‘ . u' ’ ^l,ere’ !’gain bendlllg south-east by Wanstead and Aldersbrook, it arrives at Temole Mills. From lemple Mills the Lea proceeds to its de-, scent into the Uiames at Bow Creek. At Bromley there is a cut of one mile and a half, falling seventeen feet and a half into the Thames at Limehouse. The track of the Lea from the Hertford to the Ihames is about twenty-six miles; and connected with it is the canal called the New River, which supplies London with water. The Leeds and Liverpool Canal commences at Leeds Bridge, where it unites with the Aire and Calder Naviga¬ tion, and terminates at North Ladv’s Walls- T „ A tion, and terminates at North Lady’s Walk, Liverpool^ a distance of 127^miles. In the course of forty-one miles from Leeds to the summit-level, near Greenberfield, the total rise is 411 feet; from the summit near Colne, to the basin at Liverpool, there is a fall of 433 feet; and from the basin to low water in the Mersey the fall is fifty-six feet. It is to be observed, that of this line of navigation eleven miles belong to the Lancaster Canal; that is, from Cophurst, or Johnson’s Hillock, to Kirklees. The great tunnel of Foulridge is 1640 yards long, eighteen feet high, and seventeen wide. At Bingley, a connected series of five locks effect the enormous lift of eighty-eight feet and two thirds, which must often occasion a great waste of water, unless recourse be had to some additional artifice. This canal was forty-six years in hand, being begun in 1770, and finished in 1816. & ^ The Leicester Navigation commences at the basin of the Loughborough Canal, and proceeds three miles to the se¬ paration of the Melton-Mowbray Navigation. (See Wreak and Eye Navigation.) From this the distance is eleven miles, with a rise of forty-five, to its termination in the Leicestershire and Northamptonshire Union Canal. The Leicestershire and Northamptonshire Union Canal, commencing at the junction with the Leicester Navigation, proceeds partly in the bed of the river Soar, and partly by an artificial course, to the Grand Union Canal at Gumley Hall, a distance of seventeen miles, rising 160 feet. From the last place a branch of four miles goes to Market Har- borough. There is a tunnel half a mile long at Saddington. The Leominster Canal commences at Kington, 505i feet above the sea, where it meets the Kington Railway; thence observing an easterly direction, it passes to the aqueduct over the Lugg at Kingsland, and then bends south to near Leominster. From this town it runs north for a consider¬ able distance past Berrington House, then turns east with many windings past Tenbury to the aqueduct over the Rea, and the tunnel at Sousant, which is 1250 yards long From the latter, which is 264^ feet above the sea, the ca¬ nal runs eastward to its termination at Stourport, where it unites with the Severn and the Stafford and Worcester Ca¬ nal, having described a track of forty-six miles. From Kington to Staunton Park it is level for four miles, then falls 152 feet in two miles and a half to Milton, thirty- seven feet in three miles and a half to Kingsland aque¬ duct, and sixty-four feet in four miles and a half to Leo¬ minster. In the next mile and a half it rises eighteen feet, and in five miles and a half farther to WIston it is level; thence to Letwich Brook it falls thirty-six feet in four miles and a half. The next seven miles to Rea are level, then is a rise of thirty-five feet in one mile to Sousant tunnel, then nine level miles to Great Pensax tunnel of 3850 yards. But in the last three miles to the Stafford and Worcester Canal there is a fall of 207 feet; the total fall being 496 feet, and the rise forty-eight. dhe Leven Canal is a cut of three miles from the village of Leven to the Driffield or Hull River Navigation. Lewes, see Ouse River, Sussex. •d u Eiskeard and Looe Canal commences at Tarras Pill, and runs northward to Moorswater, in the parish of Lis- keard, in Cornwall. It is five miles and seven eighths long, 16 Naviga¬ tion, Inland. NAVIGATION, INLAND. It has a branch of rising 156 feet by twenty-five locks, one mile to Sand Place. i v r Louth Canal runs from that town northwards by Lea- therhill Mead and North Cockering to Titney, in the mouth of the Humber, a distance of fourteen miles, falling htty- six feet and a half. The Loyne or Lune River is navigable about seven miles in the tideway from Lancaster Bridge to its mouth in Lan¬ caster Bay. Lynn River, see Narr. , , f Macclesfield Canal commences near the north end ot the summit-level of the Peak Forest Canal, and passes through a very undulating part of Cheshire to the road from Buxton to Congleton, where it locks down to its low¬ est level; then crossing the Dane, it runs south-west to its termination in the summit-level of the Trent and Me sey Canal, a distance of twenty-nine miles and a halt, with a total fall of 113# feet. This, when executed, will shorten the communication between London and Manchester about thirteen miles. Manchester, see Ashton. _ . j • * The Manchester, Bolton, and Bury Canal ascends sixty- eight feet and one third, by six locks, from the Irwell to the basin in Salford ; thence for four miles running parallel to the Irwell it is level, but in the next three miles it rises 121 feet by twelve locks. The remaining four miles to Bolton are level, and so is a branch of four miles to Bury. Market Weighton Canal commences at New River Head, near Market Weighton, and runs almost directly south tor eleven miles to its termination, with a sea-lock at toss-dike Clough, in the Humber. Near the upper end are three l0Vhe Medway River begins to be navigable for barges at Penhurst Bridge, about six miles above Tunbridge, and about forty-five miles by the crooked course of the river, from its mouth in the Thames at Sheerness; but some de¬ duction should be made for several bends being now cut off. The tide formerly reached up to Maidstone, but has been obstructed by locks and weirs. Below Rochester Bridge this river is in many places of great width, and so deep as to float the largest vessels at low water, thus affording a safe and extensive harbour for Chatham dock-yard. A little below Rochester Bridge it is joined by the ihames and Medway Canal, and near its mouth by the East Swale or tide passage round the south side of the Isle of Sheppey. The Mersey and Irwell Navigation commences in the estuary of the Mersey at Runcorn Gap, and terminates at the bridge between Manchester and Salford. It con¬ sists in these rivers improved by locks, weirs, and exten¬ sive side-cuts, so as to be conveniently navigable over a distance which by the course of the rivers exceeds fifty miles. The various canals connected with the Mersey and Irwell render this an undertaking of great utility. The Monkland Canal begins at Old Monkland Colliery, and runs nearly direct west for twelve miles to Port Dun- das at Glasgow, where it communicates with a branch ot the Forth and Clyde Canal, to which it acts as a feeder. In its course it receives the Monkland and Kirkintilloch, Garnkirk and Glasgow, and Airdrie Railways. At hheep- ford it falls twenty-three feet by two locks, and at Black- hill ninety-six feet by twelve locks. It is thirty-four feet wide at top, twenty-four at bottom, and four and a half Monmouthshire Canal commences in the Usk a little below Newport, close to the termination of the Rum- ney and Sirhowey Railways. Passing northward, this ca¬ nal extends by Pontypool to Pontnewynydd, a distance ot fully seventeen miles and three quarters. Near the latter place it connects with the Abergavenny and Brecknock Canal. In the last twelve miles it rises 447 feet; and, opposite Malpas, a branch of eleven miles, rising 358 feet, goes to Crumlin Bridge. There are various extensive railway branches from this canal. p^rtvwnin lime- Montfomeryshire Canal commences at Portywain lime works wEereT joins a branch of the Ellesmere Canal; I" having passed the village of Llanymynach, and eross- ed the Verniew River, it joins another branch of the El¬ lesmere Canal. Next running to Gwern-felu, where a branch to Guilsfield turns off, it proceeds to Welchpool; after this it runs parallel to the Severn, which it at length tains on the east side of Newton. It is about twenty-se- ven miles long, running in a south-west direction, with a 10 Not of Lym River is navigable from the Ouse at King's Lynn to Castle Acre in Norfolk, a distance of about fif- 16 Neath Canal commences in the tideway of the Neath, at Giant’s-grave-pill, in Briton’s ^7’andKrun"‘Dg nAor“‘ west, terminates in the Aberdare Railway branch at Aber- naut, a distance of fourteen miles. It has various other railway branches to the neighbouring collieries, &c. Nen or Nyne River is navigable from the sea below Wisbeach, through the Fens to Peterborough, and from that by the natural channel, improved by cuts and locks, to Northampton, which forms a course of about ninety- nine miles. ^ Beginning in the Wash at Peter s Point, and passing up nine miles to Wisbeach, the navigation may ei¬ ther be continued thence to Outwell by the course of the river, or by the still shorter track of the Wisbeach Canal, which also forms a communication between these places. But the navigation likewise proceeds frona both places by two or three embanked courses through the Fens to Pe¬ terborough, a farther distance of forty miles ; and thence by the original channel, greatly improved by cuts, weirs, and locks, for fifty miles more, up to the town of North¬ ampton, to which a canal branch descends 112 feet from the Grand Junction Canal. Near Salter s Load the Nen communicates with the Ouse by means of Well Creek; and a still shorter navigation has been formed from Wi.- beach to Lynn, through the Wisbeach Canal. The above may give some idea of the principal lines of navigation belonging to this river; but since most of the rivers an navigable drains in the fens are embanked on both sides, and since they are almost still water too, this occasions such a number of navigable branches intersecting and crossing in all directions, that a description of them would greatly exceed our limits. The Newcastle-under-Line Canal extends about three miles westward, from the 1 rent and Mersey Canal at to'e upon-Trent to Newcastle, in the Newcastle-under-Line Junction Canal, which again continues the line north-west for eight miles farther (including in its middle the five miles of Gresley’s Canal) to Partridge-Nest and Bignel- End Collieries. , . , The Newport Pagnell Canal is a branch of a mile and a quarter from that town to the Grand Junction Canal at Linford, with a rise of fifty feet by seven locks. Nith or Nidd River Navigation commences in the 8ol- way Frith, and extends nearly north for about nine miles in the tideway between the counties of Dumfries and Kirkcudbright, to Dumfries Bridge; but it stands much m need of improvement. North Walsh am and Dilham Canal commences at Way- ford Bridge, in the parish of Dilham, Norfolk, in the river Ant, and runs north-west by North Walsham and Wlnt- ton Park, to its termination at Antingham, a distance or seven miles. North Wilts Canal, see Wilts and Berks. The Norwich and Lowestoff Navigation, commencing in the Wensum or Yare River at Norwich, follows partly the course of that river, and those of the Yare and Wensum, and proceeds partly through the Lake Lothmg, and by Naviga¬ tion, Inland. NAVIGATION, INLAND. Naviga- cuts to Lowestoff, a distance of thirty miles. It traver- tion, ses so flat a country, that a tide-lock only is necessary, Inland. admits vessels eighty-four feet long, twenty-one wide, and drawing ten feet of water. Nottingham Canal commences in the Trent, from which it has a winding course for about fifteen miles, with a rise of 108 feet to the junction of the Erewash and Cromford Canals at Langley Bridge. Nutbrook or Shipley Canal is a branch extending four miles and a half, from the Erewash Canal, near Trowen, to the Shipley Collieries. The Oakham Canal extends from that town to Melton- Mowbray on the Leicester and Melton-Mowbray Navi¬ gation ; a distance of fifteen miles, falling 126 feet. Ouse River, Sussex, navigable naturally nine miles in the tideway op the Lewes, has, by artificial means, been rendered navigable for twenty-two miles farther, up to Hammer Bridge. Ouse River, Yorkshire, is navigable for vessels of 150 or 160 tons from where it receives the Trent, up to the junction of the Aire and Calder Navigation at Armyn, a distance of fifteen miles, and for smaller masted vessels twenty-five miles farther to the city of York. This river, notwithstanding its limited trade above that city, has such an immense traffic in the lower part, by reason of the nu¬ merous rivers and canals communicating with the manu¬ facturing and mining districts, that it undoubtedly ranks the second river in the kingdom in importance and utility ; whilst, by its union with the Humber, merchandise is ex¬ ported to and imported from all parts of the globe. Ouse River Navigation (Bedford Level) commences in the estuary of the Wash, below the town of Lynn, and pro¬ ceeding thence by a cut of two miles and three quarters, called the Eau Brink, to Salter’s Load and Denver’s Sluice, it is thus far, which is about seventeen miles above Lynn, an open embanked navigation. From this upwards the natural river continues navigable still by an embanked crooked course through the Fens to Ely and Hermitage Sluice near Erith, and thence onward to Bedford, altoge¬ ther about eighty-four miles from the sea. From Lynn the Narr or Lynn has been made navigable fifteen miles to Castle Acre in Norfolk; and from Salter’s Load the Well Creek extends to the Nen and Wisbeach Naviga¬ tion. Near Denver’s Sluice the Ouse receives the river Stoke, also the Old and New Bedford Rivers, which are two parallel straight cuts of twenty-one miles, joining the Ouse again at Hermitage Sluice. From this last place a navigable cut of twelve miles conveys water from the Ouse to the Nen at Benwick. At Brandon Creek Bridge the Ouse receives the Little Ouse, which is navigable for twenty-two miles and a half south-east by Downham and Santon to Thetford ; and at Prickwillow it receives the Larke, navigable to Bury St Edmund’s. Near Barkway the Soham Lode, navigable for four miles to Soham, falls into the Ouse. At Harrimere it receives the Grant or Cam, navigable to Cambridge, and at Tempsford the Ivel. Almost the whole of the rivers and large drains connected with the Ouse are embanked and nearly level. Many others of them are navigable for short distances besides those we have noticed, but they are chiefly used for drain¬ age. The Oxford Canal commences in the Coventry Canal at Longford, proceeding thence twenty-six miles and a half on one level across the upper part of the valley of the Avon to near Hill Morton, where it rises nineteen feet by three locks. About eight miles farther on it is joined by the Grand Junction Canal ; and in eight miles and three quarters more, at Napton, by the Warwick and Napton Ca¬ nal. Thus far the course is very crooked. In the next two miles it rises fifty-five feet by nine locks to the summit- level, on which it continues ten miles and three quarters VOL. xvl. 17 (passing a tunnel of 1188 yards) to Claydon. From this Naviga. the canal descends into the valley of the Charwell, pro- t'011’ ceeding seven miles and a quarter to Bambury, with a fall v Inlaiu'- ^ of seventy-seven feet by twelve locks. Following the ^ Charwell, and crossing it near Hampton Gay, it passes to its termination in the Thames at Badcock’s Garden on the west of the city of Oxford. The total length is about ninety-one miles; and in the last twenty-seven miles and a half from Banbury it falls 118 feet, by eighteen locks. It is twenty-eight feet wide at top, sixteen at bottom, and four and a half deep ; but, to act partly as a reservoir, the summit-level is six feet deep. For various improvements and alterations on this navigation, we beg to refer to Priest¬ ley’s Account of Canals, &c. The Peak Forest Canal commences at Duckenfield, in the Manchester, Ashton-under-Lyne, and Oldham Canal, and passes south-east fifteen miles to Bugsworth, from which the line is continued seven miles by a railway to Limestone Rock, Peak Forest. Penclawdd Canal extends eastward from the river Burry at Penclawdd, in Glamorganshire, for three miles and three fifths, to Kingsbridge; and, though short, it is said to be of great utility. Pocklington Canal, Yorkshire, extends from East Cot- tingwith, on the Derwent, to Street Bridge, Pocklington, a distance of eight miles and a half. The Portsmouth and Arundel Canal commences in the tideway in the river Arun, at the village of Ford, three miles from the sea, at Arundel harbour, and proceeds westward close by Yapton, Barnham, and Merston, to half a mile from North Mundham, where the Chichester branch takes off’. From this it passes by Donnington to Chichester harbour, where the principal line, which is almost twelve miles long from the Arun, terminates. The bed of the Arun is fifteen feet below high water spring tides; and there is a lock of five feet, above high-water mark, on the bank of the river. A little farther on is another lock of seven feet lift, from which the canal continues on the same level for ten miles five furlongs, to two locks, equal respec¬ tively to the two just mentioned, and similarly situated in respect of the other termination in the tideway. This ca¬ nal is thirty-three feet wide at top, nineteen and a half at bottom, and four and a half deep. Both it and the Chi¬ chester branch, of a mile and a quarter, are fed by water raised by a steam-engine. The channel from the extremity of the main line of canal in Chichester harbour, round Thorney Island and Hayling Island, by Thorney and Langstone Wadeways, and Langstone harbour, to the end of the Portsea Canal, is thirteen miles and an eighth. The canal from Eastnay Lake is two miles and three eighths long; there are two locks at the east end, and a basin at the termination at Portsea. This part is five feet deep, and is fed by an engine. From the end of the main line in Chichester Harbour to the canal at Cosham, the distance is fifteen miles and a quarter ; and the length of the canal to Porchester Lake in Portsmouth harbour is one mile and a quarter. This branch is seven feet deep, with a sea-lock of ten feet lift at each end. These im¬ portant undertakings, from their connections with so many other navigations, will tend to open a ready inland communication between this quarter and almost every part of the kingdom, and may become serviceable for con¬ veying military stores from London to Portsmouth in time of war. Ramsden’s (Sir John) Canal, is a short connecting link of three miles and three quarters, between the Hud¬ dersfield Canal at the King’s Mill near Huddersfield, and the Calder and Hebble Navigation near Cooper’s Bridge. It descends fifty-seven feet and a half, by nine locks. Regent’s Canal commences in the Paddington branch of the Grand Junction Canal, near the Harrow Road, and, c 18 NAVIGATION, INLAND. Inland. Naviga- proceeding in a north-east direction, passes through a short tion> tunnel under the Edgeware Road, and thence runs paral¬ lel to Primrose Hill Road, till, having passed on the north of the Zoological Gardens, a branch of half a mile runs south-east to a basin at Cumberland Market. The main line preserves nearly its first direction, till, crossing the Pancras Vale Road, on the north of Camden Town, it turns more eastward ; then locking down, it crosses Cam¬ den Road and the King’s Road, and turns south-east across Maiden Lane, next to Horsfall’s Basin, a quarter of a mile beyond which it enters the tunnel under Islington, 900 yards long, but which, most unfortunately, to save a trifle of expense, has no room for a towing-path. It next cross¬ es the New River to Frog Lane, on the east of which is a lock, and also a branch called the basin, passing under the City Road. The main line continues eastward to Brid- port Place, and, running parallel with Felton Street, it leaves a second basin on its north bank, and a little far¬ ther on a third basin on its south bank. From this it pro¬ ceeds across Cambridge Heath Road, and then, bending greatly south, crosses Mile End Road, passes to Stepney Lane, crosses the Commercial Road, and finally arrives at the basin at Limehouse, by which it locks into the Thames, being a total distance of eight miles and a half, de¬ scending ninety feet by twelve locks besides the tide-lock. At Globe Town, a cut of one mile, running north-east, connects this canal with the River Lea Navigation. It is named the Hertford Union Canal, and sometimes the Lea Union. Ribble River, Lancashire, has been rendered navigable for eleven miles westward from Penwortham Bridge, near Preston, to its mouth in the Irish Sea. Rochdale Canal commences in the Bridgewater Canal at Castlefield, Manchester, and about a mile from this is joined by the Manchester, Ashton-under-Line, and Old¬ ham Canal. It then passes the town of Rochdale, and along the north border of the high ground called Black- stone Edge, to its termination in the Calder Navigation at Sowerby Bridge Wharf, a distance of thirty-one miles and a half. The rise from Knott Mill, Manchester, to the summit, is 533| feet, and the fall from this to Sowerby Bridge is 353J. This canal is one of the main links in the chain of inland navigation between the east and west seas. The Rother River Navigation commences at Lower Platt, near Midhurst, Sussex, and passes by Cowley Park to Ambersham, and by Petworth and Burton to a little be¬ yond Little Fittleworth, from which a cut passes to the river Arun, near Stopham Bridge, where the navigation terminates, the total length being eleven miles. The Royal Military Canal commences in the tideway at Shornclifl' in Kent, proceeding west to Hythe, and, gradu¬ ally bending southward, passes on the south of Lympne and Appledore to the junction with the long proposed Weald of Kent Canal. From this it proceeds south to the river Rother, in the bed of which it continues past Rye to Winchelsea, where that river verges south-east, whilst the canal continues due south to Cliff End, and there termi¬ nates. The total length is about thirty miles, the width at top is from sixty-two to seventy-two feet, and at bottom from thirty to thirty-six, and the depth is nine feet. The locks are seventy-two feet long and sixteen wide ; they are only re¬ quired for the tide, and the fluctuations of the Rother. St Columb Canal is a cut of six miles, from Maugan Porth to Lower St Columb Forth, in the county of Corn¬ wall. The Salisbury and Southampton Canal commences in the Itchin River at Norham, near Southampton, and runs along the north-east shore of Southampton Water to Red¬ bridge, from which the line of navigation is continued north in the Andover Canal. From the latter, at Mitchel- mersh, a branch was dug westward to Salisbury, but was abandoned because it would not hold in the water. This had not, it would seem, been thought worth a lining of clay, which, if properly executed, would make any canal hold in. Sankey Brook Navigation, the first executed in England, originally commenced at Fidler’s Ferry, at the mouth of Sankey Brook, from which it at first runs north, gradually bending west, and latterly turns south to St Hellens, where it terminates. The length is about twelve miles, rising seventy-eight feet by ten locks ; width forty-eight feet at top, depth five and a half. In 1830 an act was obtained for extending this navigation three miles and a quarter, from a little above Fiddler’s Ferry to Widness Wharf, West Bank, near Runcorn Gap. The Severn River is navigable for 178 miles, with a de¬ scent of 225 feet, from Welshpool, through the counties of Montgomery, Salop, Worcester, and Gloucester, till it en¬ ters the Bristol Channel. Its navigable connections are the Montgomeryshire Canal at Newtown; the Shrewsbury Canal at Shrewsbury ; the Shropshire Canal at the Hay ; the Staffordshire and Worcestershire Canal, and the Leomin¬ ster Canal, at Stourport; the Droitwich Canal at Hawford ; the Birmingham and Worcester Canal at Diglis, below Worcester ; the river Avon at Tewkesbury ; the Coombe Hill Canal at Fletcher’s Leap; the Hereford and Glou¬ cester Canal at Gloucester; the Gloucester and Berkeley Canal, both at Gloucester and at Sharpness Point; the Stroud Canal at Framiload ; the Lydney Canal below Lyd- ney; the river Wye at Beachley; the Bristol River Avon at Morgan’s Pill; and the Monmouthshire Canal at New- port. Sheffield Canal connects that town with the river Dan Navigation in the township of Tinsley. It is little more than four miles long, with a fall of seventy feet by eleven locks. The Shrewsbury Canal commences at Rockwardine Wood, in the north extremity of the Shropshire Canal. Ihe first mile is level. At Woombridge it descends seventy-five feet by an inclined plane; and in the next four and three quarters miles to Langdon is a farther fall of seventy-nine feet by locks. It then crosses the river Tern by the first iron aqueduct used in a navigable canal, and, proceeding by Roddington, it passes a tunnel of 970 yards, and at length runs along the bank of the Severn to its termina¬ tion at Shrewsbury. The total length is about seventeen miles and a half. Shropshire Canal commences at the Donnington Wood Canal, and passing Rockwardine Wood and Madeley, pro¬ ceeds to its termination in the Severn at Coalport, two miles below Coalbrook Dale. The length is seven miles and a half. It has a rise of 120 feet, and two falls of 126 and 207 feet, all of them by inclined planes. Sleaford Navigation extends from Chapel Hill, on the Old Witham River, to the Castle Causewray near Slea¬ ford. It is about thirteen miles and a half long, thirty feet wide at top, eighteen at bottom, and five feet deep. The greater part of its course is embanked through the fens. Soar River Navigation consists of the river Soar, made navigable for seven miles up from the Trent, and of a cut of one mile and a half, which continues it to Lough¬ borough, where it connects with the Leicester Navigation. Somersetshire Coal Canal commences at the Kennet and Avon Canal at Limpley Stoke, and terminates at Paulton, a distance of ten miles. It is connected with various col¬ lieries by railways. Staffordshire and Worcestershire Canal commences in the Severn at Stourport, and proceeds northerly by Mil- ton, Kidderminster, Tittenhall, Penkridge, and Baswich, to its termination in the Trent and Mersey Canal near Hay¬ wood, Staffordshire. The total length is forty-six miles Naviga¬ tion, Inland. NAVIGATION, INLAND. Naviga- and a half. In the first twelve miles and a quarter from tion> Stourport, to where it is joined by the Stourbridge Canal, Inland. rjges 127^- feet by thirteen locks; in the next eleven ^1^ it rises 166^ feet by eighteen locks. The next ten miles, in which it is joined by the Old Birmingham Canal, are level; and in the remainder it falls 1001 feet by thir¬ teen locks. This canal is thirty feet wide at top, and five deep. The locks are seventy-four feet long, and seven feet wide, but had originally only four feet water on the sills. Stainforth aftd Keadby Canal begins in the river Dun, near Stamforth, Yorkshire, and passes eastward fifteen miles to the Trent at Keadby, Lincolnshire, where it has a tide-lock. There is only another lock near Thorne, of five feet lift, the tract is so flat. Stort River has been made navigable for ten miles in Hertfordshire and Essex, from the New Bridge, Bishop- Stortford, to the river Lea at Rye near Hoddesden. Stourbridge Canal extends about five miles from the Stafford and Worcester Canal at Stewponey, near Stour- ton, to the Dudley Canal at Black-Delph, from which a branch of one mile goes to Stourbridge, and another of two miles to Pensnet Chase Reservoir. It rises 191^ feet by twenty locks. Stour River, between Suffolk and Essex, has been ren¬ dered navigable for nineteen miles from Sudbury to Man- ningtree; thence to Harwich it is a wide estuary. Stratford-upon-Avon Canal commences at King’s Nor¬ ton, about six miles from Birmingham, and proceeds south¬ eastward by Lapworth and Preston Mill to Stratford, a distance of twenty-three miles and a half, descending 309 feet. From near Hockley, a branch of two miles and a half goes to Tamworth quarries ; from Lapworth another of one mile and three quarters to the Warwick and Birming¬ ham Canal; from Wilmote another of four miles to Tem¬ ple Grafton Limeworks ; and from this branch a cut of one mile to Aston Cantlow. Stroudwater Navigation commences at Framiload, run¬ ning eastward across the Gloucester and Berkeley Canal, and the Stroudwater, to Wallbridge, near Stroud, in the Thames and Severn Canal, a distance of eight miles, rising 1021 feet. Swale River, see Ouse. Swansea Canal commences in Swansea harbour, and running north-eastward by Landoor, and across the small river Twrch, terminates at Pen Tawe, a distance of seven¬ teen miles, rising 373 feet. Tamar Manure Navigation. The river Tamar has been made navigable from Morwelham Quay (where Tavistock Canal begins) up to Boat Pool, whence a canal has been continued north-west for about twenty-two miles to Ta- merton Bridge. From near Poulson Bridge a branch goes off to Launceton. Tavistock Canal extends from the tideway in the Tamar four and a half miles north-east to Tavistock, with a rise of 237 feet. From Crebar a branch of two miles goes to the slate quarries at Millhill Bridge, rising nineteen feet and a half. Tay River is navigable from the city of Perth, gradual¬ ly widening downwards by Dundee to the German Sea, a distance of twenty-eight miles, through which the tide flows; but it only admits of large vessels reaching Perth at stream tides. It was formerly much obstructed by floods at one season, and shallows at another; but in 1830 an act was obtained for its improvement. The lees Navigation commences in that river at Stock- ton, and proceeds chiefly by an artificial course to Portrack, 19 and thence by the estuary of the Tees Mouth to the Ger- Naviga- man Sea; the total distance is about twelve miles, and level tion> in the tideway. Inland. Thames River having a separate article devoted to it, we shall only here treat very briefly of its navigation and navigable connections. The principal branch of this noble river, under the name of the Isis, and greatly improved by artificial means, begins to be navigable at Lechlade, about 146^ miles above London Bridge by the course of the river, and where the Thames and Severn Canal locks into it. At Oxford it receives the Oxford Canal; at Abing¬ don, the Wilts and Berks Canal; near Dorchester, its other branch the Thame ; at Caversham Bridge, near Reading, the Kennet Navigation ; near Woburn Park and Ham, the river Wey, with the Basingstoke Canal; near Brentford, the Grand Junction Canal; a little below Wandsworth, the Kensington Canal. Pursuing its course through Lon¬ don, it comes to the St Katherine’s Docks, and then to the London Docks, a little below which it is passed under¬ neath by a tunnel. It is next joined on the south by the Grand Surrey Canal, and then at Limehouse on the north by the Regent’s Canal, and the Limehouse Cut to the river Lea. Proceeding a little, it reaches the western en¬ trance to the West India Docks at the Isle of Dogs, round which it makes a more than semicircular bend, first south to Deptford and Greenwich, and then north again to the eastern or Blackwall entrance to the West India Docks. To avoid or shorten this route, a cut, called the City Canal, was made by government across the isthmus, and after all cutting off little more than half the bend; but so few in¬ clined to avail themselves of such a partial improvement, that this canal was quite neglected, and was latterly sold to the West India Dock Company, who now use it for the wood trade, under the name of South Dock. But before reaching Deptford, the Thames had on its west¬ ern bank passed the Commercial Docks. At Blackwall it passes the East India Docks, and, at Bow Creek receiv¬ ing the river Lea, pursues its way to Woolwich, where a short canal is cut to the Arsenal, a little below which it receives the river Roding on the north, and, nearly oppo¬ site Purfleet, the river Darent on the south. At Graves¬ end, the Thames and Medway Canal unites with it; at Sheerness on the south it receives the river Medway, and has now itself become a large estuary, five miles wide, called the Mouth of the Thames, which, expanding greatly, receives from the north and west the rivers Crouch, Black- water, and Colne. Owing to the natural obstructions which exist in many parts of the river, from bends, shoals, islands, weeds, &c. the velocity of the Thames does not follow the law of the variation of the inclinations ; and the artificial obstacles from weirs, pound-locks, fishing-aytes, &c. render it im¬ possible to ascertain the velocity correctly. Much depends also on the volume of water which may be passing down the river at the time, and the use offlashes.1 The total fall from Lechlade to low-water mark at London Bridge, a dis¬ tance of 146^ miles, is 258 feet; being on an average about twenty-one inches per mile. This is overcome by several locks, constructed at different periods, of which the lowest, at Teddington, eighteen miles and three quarters above London Bridge, forms the limit of the tide. In ge¬ neral the velocity may be estimated at from half a mile to two miles and three quarters per hour ; but the mean may be about two miles. Between London Bridge and West¬ minster Bridge the mean velocity of the flood tide is now three miles per hour, maximum three and a half; and the mean ebb three miles and one sixth, maximum three and the channel ^ Suddeniy let out to increase tlie depth over a shallow while a boat is passing. It also helps to scour and deepen 20 Naviga¬ tion, Inland. NAVIGATION, INLAND. three quarters. Formerly they were much less. The fall from Teddington Lock to London Bridge is only sixteen feet and three quarters, or ten inches and three quarters, ' per mile ; for in general the fall gradually diminishes from Lechlade downwards. The removal of the numerous and bulky piers of the Old London Bridge has wrought an important change in the Thames, not only above or west of the bridge, but likewise, though in a smaller degree, below or east of it. The very contracted spaces through which the water had formerly to force its way occasioned frequently a fall of five feet at low water, instead of which there is now only a fall of about two inches at the new bridge ; so that the low-water line above the bridge is nearly five feet lower at spring tides than formerly. In consequence of this, a great¬ ly increased body of tidal water now flows up and down the river, and with a decidedly greater velocity than formei j. The effect of this is to scour and deepen the bed of the river; its influence in this respect being already sensibly felt as far up as Putney Bridge, seven miles and a half above London Bridge. The shores above the latter, tha.. were formerly foul and muddy, are now becoming clean shingle and gravel; and near low water the beach is quite hard°and firm. East of London Bridge the shoals are also deepening ; and there can be little doubt that the change will at no distant period be felt from the Nore up to Ted¬ dington. The depression of low water below the bridge has been so considerable as to cause ships in many in¬ stances to ground in their tiers. From a register of the tides, it appears that the average depth at low water on the sill at Shadwell Dock is twenty-two inches below the old mark called Trinity Datum ; and where formerly there were eight feet upon the dock sill there are now only six feet two inches on the average. Before the removal of the old bridge, a barge starting from the Pool at Rother- hithe with the first of the flood, could not get farther than Putnev Bridge without the assistance of oars or horses. But, under similar circumstances, a barge now reaches Mortlake, four miles farther up, before using oars; and with a little help she may reach Richmond, and, taking horses there, get to Teddington in a tide. The descent down the river has been equally facilitated. The immense trade of the navigable part of this river arises principally from its having London on its banks, and bearing to and from it numberless ships, fraught with the produce of every country and every climate. Its depth of water is so great, that even at ebb tide it is from twelve to thirteen feet in the fair way of the river above Green¬ wich. The mean range of the tides at London Bridge is about seventeen feet, whilst at extreme springs it is about twenty-two. Up to Deptford, the river is navigable for ships of any burthen ; to Blackwall, for those of 1400 tons; and to the St Katherine’s Docks, adjoining the Tower, for vessels of 800 tons. The Thames and Medway Canal is a cut of about seven miles and a half through the isthmus, or rib of land, be¬ tween these rivers, and was constructed for the purpose of shortening by forty miles (some say forty-seven) the watei communication between Gravesend and Chatham, or Ro¬ chester, which had hitherto been by the Nore. It com¬ mences in the south bank of the Thames, at Gravesend, nearly opposite Tilbury Fort, where it has a great tide- lock, and a basin and wharfs. From this it runs eastward for about three miles through Gravesend Marshes ; then, after turning considerably to the south, it passes through a tunnel of two miles and a half, and proceeds to join the river Medway,where it has another tide-lock and basin nearly opposite to Chatham. The water in this canal is fifty feet wide at top, twenty-eight at bottom, and eight feet deep. The hill through which the tunnel is carried is in some places of such a loose texture that several of the work¬ men were killed by the unexpected shooting in of the Naviga. chalk and flints upon them. They had not, it seems, used Inlan’d any precaution to prevent such an occurrence, or to avoid, ^ the danger of it. This tunnel, being of large dimensions, and provided with an excellent towing path, has greatly the advantage of many of the miserably confined holes which are carried through hills in other paits of the king¬ dom. The breadth of the water through the tunnel is twenty-two feet; but a particular description of the locks will be found farther on. The Thames and Severn Canal commences at the extre¬ mity of the Thames and Isis Navigation, near Lechlade, and proceeds by Kempsford and Cricklade to Latton, where it is joined by the Wilts and Berks Canal; thence it passes to Siddington St Mary, at which a branch of a mile goes to Cirencester; continuing westward, it passes through the famous Sapperton tunnel, 4300 yards long, and 250 feet under the top of the hill. From this, it passes to its termination in the Stroudwater Canal, at Wallbridge, near Stroud. The total length is thirty miles and one eighth, viz. from Lechdale to the tunnel twenty miles and three eighths, rising 134 feet by fourteen locks; the tunnel or summit-level two miles and three eighths, and from it to the termination seven miles and three eighths, falling 243 feet by twenty-eight locks. This canal is forty-two feet wide at top, twenty-eight at bottom, and five deep. The locks are eighty feet long and twelve wide. The Tone and Parrett Navigation commences in the line of the proposed Grand Western Canal at Taunton, and runs nearly north by a bending course, passing Bridgewater, to Start Point, in the Bristol Channel; being, however, join¬ ed in its course at Borough Chapel by the Parrett River. The length is about twenty-seven miles. Trent River begins tobe navigable at Burton-upon-Trent, where it is joined by a branch from the Grand iiunk, and which is about 117 miles from the Humber. It proceeds in a north-easterly direction to near Swarkestone, where it receives the Derby Canal, and then at Wilden Ferry it is joined by the Grand Trunk or Irent and Mersey Canal; next by the river Soar or Loughborough Navigation, and opposite to it by the Erewash Canal; then passing Clifton Hall, where the Beeston Cut, which connects with the Nottingham Canal, joins it on the north, it runs down to Nottingham, and there joins the Grantham Canal. Next at Torksey it connects with the Foss-dike Navigation, and at West Stockwith with the Chesterfield Canal and the river Idle. At Keadby it connects with the Stain- forth and Keadby Canal, and joining the river Ouse at Trentfalls, their united waters form the Humber. The total descent in the 117 miles is about 118 feet. Thte river, connecting the port of Hull with a wide extent of country, by numerous rivers and canals, forms a ready medium of traffic for the several very extensive manufac¬ turing and agricultural districts with which it communi- cates. The Trent and Mersey Canal, sometimes called the Grand Trunk, from its passing through the central parts of the king¬ dom and connecting the Trent, Mersey, and Severn, com¬ mences at Wilden Ferry, where the Derwent falls into the Trent, and running south-west, passes Aston and Swarke¬ stone, near where it is crossed by the Derby Canal; thence continuing to Burton, where it communicates with the Trent, it passes on to Tradley, and there joins the Coventry and Fazeley Canal. Turning north-west by Rugeley to Hey- wood Mill, it is there joined by the Staffordshire and Wor¬ cestershire Canal. Passing by Weston to Stone, and north by Trentham to Stoke, it is there joined by the Newcastle- under-Line Canal on the south; and the Caldon branch runs from its north side to near Uttoxeter. Continuing north by Etruria, it passes through the new tunnel of 2880 yards at Harecastle, in Staffordshire, which was made only NAVIGATION, INLAND. 21 Naviga- about a dozen years ago, the original tunnel being excep¬ tion, sively confined, and without a towing-path. This canal is Inland. then’joined by the Macclesfield Canal. It next inclines north-west to Middlewich, where the Middlewich branch goes off; then passes near Northwich, and through the three small tunnels of Barnton, Saltersford, and Preston, to its termination at Preston Brook, in the Duke of Bridge¬ water’s Canal. From Wilden Ferry on the Trent, to the Harecastle summit, there is a rise of 316 feet; and from this to Middlewich the fall is 326 feet; the remainder being level to Preston Brook. The total length is about ninety-three miles. Tyne River is navigable for large vessels in the tide¬ way for fifteen miles up from its mouth, in the German Sea, to Newcastle, and a few miles farther for a particu¬ lar kind of barges called keels. The principal trade is in coals, and has for ages been carried on to a great extent. Ulverstone Ship Canal commences at Hammerside, in Morecombe Bay, in the Irish Sea, and terminates at the new basin and wharfs at Ulverstone; it is about a mile " and a half long. The water is sixty-five feet wide at top, thirty at bottom, and fifteen feet deep. It has a tide-lock 112 feet long at its entrance. Ure River Navigation, or Ripon Canal, proceeds partly up the Ure, from its mouth at Milby, on the Ouse or Yore River, and partly by a canal to Ripon. The length is about eight miles and a half. Tbe Warwick and Birmingham Canal commences in the Warwick and Napton Canal at Saltesford, in the borough of Warwick, and passing north-west by Bowington to Kingswood, is there joined by the Lapworth branch of the Stratford-upon-Avon Canal; thence, by Knowle, Olton End, and Kingsford, it at length joins the Digbeth branch of the Birmingham Canal at Birmingham. The first half mile is level; the next two and a half to Hatton rise 146 feet by twenty locks ; and thence there is a level of eight miles and a half to Knowle Common. Having in the next quarter of a mile risen forty-two feet by seven locks, it then runs ten miles level, and the remainder falls forty-two feet by five locks. The total length is twenty-two miles and a half. Warwick and Napton Canal extends from the Warwick and Birmingham Canal at Saltesford to the Oxford Canal, near Napton-on-the-Hill, a distance of about fourteen miles, with a rise of 134 feet. Waveney River, between Suffolk and Norfolk, is navi¬ gable for about twenty-three miles from its mouth in the Yore, at Burgh, up to Bungay. Wear River is navigable from its mouth in the German Sea, at Sunderland, up to near the city of Durham; a dis¬ tance of about eighteen miles. This navigation is of great importance for the exportation of coal, which abounds in the neighbourhood; and in 1830 an act was obtained for various improvements on it. Weaver River Navigation commences in the tideway of the Mersey at Weston Point, and proceeds first in a cut for four miles, and then nearly up the course of the river to Winsford Bridge ; a total distance of twenty-three miles and three quarters, ascending fifty feet by twelve locks. Welland River has, by means of locks, weirs, and cuts, been made navigable from its mouth in the Wash, up to Stamford, in Lincolnshire; but the works require to be greatly improved. Wey River has been rendered navigable from its mouth in the Thames, partly by extensive side-cuts, and partly in the bed of the river, up by Woburn Park and Guildford to Godaiming. In fifteen miles and a quarter from the Thames to Guildford it rises sixty-eight feet and a half; and thence to Godaiming, which is mostly an artificial ca¬ nal, the rise is thirty-two feet and a half. The total length is about twenty miles and a half. About two miles from the Thames it is joined by the Basingstoke Canal, and Nayiga- farther on by the following. t1]011’! The Wey and Arun Junction Canal extends from the v n an ^ Wey, near Shalford Powder Mills, to the Arun Naviga¬ tion at Newbridge ; a distance of eighteen miles. It forms part of the navigable line between London and Portsmouth. The Wilts and Berks Canal commences at Semington, in the Kennet and Avon Canal, and proceeds by near Melk- sham, Chippenham, Wootton-Basset, and Wantage, to the Thames at Abingdon ; a distance of fifty-two miles. From Derry Hill a branch of one mile and a half goes off to Chippenham; and near Stanley House another of three miles goes to Caine. From near Eastcott a branch of eight miles and a half, originally called the North Wilts Canal, goes to join the Thames and Severn Canal, near Crick- lade, with a fall of fifty-eight feet and two thirds ; and from Breach Field a branch of three quarters of a mile goes to Wantage. In the first seven miles and three eighths to the Chippenham branch the rise is fifty-four feet; thence to the Caine branch, one mile and a half, rising seventeeo feet; and thence to the summit-level, ten miles and three quarters, rising 130 feet. The summit extends nine miles and three eighths, and in fifteen miles from it to Wan¬ tage River the fall is seventy-one feet and a half; thence to Abingdon, seven miles and three quarters, the fall is ninety-six feet and a half. This canal is an important link in several navigations. The Wisbeach Canal is a level cut of six miles, from the Nen River at Wisbeach, to the Old River at Outvvell, at the end of Well Creek, through which it communicates with the Ouse at Salter’s Load Sluice. Witham River is navigable from its mouth in the Wash, up to the Foss-dike Navigation, at the city of Lincoln ; a distance of thirty-eight miles, through a level country, viz. from the sea to Boston five miles, thence to the Sleaford Canal eleven miles, thence to the Horncastle Navigation three miles, and thence to Lincoln nineteen miles. The greater part is embanked on both sides from the sea up¬ wards. The Worcester and Birmingham Canal commences at the junction of the Birmingham Canal and the Birmingham and Fazeley Canal, at the upper end of the town of Bir¬ mingham, and runs south-west to its junction with the Dudley Canal at Selly Oak; thence south-east to King’s Norton, where it receives the Stratford-upon-Avon Canal. From this it continues south-west by Stoke Prior, till,a little east of Droitwich, it joins the Severn at Diglis, a little be¬ low Worcester. The total length is twenty-nine miles, the breadth at top forty-two feet, and the depth six. In the first fourteen miles the canal is level; but in the remaining fifteen it falls 428 feet by seventy-one locks, which are each eighty-one feet long and fifteen wide. There are five tun¬ nels on this line; that at West Heath is 2700 yards long. Wreak and Eye Rivers, or Leicester and Melton-Mow- bray Navigation, extends from the Leicester Navigation at Turnwater Meadow to the Oakham Canal at Melton-Mow- bray, about eleven miles. It follows the courses of the Wreak and Eye. Wye and Lugg Rivers, the former the principal branch, begins to be navigable ninety-nine miles and a half by water from the Severn, viz. from Hay to Hereford thirty miles, thence to the mouth of the Lugg seven and a half, thence to the town of Ross twenty-one and a half, thence to Lidbrook eight, thence to Monmouth twelve, and thence to the Severn twenty and a half. This river has a considerable declivity; and the great rise of the tides renders the lower part difficult and dangerous. Wyrley and Essington Canal commences near Wolver¬ hampton, in the Birmingham Canal, and passes by Polsal and Lichfield to the Coventry Canal near Huddlesford, a distance of twenty-four miles. The first sixteen to Can- 22 NAVIGATION, INLAND. Naviga- nock Heath Reservoir are level; in the remaining eight is tion. Inland. a fall of 270 feet by thirty locks. There is a branch of , five miles and a half to Hay-Head Lime-works ; another of two miles and a half to Lords-Hay Collieries; another of four miles to Wyrley-Bank Collieries, with a cut of one mile from it to Essington New Collieries. The canal is twenty-eight feet wide at top, sixteen at bottom, and four and a half deep. Yare River is navigable from Norwich to Yarmouth by a crooked course of twenty-eight miles. At Yarmouth it is joined by the river Thyrn, and at Burgh by the Wave- ney. This navigation being incommoded by shallows, gave rise to the Norwich and Lowestoff Navigation. Yore River, see Ure. Several of the British canals always were, and others are now become, very unproductive. Some have suffered from an ill-advised location, and others have been reduced in value by changes in the course of trade. The rapid progress of manufactures, and the increase of domestic commerce, have invited a resort to new and shorter chan¬ nels of communication ; and not a few costly works are now sustaining an unequal competition with the less ex¬ pensive productions of more modern art. The day may not be very distant when these will in their turn become un¬ profitable, and give place to other projects ; but they can never cease to be regarded as monuments of skill in me¬ chanical construction. Some of the canals ot England are sadly cramped, by the miserably confined state ot their bridges, and especially of their tunnels, which are often so low and narrow as to have neither room for a towing- path, nor yet for the boatmen, except lying prostrate, and moving the boat slowly along, by pawing against the walls ■with their hands or feet. Some excuse might be pleaded for those of this sort which were first made, or which are in obscure districts; but it is remarkable that the tunnel of the Regent’s Canal, which passes under a wing of the great metropolis, and was only made in 1819, should have no towing-path. Ireland. It has been said that the unfortunate Earl of Strafford, from having seen the utility of inland navigation in the Low Countries, first suggested the improvement of river navigation in Ireland. In 1703 the first act of parliament was passed for rendering the Shannon navigable, and many improvements were projected. Nothing, however, was effected but an useless expenditure of L.140,000 on the Shannon and Boyne in the year 1758. Various other large sums were afterwards granted and frittered away in partial improvements of the Shannon, Boyne, Barrow, and Newry Rivers, besides the Grand, Royal, Kildare, Naas, and Lough Earne Navigations. The following is a concise account of the principal in¬ land navigations of Ireland, arranged alphabetically ; but several others are in progress. Bandon River, county Cork, is navigable from the port of Kinsale up to within two miles of Bandon. Bann River, county Down, is navigable for nine miles, from where it is joined by the Newry Canal, near Porta- down, to its entrance into Lough Neagh. This is some¬ times called the Upper Bann. The outlet of Lough Neagh, called the Lower Bann, is not navigable, but might surely be easily made so, since it has only a descent of thirty-eight feet to the sea, five miles below Coleraine. Barrow River has been rendered navigable from the tideway below St Mallins, up to where it is joined by the Grand Canal at Athy Bridge, a distance of forty-three miles, falling 172 feet. But from Athy to the mouth of the Barrow, in the estuary of Waterford harbour, and through that to St George’s Channel, the distance exceeds sixty miles. Blackwater River, county Cork, is navigable from its mouth at Youghall, up as far as the tide reaches, or at most to Cappoquin. There is another and smaller Black- ^ water, connected with the Tyrone Canal, and flowing into Lough Neagh. Boyne River is navigable from the bay of Drogheda for twenty-two miles up to Trim, in the last seven miles ot which it ascends from Navan 189 feet, by means of locks, which are from eighty to 100 feet long, and fifteen wide. Corrib River and Lough or Lake form a navigable line, commencing at the mouth ot that river in Galway Bay, and extending from Galway town in a north-westerly di¬ rection for about twenty-four miles. Earne River and Lough or Lake are navigable through the lake, from the upper part, where the river enters it, be¬ low Belturbet, till it leaves it again at Enniskillen, where it is obstructed by weirs ; but below the isle on which that town is built the river again expands into the lower part of the lake, through which it is also navigable. Thus far the entire distance is about thirty miles, and the naviga¬ tion is terminated by a fall, from which the river has a rapid course of nine miles to Donegal Bay. It has been proposed to construct a canal from Lough Earne, begin¬ ning near Belturbet, and to follow along the valleys of the Finn and Blackwater to Lough Neagh. Fergus River, county Clare, is navigable from its mouth, in the Shannon, up to Ennis, the county town. Foyle River is navigable for ten miles from its mouth, in the estuary of Lough Foyle, below Londonderry, up to Strabane. The Grand Canal commences on the south side of the river Liffey, near its mouth, and proceeds westward by the south side of the city of Dublin, through the counties of Dublin, Kildare, and King’s County to the Shannon, with which it unites near Banagher. But, exclusive of this main line of about eighty-seven miles, there is a westerly branch or rather continuation of the line for fourteen miles beyond the Shannon to Ballinasloe, and there is a southerly branch of twenty-six miles from Lawton to Athy, where it joins the Barrow. There are also branches to Naas, Mount Mellick, Portarlington, and other places. The water is forty feet wide at the surface, twenty-five at the bottom, and six deep. The locks on the main line are seventy feet long, fourteen and a half wide, with five feet of water on the sill, and their average lift is nine feet. The track of this canal passing for a considerable way through the bog of Allen added greatly to the expense, which is said to have exceeded two millions sterling. The highest part rises 278 feet above the sea. Lagan Navigation commences in the tideway at Belfast, and proceeds mostly by the course of the river as far as Lisburn, from which it is continued by a canal, by Hills¬ borough and Moira, to Lough Neagh. The total length is twenty-eight miles. Lee River is navigable in the tideway up to the city of Cork, and for small craft somewhat farther. Below Cork, however, the navigation is principally an arm of the sea called Cork harbour. Liffey River is navigable from its mouth in Dublin Bay for about three miles up to Carlisle Bridge, at the farther end of the city of Dublin. From the south side of this navigable part proceeds the Grand Canal, and from the north side the Royal Canal. Limerick Navigation commences at that city, and pro¬ ceeds in a north-easterly direction, partly in the Shannon and partly by canals, for fifteen miles, to Killaloe, at the south end of Lough Derg. Maig River, county Limerick, is navigable from its mouth in the Shannon to near Adare. Moy River, county Mayo, is navigable for about five miles, from Killala Bay up to Ballina. Naviga. tion, Inland. NAVIGATION, INLAND. 93 Naviga- Neagh Lough or Lake, being about twenty miles long tion, and ten broad, is generally of sufficient depth to be navi- Inland. gat>je to a considerable extent in every direction. It com- municates with Belfast by the Lagan Navigation, with the Tyrone Collieries by the Blackwater, ^vith Antrim by the Antrim River, and southward with the sea by the Newry Navigation. Newry Navigation commences in the tideway of Lough Fathom, three miles below Newry, which it passes, and proceeds sixteen miles by a canal to the upper Bann River, in which it continues to Lough Neagh. The entire length is about thirty miles and three eighths, generally in a north direction. It has hitherto been a very imperfect naviga¬ tion, but was the first executed in Ireland. Nore River is navigable from its mouth, in the Barrow, two miles above New Ross, for considerable vessels to In- nistioge, and up to Thomastown for barges. The Royal Canal commences at Dublin, on the north side of the Liffey, and proceeds in a direction which generally diverges slightly from that of the Grand Canal, being about west by north for eighty-three miles to its junction with the Shannon at Tarmonbury. The water is forty-four feet wide at top, twenty-four at bottom, and six deep, and the summit is 322 feet above the sea. The locks are eighty- one feet long and fourteen wide. A few years ago this canal was said to be in a sadly neglected state ; part of it at Leikslip, eight miles only from Dublin, having scarcely ever been used, and the works apparently fast going to ruin.1 Shannon River forms the most important feature in the inland navigation of Ireland. For the first 144 miles of this navigation, viz. from the head of Lough Allen to the sea below Limerick, the Shannon may be considered as a concatenation of rivers and lakes. Issuing from Lough Allen, it passes Leitrim, Carrick, Tarmonbury, &c., and then enters, at Lanesborough, a very irregularly shaped and extensive sheet of water, called Lough Ree, about seventeen miles in length. Leaving it, the river, now greatly augmented, passes Athlone, and then winds by Shannon Bridge and Banagher to Portumna, near which it expands into Lough Derg, another narrow lake, twenty- three miles long, with deep bays and inlets. From the southern extremity of this lake it flows on to Limerick. In this extent of navigation we have, first, Lough Allen, ten miles; thence to Lough Ree, forty-three; Lough Ree itself, seventeen; thence to Lough Derg, thirty-six ; Lough Derg, twenty-three; thence to Limerick, fifteen ; making together 144 miles. The mean height of Lough Allen above the sea at Limerick is about 143^ feet, being on an average about a foot of declivity per mile. Instead of the natural fall, however, the water has been reduced, by means of locks, to a series of level pools. The estuary or frith of the Shannon extends south-west about seventy miles beyond Limerick to its mouth, which is finally about eight miles wide between Loop Head and Kerry Head, at the Atlantic. The direction of the Shannon from Lough Allen to Li¬ merick, though generally south by south-west, is very cir¬ cuitous, and broken by many streams, islands, and rocks. The soundings are as various, and both banks are liable to be overflowed by the river to a great extent; and the arge expanse ol the lakes would require a different sort of vessels from those which navigate the river. The works which have been constructed to overcome the natural dif¬ ficulties of the navigation are either insufficient or in a state of decay ; and it seems to be generally admitted that very little real good can be effected until the natural ob¬ structions are removed, the number of lakes reduced, and the channel deepened and improved in various parts ; Naviga. though it is still doubted if the navigation would even t*011’ then be suitable for any thing but steam-vessels. The ^n^ar>'^ Shannon connects with the Royal Canal at Tarmonbury, and with the Grand Canal at Shannon harbour, near Ba¬ nagher. At Shannon Bridge it receives, on the west, its principal tributary the Suck; on the east, the Inny, the Upper and Lower Brosna, Mulkerna, Maig, Fergus, &c. Much information on this and the other navigations of Ire¬ land will be found in the Parliamentary Reports, particu¬ larly those for 1830 and 1834. Slane or Slaney River is navigable from its mouth in Wexford Haven, for fourteen miles, to Enniscorthy. Suir or Sure River unites with the Barrow in the estu¬ ary called Waterford harbour, about five miles below the town, and is navigable from that up to Carrick for sloops, and to Clonmell for barges. At the town of Waterford, the largest ships lie afloat in forty feet water. The Tyrone Colliery Canal commences at the south¬ west extremity of Lough Neagh, proceeding by a short cut across the isthmus of Maghery to the Blackwater River, and, following it a short way, passes by another cut of three miles to the Colliery Basin, from which a railway ex¬ tends to the mines. NORTH AMERICA. United States. The advantages resulting to the United States from General their separation from the mother country, and the great observa- and rapid improvement which has taken place in the con-tions* dition and circumstances of that republic since the Ame¬ rican revolution, are in nothing more strikingly displayed than in the increased facilities of travelling and intercourse between the different parts of the Union, produced by the construction ol roads, canals, and railways, and by the improvement of river navigation. But the spirit of enter¬ prise with respect to internal improvement has been chiefly manifested, and has extended more or less to all the states of the Union, since the close of their last war with Britain. For although it is a considerable time since something was first done towards inland navigation in the United States, yet till then comparatively little attention was paid to this by the Americans. Indeed, as long as they were cramped by the narrow policy of the parent country, they had little inducement to undertake any thing of the sort; and from the peace of 1783 till the adoption of the present constitution they had not the means; besides, their pecu¬ liar situation and employment during the long wars in Eu¬ rope rendered internal improvements of this kind less ne¬ cessary. The experience of the last war between Britain and the United States, and the long peace which suc¬ ceeded it in Europe, together with the vast expansion of American population, have shown the importance and ne¬ cessity of such works, as well as others, in that extensive country; and, since the year 1815, the United States have progressed in these improvements with an unexampled ra¬ pidity. Most of the canals on the continent of Europe have been constructed at the expense of governments ; in Eng¬ land chiefly at the expense of companies or individuals; and in the United States they have been made by the states and by individuals, aided occasionally by the gene¬ ral government. In locating canals in this latter country, two principal objects have been kept in view ; one to in¬ sure a safe inland communication along the Atlantic bor¬ der in case of a war with any power possessing a superior maritime force; whilst another and very important object * Macculloch’s Statistics of the British Empire. 24 NAVIGATION, INLAND N aviga- tion, Inland. has been to connect the waters of the western districts with those of the eastern, and thereby facilitate the inter¬ course between these two distant sections of the country. The vast expansion of population in the western parts, and the great and growing resources of that portion of the Union, have rendered such improvements of great import¬ ance, and have created rival interests in the eastern, in or¬ der to secure the advantages of this intercourse. 1 he val¬ ley of the Mississippi is watered by rivers, some of which, only of the third rate, extend 1000 miles; and it is also in¬ dented by lakes the magnitude of which justly entitles them to the appellation of inland seas. Its population is spread over a country unrivalled in the extent and magnitude of its navigable waters, as well as in the fertility of its soih The navigation of these great rivers, as well as that of many others, which was formerly very difficult, against tne stream, has been wonderfully facilitated by the application of steam power, which has enabled the navigator to propel his vessel up the river, and to triumph over the violence of the torrent; and thus the rivers by which great continents are intersected have been rendered doubly valuable in fa¬ cilitating the inland communications of the country, and in laying open the most remote and formerly sequestered scenes to the inquisitive researches of travellers. With re¬ spect to canals, there is no navigable line entirely artificial (for those of China are partly rivers) of such length as the Erie Canal, which is 363 miles, and was formed in about eight years. That of Languedoc, in France, is only 148 miles, and occupied fourteen years in construction, even durin" the reign of Louis XIV. However, the great canal of Amsterdam, in Holland, though only fifty miles long, contains twice as much water as the Erie Canal. The aggregate length of canals now finished in the United States exceeds 2000 miles ; but some of the states do not admit of their construction, except to a compara¬ tively small extent, whilst others present a vast field and great inducements for prosecuting such works on a mag¬ nificent scale. Our limits, however, will only admit of a very brief description of these improvements ; and to this we shall now proceed, following the order in which the states are usually arranged, and omitting of course such of them as are not possessed of canals. The Cumberland and Oxford Canal, twenty miles and a half long, extends from the tideway near Portland to Sebago Pond. It has twenty-six locks, and was com¬ pleted in 1829. By means of a lock in Songo River, the navigation is continued into Brandy and Long Ponds, making in all fifty miles. Improvements have been pro¬ jected in the navigation of the river St Croix and the ad¬ jacent waters. It has also been proposed to construct a canal from the mouth of the Sebasticook River, near YVa- terville, on the Kennebeck, to Moosehead Lake. Several canals have been constructed around falls in the Wamnshire Merrimack. Bow Canal, one third of a mile in length, 11ampB three miies below Concord, with four locks, passes a fall of twenty-five feet. Hooksett Canal, fifty rods long, with three locks and a lockage of sixteen feet, passes Hooksett Falls. Amoskeag Canal, with nine locks and a lockage of forty-five feet, passes Amoskeag Falls, nine miles below Hooksett Falls. Union Canal, immediately below Amos¬ keag, overcomes seven falls in the river, and has seven locks in nine miles. A canal is now in progress around Sewall’s Falls, in Concord. The Middlesex Canal, connecting Boston harbour with Massachu- ^ Merrimack at Chelmsford, two miles below Lowell, opens a water communication between Boston and the central parts of New Hampshire, and is twenty-seven miles in length. It has twenty locks, with a lockage of thirty- six feet; and is thirty feet wide at top, twenty at bottom, and three feet deep. It was completed in 1808, and was then the largest in the United States. Maine. New setts. Blackstone Canal, extending from Worcester to Provi- Na ja- dence, in Rhode Island, is forty-five miles long. inland. The Hampshire and Hampden Canal, extending fiom^— the boundary of Connecticut in Suffield, to Northampton, is twenty-two miles long, and, forming a continuation of Farmington Canal, which is fifty-four miles in length, makes the whole line from Newhaven to Northampton seventy- six miles. , _x r Montague Canal, for passing the fails m the town of that name, is three miles in length ; and South Hadley Canal, around falls in the town of South Hadley, is two miles in length. . „ Farmington Canal, fifty-four miles long, commences atConnecti- Newhaven, passes through the valley of Farmington River, cut. and at the boundary of the state of Massachusetts it uni tes with the Hampshire and Hampden Canal, which reaches to Northampton, and is twenty-two miles in length. En¬ field Canal, five miles and a half long, is constructed around the Enfield Falls in Connecticut River. . v , The Erie Canal, extending from Albany on the Hud-New i ork. son River to Buffalo on Lake Erie, a total distance of 363 miles, is one of the greatest and most important works of the kind in the world. It was projected by an Ameri¬ can patriot, Mr De Witt Clinton; commenced in 181/, and finished in 1825. The water is forty feet wide at the surface, twenty-eight at the bottom, and four feet deep. These are generally the dimensions of the other canals in this state, and therefore they cannot carry very heavy boats ; but a less depth will always suffice if the boats are not encumbered with keels, which are utterly useless in a canal. The western section, from Buffalo on Lake Erie to Montezuma on Seneca River, is 157 miles in length, with twenty-one locks for a fall of 186 feet; the middle section, from Montezuma to Utica, is ninety-six miles, with eleven locks for a rise and fall of mnety-hye feet; the eastern section, from Utica to Albany, is 1 miles, with fifty-two locks for a fall of 417 feet; total lengt i 363 miles, with eighty-four locks for a total rise and fall of 698 feet. Lake Erie is 565 feet above the Hudson River at Albany. The average rise or fall of eighty-one of the locks is eight feet and a half, the other three are regulating or guard-locks. , „ . This canal forms a channel by which the trade of tne great inland waters of Lake Erie, Lake Huron, Lake i Ii- chigan, &c. may find access to markets in the populous cities of Eastern America and of Europe. Indeed there is already such a traffic on this canal and its blanches, described below, that it has been proposed greatly to in¬ crease its dimensions, which must require many times the additional expense necessary to have made it sufficiently large at first. There is, however, nothing very remarkable in this, because the most proper size of a canal can seldom be foreseen by the projectors. Champlain Canal, sixty-three miles long, commences, at its junction with the Erie Canal, nine miles north of Al¬ bany, and terminates at Whitehall, on Lake Champlain, in Washington county, thus connecting the Erie Canal and the Hudson River with Lake Champlain. It has seven locks for a rise of fifty-four feet from the lake to the summit-level, and fourteen locks for a fall of 134 feet from this to the Hudson, in all twenty-one locks; the rise and fall are 188 feet. It has a lateral cut connecting it with the Hudson by three locks at \\ ateiford, eleven miles north of Albany, similar to the cut connecting the Erie Canal with the same river at West Troy by two locks. The Oswego Canal, of thirty-eight miles, from Salina to Oswego, connects Lake Ontario with the Erie Canal. Half the distance is canal and halt slack-water or river naviga¬ tion. It has fourteen locks, thirteen of stone and one of wood and stone, for a fall of 123 feet from Salina to Lake Ontario. NAVIGATION, INLAND. 25 Naviga- The Cayuga and Seneca Canal commences at the Erie tion, Canal at Montezuma, Cayuga county, and terminates at Inland. Qenevaj Ontario county, connecting the Erie Canal with Seneca Lake. It has also a lateral branch to East Cayu¬ ga village on the Cayuga Lake, being thus connected with that lake. It opens altogether a lake navigation of more than a hundred miles. The length is twenty miles and forty-four chains from Geneva, on the Seneca Lake, to Montezuma on the Erie Canal. It is half canal and half slack-water navigation, and has eleven wooden locks for a fall of seventy-three feet from Seneca Lake to the Erie Canal at Montezuma. The Chemung Canal extends from the head of the waters of Seneca Lake to Chemung (or Uioga) River, a branch of the Susquehannah, at the village of Elmira, Tioga county. The length is twenty-two miles and a half, with a navigable feeder of thirteen miles and a half from Painted Post, Stuben county, on the Chemung River, to the sum¬ mit-level; total, thirty-six miles. This canal connects the Erie Canal with the Susquehannah River. It has fifty- two wooden locks, with 516 feet of lockage, and one guard- lock. The Crooked Lake Canal extends from Penn Yan to Dresden, both in Yates county, connecting the Crooked and Seneca Lakes. It is eight miles long, and has 260 feet of lockage, with twenty-seven wooden locks, and one guard-lock. The Chenago Canal extends from Utica to Binghamp, a distance of ninety-seven miles, with 109 locks. It has six¬ teen miles of navigable feeders. The Delaware and Hudson Canal extends from the Hudson River at Kingston, to Port Jervis on the Delaware, fifty-nine miles ; thence up the Delaware to the mouth of the Lackawaxen River, twenty-four miles; thence in Penn¬ sylvania to Honesdale, twenty-six miles ; total, 109 miles. From Honesdale a railway of sixteen miles and a half, with five inclined planes, rising 800 feet, extends to the coal mines at Carbondale on the Lackawana. Haerlam Canal, of three miles, intended to connect the Hudson and East Rivers, is begun, but not completed. Chittenango Canal, connecting that place with the Erie Canal, is one mile and a half long, with four locks. Sodus Canal, intended to connect Seneca River with Great So¬ dus Bay on Lake Ontario, was projected in 1829, and will be twenty-five miles long. Scottsville Canal, intended to connect the, Genesee River with Scottsville, in Monroe county, was projected in 1829. The Oneida Lake Canal, of eight miles and a half, intended to connect Oneida Lake with the Erie Canal, was put under contract in 1833. Au¬ burn and Oswasco Canal, intended to connect Auburn with Oswasco Lake, was projected in 1832, and is to be three miles in length. It has been proposed to connect by railways or canals the Erie Canal, somewhere about Rome or Herkinner, with the waters flowing into the St Lawrence at Ogdensburg. The Genesee and Alleghany Canal. The projectors of the Erie Canal contemplated its connection with the river Ohio, by a south-west branch, uniting with the river Al¬ leghany at Olean, in Cattaraugus county. A report of a survey ot the line was made to the legislature in 1829. The length from Rochester along the valley of the Gene¬ see to Olean, including navigable feeders, is to be 107 miles, which, with a side-cut to Danville of fifteen miles and a half, make the total length 1224 miles, with 1057 feet of lockage. The Black River Canal is proposed to extend from the Erie Canal at Rome to the foot of High Falls on Black River, a distance of about thirty-five miles, with improve¬ ments in the navigation of Black River from the High Falls to Carthage, a farther distance of forty miles. A steam-boat canal from Lake Ontario to the Hudson has VOL. XVI. been proposed, extending from Oswego to Utica, and thence Naviga- along the Mohawk to the Hudson. A steam-boat or a ship tion’ canal has likewise been proposed around the Falls of the v n an ‘ Niagara. The longest proposed route would be fifteen miles, with a lockage of 320 feet; a second route would be nine miles, with the same lockage; and a third only seven miles and a half. A ship canal around these falls, on the Canadian side, called the Welland Canal, has been in operation for several years, and will be noticed hereafter. Delaware and Raritan Canal extends from Bordentown New Jer- to New Brunswick, forty-three miles. A navigable feeder sey* from Bool’s Island to Trenton is twenty-four miles long. Morris Canal, extending from Jersey city to Easton, is 101 miles long. Salem Canal, from Salem Creek to the Dela¬ ware, is four miles long. During the last eight or nine years, Pennsylvania has Pennsyl- engaged in works of internal improvement more exten-vania. sively than any other state in the union; and the Penn¬ sylvania Canal and Railway, extending from Philadelphia to Pittsburg, a distance of 395 miles, is the most magnifi¬ cent work of the kind which has yet been completed in any part of the United States. It consists of the follow¬ ing parts: Miles. 1. Columbia Railway, from Philadelphia to Colum¬ bia 8P60 2. Pennsylvania Canal, central division, or eastern and Juniata divisions, from Columbia to Holli- daysburg 17P75 3. Alleghany Portage Railway, from Hollidays- burg to Johnstown 36*69 4. Pennsylvania Canal, western division, from Johnstown to Pittsburg 105*00 395*04 1. Columbia Railway commences at Philadelphia, passes Downingstown and Lancaster, and enters Columbia, on the Susquehannah, by an inclined plane 1720 feet in length. It has thirty-one viaducts, seventy-three stone culverts, and eighteen bridges. It attains its greatest height at Mine Ridge, which is 555 feet above tide-water in the Delaware. 2. The central division of the Pennsylvania Canal com¬ mences at Columbia; follows the east bank of the Susque¬ hannah, crossing the Union Canal at Middletown; passes Harrisburg; crosses the Susquehannah at the head of Dun¬ can’s Island; and enters the valley of the Juniata, which it follows to Hollidaysburg. It has thirty-three aque¬ ducts, and 111 locks. 3. The Alleghany Portage Railway, connecting the cen¬ tral and western divisions of the Pennsylvania Canal, com¬ mences at Hollidaysburg, passes over the range of the Al¬ leghany Mountains, and terminates at Johnstown. It has one tunnel through a mountain ridge, and ten inclined planes, with stationary engines, five on each side of the summit-level, their total length being 4*37 miles. The total rise and fall is 2570*29 feet. 4. The western division of the Pennsylvania Canal com¬ mences at Johnstown, traversing the valley of the Cone- maugh, Kiskiminetas, and Alleghany Rivers, and termi¬ nates at Pittsburg. It has sixty-four locks, sixteen aque¬ ducts, sixty-four culverts, 152 bridges, and a remarkable tunnel about 1000 feet long. The Beaver Canal extends from the town of Beaver, at the entrance of the Beaver River into the Ohio, to New¬ castle, and is twenty-five miles long. The Mahoning and Beaver Canal, extending from Newcastle in Pennsylvania to Akron in Ohio, on the Ohio Canal, is now in progress. The Pittsburg and Erie Canal, of which the Beaver Ca¬ nal is a part, is intended to connect the Pennsylvania Ca¬ nal at Pittsburg with Lake Erie, and is to be seventy-three D 26 NAVIGATION, INLAND. Inland. Delaware. Maryland. Virginia. Naviga- miles and a half long. There are various other canals in tion, this state, besides some which are in progress, and others which are only projected. The Chesapeake and Delaware Canal, which connects the Delaware River with the head of Chesapeake Bay, is partly in Delaware and partly in Maryland, and commences at Delaware city, about forty-two miles below Philadelphia. The length is 13-63 miles, the breadth at top sixty-six feet, and the depth ten feet. The Chesapeake and Ohio Canal, begun in 1828, com¬ mences at Georgetown, on the Potomac, in the district of Columbia, and extends to Harper’s Ferry. Its course, as laid out, extends to Cumberland on the Potomac, thence by Will’s Creek, Youghiogeny, and Monongahela Rivers, to Pittsburg. The total length, as proposed, is 341 miles and a half, and the lockage 3215 feet. It requires a tunnel through the Alleghany Mountains of four miles and eighty yards. Port Deposit Canal, ten miles long, is designed to overcome the rapids of the Susquehannah above Port De¬ posit. The Chesapeake and Delaware Canal has been al¬ ready noticed. The Canal of Dismal Swamp commences at Deep Creek, about seven miles above Norfolk, and proceeds southwaid about thirteen miles to the boundary ot this state, beyond which it is continued about nine miles in North Carolina, to Joyce’s Creek, a branch of the Pasquotank, fliis canal is thirty feet wide at bottom, and eight deep. Very ex¬ tensive improvements have been projected and paitly ex¬ ecuted on the river navigation of Virginia, by means of lateral canals or side-cuts. One on James River extends from Richmond for twenty-three miles up the side of that river, and then joins it again. There are various side-cuts on the Roanoke; one extends about twelve miles from Weldon upward, but that is after the river has got into North Carolina. Dismal Swamp Canal, already mentioned amongst those of Virginia, enters about nine miles into North Carolina ; and Lake Drummond Canal, five miles long, is a navigable feeder of it. North-west Canal, six miles long, connects North-west River with Dismal Swamp Canal. Weldon Canal, twelve miles long, forms the commencement of the Roanoke Navigation, extending around the falls of the Roa¬ noke above the towns of Weldon and Blakely. The na¬ vigation of the Roanoke from the Weldon Canal to the town of Salem in Virginia, a distance rf 232 miles, as likewise the Cape Fear, the Yadkin, the lar, the Catawba, and New Rivers, have been greatly improved. Santee Canal, twenty-two miles long, connects the har¬ bour of Charleston with the Santee. By means of this and the Santee and Congaree Rivers, the navigation of which has been improved, a communication is opened between Charleston and Columbia, ihe navigation ot the Catawba has been improved by five small canals of two, one and a quarter, two and a quarter, one and three quarters, and four miles. Saluda Canal, of six miles, extends from the head of Saluda Shoals to Granby on the Congaree. Drehr’s Canal, of one mile and a third, is designed to overcome a fall of 120 feet in the Saluda River. Lorick’s Canal, on Broad River, one mile and a half above Columbia, is a mile long ; and Lockhart’s Canal, in Union Disti ict, around Lockhart’s Shoals in Broad River, is two miles and three quarters in length. The Savannah and Ogeechee Canal, sixteen miles long, extends from the city of Savannah to Ogeechee River. An extension of this canal to the Alatamaha, sixty miles, is * Huntsville Canal, from Triana on the Tennessee, to Huntsville, is sixteen miles long. A canal of thirty-seven miles, from the head of the Muscle Shoals to Florence, is considerably advanced, but not yet completed. Louisiana. A ship canal, of eight miles, has been projected at New Orleans, to lead from the Mississippi to the ocean. It is to commence about three miles below Fort Jackson, and pass through the prairie on the left bank of the river. Be¬ sides, there are in progress the Orleans Bank Canal, of four miles and a quarter, from New Orleans to Lake Pont- chartrain ; the Carondelet Canal, of two miles, which like¬ wise connects New Orleans with Lake Pontchartrain, Naviga. tion. Inland. North Ca¬ rolina. South Ca¬ rolina. Georgia. Alabama. through the river or bayou St John, which is four miles, making the whole line six miles; and the BaratariaCanal, proceeding from the Mississippi, six miles above New Or¬ leans, to the Lafourche, thence through the lakes to Ber¬ wick’s Bay, and thence to the sea by Barataria. It con¬ sists of four parts, amounting to twenty-two miles, which connect an extensive river navigation. The whole ex¬ ceeds ninety miles. Kentucky River Navigation, in the course of being ex- Kentucky, ecuted, viz. the part of that river about to be rendered na¬ vigable by locks and dams, extends from its mouth up to where it branches into the three forks. For about 250 miles the whole will be slack water, adapted for steam¬ boats of 150 tons burden. The locks are to be 175 feet long by thirty-eight wide in the chamber, ten feet above^ the'dam; the depth of water is to be six feet; the lift ot the locks from twelve to sixteen feet; the dams from twenty to twenty-five feet high, and from 400 to 500 long, and about seventy feet at the base. A variety of improve¬ ments, some of them of considerable extent, on other liver navigations in this state, have also been projected, and are partly in progress. The Ohio Canal, which extends from Cleveland upon Ohio. Lake Erie, to Portsmouth on the Ohio River, is 307 miles lono-; it was begun in 1825, and completed in 1832. The summit-level is 305 feet above Lake Erie, 499 above the Ohio at Portsmouth, and 973 above the Atlantic. It has 152 locks for a lockage of 12,050 feet. Ihe distances along this canal, beginning from Cleveland, are, to Akron thirty-eight miles, New Portage nine, Massillon twenty- one, Bolivar twelve, New Philadelphia fourteen, Gnaden- hutten thirteen, Coshocton twenty-six, Newark forty, Bloomfield fifty-two, Circleville eleven, Chillicothe twen¬ ty, Piketon twenty-four, Portsmouth twenty-seven. It has three navigable feeders, amounting to thirty-three miles. . The Miami Canal, which extends from Cincinnati to Dayton, is sixty-nine miles long ; it was begun in 1825, and finished in 1830. The summit at Dayton is 175 feet above the Ohio at Cincinnati. It has thirty-two locks for a lockage of 296 feet. This canal is now in the course ot being extended along the valleys of the St Mary s and Au-Glaize Rivers, and is to be united at Defiance with the Wabash and Erie Canal, which extends from Lafayette on the Wabash River in Indiana, to near the entrance of the Maumee into the west end of Lake Erie. It is 187 miles long, and is nearly completed. The whole extent ot this united line, from Cincinnati to Lake Erie, is about 265 miles, of which 105 are in Indiana. The Mahoning and Beaver Canal, now in progress, ex¬ tends from Newcastle, in Pennsylvania, on the Beaver di¬ vision of the Pennsylvania Canal, to Akron on the port¬ age summit of the Ohio Canal. It is eighty-five miles in length, but of this eight miles are in Pennsylvania. Sandy Creek and Little Beaver Canal, also in progress, extends from Bolivar on the Ohio Canal, in an easterly direction, to the Ohio River. Various other extensive na¬ vigations have been projected in this state, and companies have been formed for carrying them into execution. Several extensive canals and river navigations have been Indiana, projected in this state, and are partly in progress. We have already mentioned the Wabash and Erie Canal, ot which part is in Ohio. The Illinois and Michigan Canal, now in progress, ex-Illinois. NAVIGATION, INLAND. Navig- tends from Chicago on Lake Michigan, to Ottawa on tion, Illinois River, a distance of about ninety-five miles. It is Inland. to sjxty feet wide at the surface, thirty-six at the bot- —tom, and six deep. About twenty-four miles of this line are to be cut from seven to twenty-eight feet deep, through solid rock. Other canals have been projected in this state. District of The Washington Branch Canal, of one mile and a quar- Columbia. ter, connects the Chesapeake and Ohio Canal with the Potomac at Washington. I he Alexandria Canal, of seven miles and a quarter, extends from that town to the extre¬ mity of the Chesapeake and Ohio Canal at Georgetown. Florida It has been proposed to connect the Atlantic Ocean erritory. wjth the Gulf of Mexico, by a canal across the northern part of the peninsula of Florida. Canada. Some considerable works for promoting inland naviga¬ tion have likewise been executed in Canada. 01 these the following are the principal ones. The Rideau Canal commences in about long. 75. 35. E., and lat. 45. 20. N., at Entrance Bay, in the Ottawa River, about a mile and a half from where the Rideau River falls into it, 128 miles from Montreal, and 130 from Kingston on Lake Ontario. It is not so properly a canal as an ar¬ tificial concatenation of natural lakes. The general di¬ rection is south-westerly, to its termination at Kingston ; and the total length of the navigation is 132 miles, ol which about twenty only are artificial cuts connecting Rideau River and Lake, Mud Lake, Cranberry Lake, and Kingston Mill-Stream. The ditference of level is 445 feet, with forty-seven locks, which are each 142 feet long, thirty-three broad, and five deep. This canal, it has been fancied, would be of immense importance for the convey¬ ance of military stores; but this seems to proceed on the assumption that the enemy is to be perfectly torpid du¬ ring the half year in which the canal is useless from being frozen.1 The Welland Canal, connecting Lakes Erie and Ontario, communicates with the latter by the Iwelve-mile Creek, and thence ascends the barrier of Lake Erie, near the Falls of Niagara, by means of locks, till it meets the Chippawa, which it ascends for some length, and then joins the Ouse at about a mile and a half from its entrance into Lake Erie. The shifting bar at the mouth of this river has been remedied by extending piers into the deep water. A safe communication between these great lakes is thus effected by this navigation, which is forty-one miles long ; the ar¬ tificial part being fifty-six feet wide, and eight and a half deep. It has thirty-seven wooden locks, each 100 feet long and twenty-two feet wide, overcoming a height of 330 feet. A much shorter canal for passing round the Falls of Niagara has been proposed on the American side. Grenville Canal consists of three detached parts, of the nature of side-cuts, or lateral canals ; one at the Long Sault on the Ottawa, another at the fall called Chute a Blondeau, and the third at the Carillon Rapids. This ca¬ nal renders the navigation of the Ottawa between the Ri¬ deau and Montreal complete ; but unfortunately some of the earlier constructed locks are only twenty feet wide. La Chine Canal is a cut of seven miles across the south¬ east corner of the island of Montreal, to avoid some diffi¬ cult parts of the St Lawrence, particularly the rapid of St Louis. It is forty-eight feet wide at top, twenty-eight at bottom, and five feet deep, with a fall of forty-two feet; but the locks only admit boats twenty feet wide. By means of these great and useful works, a large ex- 27 tent of country is opened up to the industry of settlers. Naviga- There is a continuous steam-boat communication in Upper A.00’, Canada of about 460 miles, from the Grenville Canal, on v n U the Ottawa, to Niagara. Many other canals are now in contemplation, such as that projected between the bay of Quinte and Lake Huron. A great deal of information re¬ garding the inland navigation of Canada will be found in the Parliamentary Reports, and a more compendious ac¬ count of it in Martin’s History of the British Colonies. The navigable rivers and lakes of North America are North numerous and important, several of them being of vast ex- -American tent. But a very general feature in such of its rivers as rivers’ fall into the Atlantic, is a bar obstructing their mouths. That of the principal mouth of the Mississippi had, in 1722, about twenty-five feet of water upon it; Ulloa, in 1767, found twenty feet at the highest flood; and in 1826 the depth was only sixteen feet. Above these obstructions the rivers are generally much deeper, the Mississippi at New Orleans being above 100 feet deep, which depth it preserves to the mouth of the Missouri. Mobile Bay is crossed by a bar having only ten feet of water; and the bar of the Altamabo of Georgia has fourteen feet, which is perhaps about the average depth to be found at the en¬ trance of most of the southern rivers of the Atlantic coast. Lake Superior, in the great central plain of this continent, is the largest body of fresh water on the globe, ihe out¬ let of this, and of the other great lakes of Canada, forms the river St Law'rence, which is of vast dimensions, the tide flowing up it for 400 miles, and affording navigation for the largest vessels the whole of this distance ; but above this the current is extremely rapid. Several of the most difficult parts have already been avoided by means of side- cuts and locks, particularly the rapid of St Louis; and others may be disposed of in a similar manner. Vessels of 600 tons ascend to Montreal, and boats all the way to Lake Ontario, and thence to Lake Erie through the Wel¬ land Canal. The Connecticut is a large navigable stream entering the sea near the north-eastern extremity of Long Island. The Hudson has enabled New York to extend its commerce by the Erie Canal to the lakes, being navigable to 160 miles above its mouth for large steam-vessels. The Delaware and its tributaries afford a navigation over an extent of 300 miles in length and breadth. The Susque- hannah, the Potomac, and others falling into the Chesa¬ peake Bay, together with canals, afford navigation for ves¬ sels of one sort or other into the remotest valleys and re¬ cesses of the eastern country. The Roanoke, which falls into Albemarle Sound, together with the Pamlico, afford a medium of commerce for North Carolina; whilst the Pedee, Santee, Savannah, Ogeechee, Alatamaha, &c. are so many canals intersecting South Carolina and Georgia in all directions. The St John, again, affords a similar con¬ venience for East Florida. But although the eastern rivers have been by much the longest employed for the purposes of navigation, they are in many respects inferior to the im¬ mense streams which intersect the western and inland states, particularly the Mississippi and its tributaries, which have no parallel in any other country possessed by a people sufficiently intelligent to turn the commercial facilities of its inland waters to proper advantage. The Mississippi is navigable for 3000 miles up from its mouth to the Falls of St Anthony, and extends over fifteen degrees of latitude. At St Louis it receives the Missouri, which above that junction is greater than the other branch, which still bears the name of Mississippi. The principal tributaries of the Missouri are the Osage, Grand River, Kanses, Platte, 1 Canals, it is true, which are all on one level, as is the case in Holland, may become convenient roads whilst the ice is sufficiently strong; but where locks occur, and are so numerous as on this canal, they form a serious obstruction; and it is besides considered ne¬ cessary in America to have canals as empty as possible during the frost. 28 Naviga¬ tion, Inland. NAVIGATION, INLAND. White River, Chien, Yellow Stone Rivers, each of which on an average adds 1000 miles to the navigation; and there ,are many others of less note. Above the junction of the Missouri the Mississippi receives, from the east, in latitude 37°, the Ohio, which is of great importance, as affording a direct communication with the eastern states, and being, besides, the channel of a great inland commerce. About 1200 miles from its mouth the Ohio receives, near Pitts¬ burg, the Monongahela and the Alleghany Rivers. It is connected with Lake Erie by means of the Ohio Canal, and has fifteen large navigable tributaries. The other princi¬ pal tributaries of the Mississippi more to the north, and each navigable 400 or 500 miles, are the Illinois, Des Moines, Rock River, and St Peter’s, between some of which and the great northern lakes there are only short portages. Besides all these, North America contains a vast number of other navigable rivers, which our limits will not admit of our describing. SOUTH AMERICA. The vast region of South America, though it has hitherto been kept in a sadly degraded state, by priestcraft, igno¬ rance, slavery, and incessant wars, possesses a conforma¬ tion peculiarly favourable to an extensive inland naviga¬ tion. The Andes skirt its western shore, and, though ascending to a great height, are yet so small in breadth as to leave between them and the eastern coast a vast ex¬ tent of comparatively flat country, divided into the basins of the Orinoco, Amazon, and Paraguay, none of which is much elevated above the sea; and even the dividing ranges between them are generally of very trifling altitude. Thus the Orinoco is navigable, without difficulty, for 260 leagues, to the falls or rather rapids of Atures, where, ac¬ cording to Humboldt, its mean height above the sea does not exceed 350 feet; and thence, after two short portages, it is navigable for above 100 leagues more, to the point near Esmeralda, where the celebated bifurcation of this river takes place, and a portion of its waters descends along the natural canal of Casiquiari, to join the Rio Negro and the Amazon. On both sides, along its course, the Orinoco receives many tributaries; of which three in particular, the Apure, Meta, and Guaviore, flowing from the west¬ ward, have also long navigable courses. The Amazon, again, is navigable to a little above Urarina, near the con¬ fluence of the Guallaga, a distance of 750 leagues from its mouth, flowing uniformly along the whole extent, in a di¬ rection from west to east, and receiving many tributaries on both sides. By the Napo, Putamayo, and Japura it is connected with the higher districts of Columbia; its own upper navigation, which is uninterrupted above Santiago, connects it with Upper Peru ; and the Guallaga and Uca- vale descend to it from the south-west, along the eastern face of the Andes, from distances, as it is said, of from 300 to 500 leagues. By the Rio Negro, as already noticed, its waters communicate with those of the basin of the Ori¬ noco ; the Rio Branco ascends from this also to within a short and nearly level distance of the sources of the rivers Essequibo and Demerara; and its southern tributaries, rising in the Campos Pareceis (the mean level of which west of Villa Boa, and in about 16° south latitude, where the waters divide, is not probably above 2500 feet), ap¬ proach so closely to the sources of the Paraguay and its feeders, that near Villa Bella, in Matto-Grosso, only a short portage of three miles divides the course of the Aguapehy, falling into the Jaura and Paraguay, from that of the Gua- pore, joining the Madeira and Amazon ; and, lastly, the Pa¬ raguay itself is navigable through nineteen degrees of lati¬ tude, from the confluence of the Jaura in 16° 20' south, to its mouth in the Rio de la Plata, near Buenos Ayres, in 35° south lat., and receives also many tributaries along its course, of which four only need be cited, viz. the Parana and Uruguay from the eastward, rivers each nearly equal ^ to the main trunk in value and importance; and from the west the Pilcomayo, said to be navigable with very little interruption as far as Chuquisaca; and the Vermejo, in which there are three fathoms as high as the junction of the Rio Grande, and large boats ascend beyond it as far as Tariga. From these facts, then, it appears that, with the excep¬ tion of one short portage of three miles, water flows, and is for the most part navigable, between Buenos Ayres, in 35° south, to the mouth of the Orinoco, in nearly 9° north la- tude. The distance across the continent from east to west, through which the same convenience exists, varies greatly in different lines ; but in the basin of the Orinoco it is not under 400 leagues, in that of the Amazons it is nearly 1000, and in that of the Paraguay it varies probably from 200 to 500. That all the interior provinces of South America would be prodigiously benefited by advantage being taken of these facilities for internal communication, cannot ad¬ mit of a doubt; but the districts which are at present the most secluded, and which would be most strikingly im¬ proved by it, are those of Moxos, Chiquitos, and Santa Cruz de la Sierra, which contain about 43,000 square leagues, and produce a great variety of valuable articles, which are unavailable on account of there being no method of transporting them. ,The only seaport with which they have any communication is Lamar (Cobija), on the Pacific, although the junction of the Jaura with the Paraguay, where the latter becomes navigable, is only seventy leagues from Santa Anna, the capital of Chiquitos, a hundred from Santa Cruz de la Sierra, and seventy-three from Villabella in Matto-Grosso. It has long been proposed to form a communication be¬ tween the Atlantic and Pacific Oceans, by means of a ca¬ nal across the Isthmus of Panama. A very interesting account of a survey of a line across the isthmus, which was made a few years ago by Mr J. A. Loyd, will be found in the Philosophical Transactions for 1830; and some account of a dilferent line by the Lake of Nicaragua is given by Captain Philips in the Journal of the Royal Geographical Society (vol. iii. 275). There can be no question that a ship canal, if practicable, would be greatly preferable to any other equally slow communication ; and a railway, again, better than a small canal. A line partaking of both is also talked of. Naviga¬ tion, Inland. CONSTRUCTION OF CANALS, TUNNELS, LOCKS, Ac. Canals formed for navigation are generally upon a dead level from lock to lock, except when they are also intend¬ ed for conveying water, whether to other parts of the na¬ vigation, or for some ditterent purpose. Feeders or con¬ ductors of water to canals should always have a certain declivity ; but even in these it is not customary to give the bottom a greater descent than four inches in the mile. The simplest mode of constructing a canal over level ground, is to form it partly by excavation and partly by embankment; that is, to proportion the depth of digging- such, that the stuff thrown out shall exactly embank or raise the sides sufficiently to make the canal of the re¬ quired dimensions. This is called level cutting. But when a canal runs along the side of a declivity, the one bank will require more raising than the other; or the cutting may be all at one side, and the embankment only at the other. If, again, the surface of the ground is un¬ dulating, the case becomes more complicated; but it is always a desideratum in the formation of canals, that the stuff excavated from one part may, with the least labour NAVIGATION, INLAND. 29 tfaviga- or shortest carriage, exactly supply or form the embank- tion, merits that are to be raised in another; so that, at the^ [nland. cornpletion of the work, as few spoil-banks or mounds of —Y~—'/useless soil as possible may remain, and as little ground as possible be rendered useless by excavations or pits. How¬ ever, the great expense of rock-cuttings, and other diffi¬ culties, often occasion a wide departure from this rule. For, in conducting a canal across a hilly and rugged coun¬ try, there are many difficulties to be overcome, much le¬ velling, and many works of art to be executed. Some of these, perhaps, cannot be foreseen till the operations have been commenced or are far advanced. The slopes of the banks are regulated by the quality and difference in the tenacity of the soil; but they are seldom made greater than two feet of perpendicular to three of horizontal mea¬ surement, particularly where the embankments are heavy. The inside slope soon becomes chafed and indented at its upper edges by the motion of the Avater, which is oc¬ casioned by the passing of boats ; and this abrasion often penetrates so much as to diminish irregularly the width of the towing-path. This may be remedied in a good measure by planting the sides with aquatic shrubs, and also by driving stakes into the bank at short intervals along the water line, so as to form a rude wicker-work, in places where the soil is loose and porous. The Caledonian Canal is provided with a break in the slope for this purpose, as was mentioned in the description of it. But the most effectual protection against the action of the water is at¬ tained by walling or paving the sides of the canal for some breadth both above and below the water line. This, how¬ ever, from its being expensive, has not yet been exten¬ sively resorted to; but when it is recollected that the washing of the banks of a canal not only destroys its se¬ curity, but diminishes its depth and the facility with which it is navigated, this reason loses its weight. By facing the sides with a substantial wall, which might be made nearly vertical at the top, the surface of the water need not be much more than two thirds the usual width, and consequently the canal need not occupy much more than three fourths the extent of ground; so that in situa¬ tions where the ground is valuable, the wall would conduce to economy. The canal, too, having less earth crumbling intosit, would need less cleaning; and where water is scarce, the smaller waste by evaporation, from the contracted breadth of the surface, would be of importance. To pre¬ vent as much as possible the wash, as it is termed, the speed of the canal-boats is variously restricted, and steam¬ boats have generally been excluded. It frequently happens that canals have to be formed more or less by artificial embankments of loose materials, or that they are excavated in earth, sand, rock, &c. so very porous as to allow the water to escape by filtration. To remedy this, the usual method is to make the excavation much wider and deeper than the intended dimensions, and to line it to the thickness of two or three feet with a tenacious clay mixed with gravel, which is to be thoroughly puddled, and then, according to some, exposed for a long while to the weather, though others condemn exposing it at all. A trench four feet in width is also dug out in the middle of each side-bank, to at least three feet below the bottom of the canal, and this in like manner is ^to be filled up with puddle. The puddle trench is made principally with the view of preventing rats and other vermin from perforating the banks, and occasioning breaches, as they often do. When once the water has obtained a very small egress, it gradually washes it wider ; so that sometimes in a few hours a breach may be formed sufficient to empty the canal, and require weeks or even months ere it can be repaired. But besides being able to resist the penetration or gradual escape of the water, an embankment must always be composed of materials capable of withstanding, by their weight, the ten¬ dency of the hydraulic pressure to overturn them in a Naviga- mass, and also of resisting, by their lateral adhesion, the force tending to thrust them out horizontally. When thev ‘ ^ side of a canal gives way, it is of great consequence to prevent as much as possible the escape of the water. For this purpose, it is usual to have doors or valves in various parts of the canal, so attached by joints or hinges to the bottom, that when the water is at rest they lie nearly flat at the bottom, but when it begins to flow rapidly over them, they ‘rise by its force, and arrest its farther pro¬ gress. However, when such gates have lain long in the bottom, and have become coated with slime and imbed¬ ded in the mud, their spontaneous rising at the proper time is not much to be depended on, and therefore they should be provided with chains or rods, by,which they may be drawn up when required. Tunnels. The first thing to be attended to in constructing a tun¬ nel is to execute a correct survey of the ground through which it is intended to pass. This is done by tracing over the surface of the ground a line which shall be all in a vertical plane parallel to the direction of the tunnel, and which, when transferred upon a reduced scale to paper, shall accurately represent a vertical section of the ground. To obtain a section of this sort with accuracy for an ex¬ tensive tunnel, the relative levels of the principal points along the line upon the surface are to be ascertained ; and it is generally necessary to use an instrument similar to a transit telescope, and perhaps to fit up one or more temporary observatories upon the most elevated spots along the line, from which may be determined the position of any pits or shafts which it may be necessary to sink, whe¬ ther for the sake of free ventilation, or for commencing and carrying on the excavation of the tunnel at several different places at the same time. Through these openings the stuff is to be hoisted up, and the water pumped out should any occur. The shafts being sunk to the requisite depth, which is ascertained from the levels which have been taken at the surface, a heading or small tunnel, at least sufficiently high and wide to allow the men to move freely in the work of excavation, is to be commenced just below the crown of the intended large one. Such smaller excavation is generally made very unshapely in the sides and roof, but ought to be nearly flat in the bottom. It is to be carried forward from one working shaft to another, as nearly as may be in a straight line, till a connection be formed between all the shafts and the ends of the tunnel. If, in the progress of the heading from one shaft to an¬ other, the air become so bad as to oblige the workmen to desist, an air shaft is to be immediately commenced from above, about five or six feet in diameter, and sunk verti¬ cally to the point at which the heading was left off. In excavating the tunnel of the Thames and Medway Canal, there were twelve working shafts; and, on account of the foulness of the air, it was besides necessary to sink eleven air-shafts. After the heading has been driven from one working-shaft to another, or a complete perforation ob¬ tained throughout the whole of the intended line, the roof of the tunnel is commenced, by an excavation in the form of a circular, an elliptic, or a parabolic arch. At this stage of the work the strength and quality of the roof are easily ascertained; and where weak and crumbling portions oc¬ cur, a brick or stone arch must be formed for their sup¬ port. The stuff is generally carried out by means of a railway. Some tunnels are formed in strata of such a tex¬ ture as to require no building whatever, unless, perhaps, in fitting up a towing-path ; whilst others are so very insecure that the construction of a complete lining of building must keep pace with the work of excavation. Some tunnels, again, are naturally water-tight, whilst others 30 Naviga¬ tion, Inland. NAVIGATION, INLAND. require a substantial lining of clay, and must be excavated of so much the larger dimensions as to have room foi it. Inclined Planes. It is probable that the earliest mode of passing a boat from one level to another consisted in simply dragging it over the intervening space, whether that might be a natu¬ ral rapid in a river, an obstructing rock, or a dam built across on purpose; and this last was generally in the form of a ridge, or double inclined plane. In a rapidly descending current it was necessary to have many such dams at short intervals, in order to obtain the requisite depth of water. In China these inclined planes have been long in use, especially in their smaller canals. Between the upper and lower levels ol the water a double glacis of hewn stoneis built, the principal slope of which extends fiom the bottom of the lower canal to the surface ol the watei in the upper canal, ora little above it, and there terminates in a large cross beam of wood, rounded off, and very smooth. From this beam another but shorter and steeper plane of stone descends to the bottom of the upper canal; and over these the boats are dragged, sometimes by simple manual power, and sometimes by the aid of capstans. It is not un¬ common in China for a hundred men to be employed in drawing up a large vessel from the lower to the higher canal. Their strength is usually applied by means of levers turn¬ ing capstans, which are placed on the abutments on each side of the glacis. A rope being passed round the stern of the vessel, has its ends attached to and wound round the capstans. In this way a vessel is more speedily raised into the upper canal than if locks had been employed ; but it is effected by a prodigions exertion of human force, which, however, in China is always to be had at little cost, and is there preferred to any other. When a vessel is to be transferred from the upper to the lower canal, she is, as before, lifted over the cross beam, and then elides safely down by her own weight. To insure this, the head of the vessel is provided with a railing, which being covered with a strong matting at the time of the descent, not only breaks the fall, but prevents any water from flushing up over the deck. We here see human power sadly lavished away where a very different one might suffice. Horses, oxen, water-wheels, &c. are in some countries ap¬ plied to turn machinery for the same purpose. To lessen the friction, long rollers are sometimes placed across the in¬ clined planes, at short intervals from each other ; but it is evident that, whether with or without rollers, boats which will bear to be dragged over any such structure must be ex¬ cessively strong for their size. The long feeble boats which usually navigate canals would undoubtedly break into se¬ veral lengths were they to be passed over the ridge. Some¬ times the boats are placed upon a sort of cradle or hurdle, with or without wheels, and the whole dragged over ; and sometimes the boats themselves are furnished with wheels, which only come into play in passing such planes. There have been numerous other contrivances for trans¬ ferring boats from one level to another, without any ex¬ penditure of water; and descriptions of the most of them will be found in some of the scientific journals, particularly in the Repertory of Arts, Nicholson’s Journal, the Philoso¬ phical Magazine, and the Repertory of Patent Inventions. But these have generally been very unsuccessful, although for not a few of them patents have been obtained. One of the most recent patents is that of Mr Thomas Grahame, of which the specification is published in the Repertory of Pa¬ tent Inventions for March 1837. By far the greater number of the schemes now alluded to would require an exertion of mechanical force which would either be more than suffi¬ cient to raise water to fill a common lock, or would be at¬ tended with greater expense. Some of them, it is true, might save a little time, but in general the case would be Naviga. otherwise. Inland. Lochs. " Amongst the many approximations to the gates of a lock, the following rude one may be mentioned, especially as it is still used in various parts of England. A beam or sill is fixed across the bottom of the stream or canal ; and di¬ rectly over this, but at the water s surface, is placed a se¬ cond but moveable beam. Against and behind these pa¬ rallel beams a set of loose boards are placed upright and close together like a door, so as to obstruct the progress of the stream. W hen a boat is to pass, the boards aie either removed singly, or, if they can be prevented fiom floating away, the upper beam is lifted or moved round,so as suddenly to let go the whole system, and thus afford a temporary in¬ crease of depth, to enable the boat to pass or repass the other¬ wise too shallow water. In China it is common to have a si¬ milar set of loose boards or planks, but placed horizon¬ tally across the stream ; these being dropped one by one into grooves formed in the side walls, or in upright posts, from which the boards are to be singly removed in a si¬ milar manner. Such are the sluices or gates used on the Imperial Canal of China ; for the emperor’s boats or barges are far too large to be dragged over inclined planes. Machines of the same sort have also been used on the river navigations in Flanders. Since both the kinds of gates now described are supposed to be placed at the up¬ per end of the fall or shoal over which they are tempo¬ rarily to increase the depth of water, and since the boat is to pass through the gate, while the accumulated water rushes out with great force, it is evident that this must render it difficult for a boat to ascend the stream, and must accelerate it too much in descending. However, a method similar to this, at least in letting go a flash of water, has long been used in floating down rafts of timber over shallows and rapids in rivers, and is perhaps the best that could be contrived for the purpose. But for the navigation of boats there is a greatly preferable mode of using the same sorts of gates, so as to be free from the inconveniences above mentioned; which is to place the gate in moderately deep water at the lower end of the fall or shoal, and such that a boat may pass up through the gate before the watei has been raised by it at all. The gate is then shut till the water rise sufficiently to enable the boat to ascend the fall or shoal, which it does in almost still water. Ihese sorts of gates Lalande calls half-locks; and indeed it is sup¬ posed, with considerable probability, that the casual posi¬ tion of two of them near each other had given rise to the invention of the lock. For in that case it would soon be seen, that when the lower of these two gates was closed, and the water above it had risen to a sufficient height, such water would be nearly stagnant at the upper gate, and would afford an easy passage through it. If, therefore, the boat was ascending, the upper gate being next shut, the water above it would rise, and enable the boat to pio- ceed a stage farther in its ascent. However the real origin and early history of the modern Modern lock, like those of many other valuable inventions, are in-locks, volved in obscurity, yet its nature and mode of operating will be readilv understood by a reference to figs. 1 and 2, Plate CCCLXXVIII. where A A A A are the walls of the lock chamber, which can be closed by the two single gates G,G. The w ater in the part or reach of the canal which lies to the right of the lock is supposed to be higher than in that to the left. When, therefore, it is wished to pass a vessel upwards through the lock, she is first floated in at the lower gate, previously opened, as shown in fig. 1, and wdnch is next to be shut. Water is then admitted through a valve from the upper canal into the lock-chamber, till it has fill¬ ed it up to the same level, and has of course raised the NAVIGATION, INLAND. 31 Naviga¬ tion, nland. vessel along with it. The upper gate being next opened, the vessel quits the lock, and passes immediately into the higher part of the canal. This process is called locking up; and the reverse of it, or locking down, will obviously con¬ duct a vessel down through the lock, which is to be emp¬ tied by another valve into the lower reach of the canal. For when the w^ater in a lock is reduced to the lower level, it is usually said to be empty, although it has still the same depth of water as the lower canal. In navigations where great differences of level are to be overcome, it is not unusual to have two or more locks fol¬ lowing in such close succession that the lower gate, or pair of gates when they are double, of one lock, forms also the upper gate or upper pair of the next lock below it. This obviously tends greatly to lessen the cost of construct¬ ing them, and also requires fewer lock-keepers. It tends, besides, to lessen the time spent in the repeated stoppages and startings in the trackage of the boats ; though it is rather teamed for expending somewhat more w'ater than if the locks were scattered separately over a considerable extent. It was not until artificial canals had become very general, that locks were brought to any thing like their present state of perfection ; for the difficulty of procuring water had been but partially felt, as long as inland navigation was confined to a few rivers. But when the value of water for canals came to be properly appreciated, it was necessary to be careful of every resource, and to use it with the strictest economy. With this view the chamber, or the space between the upper and lower gates, instead of be¬ ing made of an oval, a circular, or an octagonal figure, as in the locks on the earlier canals, was so much contracted as only to afford room for the vessels to pass through ; to effect which, the sides were made vertical planes formed of wood, brick, or stone, instead of the sloping banks of earth or turf used in the older locks, and which required such a length of time to fill or empty them, and consumed a vast quantity of water besides. The lift of the lock, or the difference of level which it is made to overcome, is regu¬ lated by circumstances. It varies from one foot or less, up to sixteen or eighteen feet. Where the levels of the parts of a canal, or of the several reaches as they are some¬ times called, differ greatly, and where water is plentiful, the locks are generally made with a greater lift than where the ground is more flat and the water scanty. For a given difference of level, locks generally consume more water as the lift of each is greater ; but, on the other hand, they tend to save time. The chambers of narrow locks are generally from seventy to eighty feet long, and from seven to eight feet wide. Those of the Caledonian Canal are from 170 to 180 feet long, forty wide, and thirty deep ; and still larger ones are used on the great ship canal from the Texel to Amsterdam ; but locks are also made of every interme¬ diate dimension. A naturally hard bottom is the best foundation for the walls of locks ; but where that does not occur, they are frequently built on a system of piles w'ell driven and bound together; for the mode of preparing the foundation must be regulated by the nature of the ground. The sides are carried up sometimes in straight, sometimes in curved lines, and often reclining or battering outwards from the bottom. In this last case, too, the beds of the stone or brick-work are generally formed at right angles to the face of the wall, inclining from half an inch to an inch in the foot. Such battering, however, should only be used near the bottom; because, cceteris paribus, a lock the oppo¬ site sides of which are perfectly vertical and parallel planes, and which is of no greater width throughout than to admit the boats, must obviously consume the least water, and spend least time in passing a boat; a circumstance which ought always to outweigh any little saving of materials or expense which might be expected from a different form of Naviga- construction. Curving the sides longitudinally, like cres- tion’ cents, can add nothing to the strength on the principle 0f\ ^nlaiui- the arch; because such a figure is at best an arch having nothing to abut against. The like may be said of dishing- carriage wheels, and of all curved structures which either have no abutments, or which are not equally pressed against all their abutments. At Agde, on the Languedoc Canal, a circular basin which unites three canals of different levels is used as a lock, and has long been extolled as the very perfection of lock-making; whereas it requires a needless length of time, and wastes an enormous quantity of water in passing a boat. If the foundation be clay or gravel, a wooden bottom is sometimes formed of cross sleepers planked longitudinally, upon which the side-walls are built with or without buttresses at the back, according to the quality of the side banks. A flat segment or inverted arch of stone or brick is sometimes laid upon the wooden bottom, in order to distribute the weight more equably, and to prevent any partial settling or subsiding of the work ; and the same method is observed between the buttresses along the outside of the chamber walls. In each wall, be¬ hind the hollow quoins, a recess is left sufficient for the gates to open back into, out of the way of the vessels. In the recesses belonging to the upper gates, a weir or over- fall for the water is provided, four or five feet long, having a coping or sill of stone or brick, just the height at which the water is intended to stand in the upper reach of the canal; these are called the paddle-weirs or lock-weirs. A large flat stone is usually laid as a lintel over this open¬ ing, to complete the wall upon, and leaving a space of three or four inches in height for the egress of the surplus water. This cavity is conducted downward, diminishing in width and enlarging in depth, behind the walls of the lock, into the paddle-hole or culvert for filling the lock, if such be in use there. This water having got into the lock, makes its escape from it by a similar opening at the other end into the lower canal. In other cases a culvert is pur¬ posely continued behind the wall, so as to carry this sur¬ plus water quite past the lock to the lower canal. Some¬ times an open channel, properly lined with stones or bricks, is made for it. But in many cases, where the surplus water would be of no use in the lower canal, it is allowed to escape over a waste weir, built on purpose in the side of the canal, into some river or brook which may be near. In order that any considerable quantity of water may be readily withdrawn from a canal when required, it is gene¬ rally provided in various places with waste-gates or sluices in its sides, which can be drawn up either with a rack and pinion, a chain and roller, or a crow-bar, as circumstances may render most eligible. Sometimes pipes furnished with valves are placed in the bottom of the canal for withdraw¬ ing the water. The frame of a lock-gate usually consists of two strong upright posts, connected by horizontal ribs ; and the latter are closely covered with boards or planks caulked like a ship. The gate, again, generally turns horizontally on one of these uprights, which is called the Aee/-post or corn-post, whilst the opposite one is named the / which was burned in August 1512, in action with the written, it appears from the parliament roll (20th Henry ^ ^ ^ • i— tht* lord hio-h ad- VI. 1442), that an armed naval force, consisting only of eight large ships, with smaller vessels to attend them, was to be collected from the ports of London, Bristol, Dartmouth, Hull, Newcastle, Winchelsea, Plymouth, tal- mouth, &c.; and, of course, the royal ships ot 1417, the names of which are contained in the foregoing schedule French fleet, when carrying the flag of the lord high ad¬ miral. There is a drawing in the Pepysian papers of the Henry Grace de Dieu, from which a print in the Aichae- ologia has been engraved, and of which a copy has been taken as a frontispiece to Mr Derrick s Memoirs of the Rise and Progress of the Royal Navy, hrom these papers ^ aP" pears that she carried fourteen guns on the lower deck, twelve on the main deck, eighteen on the quarter-deck and were then either gone to decay or dispersed. We are not . a - . to judge of the size of these ships from the few marineis poop, eighteen on the lofty forecastle, and ten in her stern- appointed to each. These were merely the ship-keepers, p0rtS) making altogether seventy-two guns. Her regular or harbour-duty men, placed on permanent pay, to keep establishment of men is said to have consisted of 349 sol- the ships in a condition fit for the sea when wanted. It is very probable that, until our merchants engaged in the Mediterranean trade, and that the attention of the go¬ vernment was turned, in the reign of Henry VII. (about 1496), to imitate Portugal in making foreign discovery, under the skilful seaman Sebastian Cabot, very little was added to the capacity or the power of British ships of war. It is said, however, that on the accession of Henry VII. to the throne in 1485, he caused his marine, which had been neglected in the preceding reign, to be put into a condi¬ tion to protect the coasts against all foreign invasions; and that, in the midst of profound peace, he always kept up a fleet ready to act. In his reign was built a ship called the diers, 301 mariners, and fifty gunners, making altogether 700 men. Some idea may be formed of the awkwardness in manoeuvring ships built on her construction, or similar to her, when it is stated that, on the appearance of the French fleet at St Helens, the Great Harry, built in the former reign, and the first ship built with two decks, had nearly been sunk ; and that the Mary Rose, of 600 tons, with 500 or 600 men on board, was actually sunk at Spit- head, occasioned, as Raleigh informs us, “ by a little sway in casting the ship about, her ports being within sixteen inches of the water.” On this occasion the fleets cannon¬ aded each other for two hours; and it is remarked as something extraordinary, that not less than three hundred Great Harry, the first on record that deserved the name of cannon.sh0t were fired on both sides in the course of this a ship of war, ifit was not the first exclusively appropriated action> From the prints above mentioned, which agree to the service of the state. This is the same ship which very cjose]y wit,h the curious painting of Henry crossing the Channel in his fleet to meet Francis on the Champ de Drap d’Or, near Calais, and now in the great room where the Society of Antiquaries hold their meetings in Somerset House, it is quite surprising how they could be trusted on the sea at all, their enormous poops and fore¬ castles making them appear loftier and more awkward than the large Chinese junks, to which, indeed, they bear a strong resemblance. It is worth remarking, that, two years ago, the position of the Mary Rose, near Spithead, was pointed out to that extraordinary diver Mr Deane, who went down several times, and brought up some beautiful pieces of brass ordnance, as perfect and as fine specimens as any we have at the present day. Henry VIII. may justly be said to have laid the foun¬ dation of the British navy. He established the dock-yards at Deptford, Woolwich, and Portsmouth ; he appointed certain commissioners to superintend the civil affairs of the navy, and settled the rank and pay of admirals, vice-admi¬ rals, and inferior officers; thus creating a national navy, and raising the officers to a separate and distinct profes¬ sion. The great officers of the navy then were, the vice- admiral of England, the master of the ordnance, the sur¬ veyor of the marine causes, the treasurer, comptroller, ge¬ neral surveyor of the victualling, clerk of the ships, and clerk of the stores. Each of these officers had their par¬ ticular duties, but they met together at their office on Tower Hill once a week, to consult, and make their re¬ ports to the lord high admiral. He also established the fraternity of the Trinity House, for the improvement of navigation and the encouragement of commerce ; and built the castles of Deal, Walmer, Sandgate, Hurst Castle, &c. for the protection of his fleet and of the coast. At the death of Henry VIII. in 1547, the royal navy consisted of about fifty ships and vessels of different sizes, the former from lOOO’to 150 tons, and the latter down to Camden has miscalled the Henry Grace de Dieu, and which was not built till twenty years afterwards, under the reign of Henry \ III. Ihe Great Harry is stated to have cost L.14,000, and was burned by accident at Woolwich in the year 1553. We now come to that period of our naval history in which England might be truly said to possess a military marine, and of which some curious details have been left us by that extraordinary man of business Mr Pepys, a com¬ missioner of the navy, and afterwards secretary to Charles II., at a time when the king executed in person the office of lord high admiral, and also to James II. until his ab¬ dication. His minutes and miscellanies relative to the navy are contained in a great number of manuscript vo¬ lumes, which are deposited in the Pepysian Library in Magdalene College, Cambridge. From these papers it appears, that in the thirteenth year of Henry VIII. the following were the names and the tonnage of the royal navy : Tons. Henry Grace de Dieu 1500 Gabriel Royal Mary Rose Barbara ^0 Mary George 250 Henry Hampton 120 The Great Galley 800 Sovereign 800 Catherine Forteleza 550 John Baptist 44)0 Great Nicholas 400 Mary James 240 Great Bark 250 Less Bark 180 Add to these two row-barges of sixty tons each, making, N A llat^riel. twenty tons, making in the whole about 12,000 tons, and —^ ' manned by about 8000 mariners, soldiers, gunners, &c. In the short reign of his son Edward, little alteration seems to have taken place in the state and condition of the royal navy. But the regulations which had been made in the reign of his father, for the civil government of naval affairs, were revised, arranged, and turned into ordinances, which form the basis of all the subsequent instructions given to the commissioners for the management of the civil affairs of the navy. In the reign of Mary the tonnage of the navy was reduced to about 7000 tons ; but her lord high admiral nobly maintained the title assumed by England of Sovereign of the Seas, by compelling Philip of Spain to strike his flag that was flying at the main-top-mast head, though on his way to England to marry Queen Mary, by firing a shot at the Spanish admiral. He also demanded that his whole fleet, consisting of 160 sail, should strike their colours and lower their top-sails, as an homage to the English flag, before he would permit his squadron to sa¬ lute the Spanish monarch. The reign of Elizabeth was the proudest period of our naval history, perhaps surpassed by none previously to the Revolution. She not only increased the numerical force of the regular navy, but established many wise regulations for its preservation, and for securing adequate supplies of timber and other naval stores. She placed her naval offi¬ cers on a more respectable footing, and encouraged fo¬ reign trade and geographical discoveries, so that she ac¬ quired justly the title of the Restorer of Naval Power, and Sovereign of the Northern Seas. The greatest naval force that had at any previous period been called together was that which was assembled to oppose the Invincible Armada, and which, according to the notes of Mr Secre¬ tary Pepys, consisted of 176 ships, with 14,992 men ; but these were not all “ Shippes Royall,” but were partly com¬ posed of the contributions of the Cinque Ports and others. The number actually belonging to the navy is variously stated, but they would appear to have been somewhere about forty sail of ships, manned with about 6000 men. At the end of her reign, however, the navy had greatly increased, the list in 1603 consisting of forty-two ships of various descriptions, amounting to 17,000 tons, and man¬ ned with 8346 men. Of these, two were of the burden of 1000 tons each, three of 900 tons, and ten from 600 to 800 tons. James I. was not inattentive to his navy. He warmly patronised Mr Phineas Pett, the most able and scientific shipwright that this country ever boasted, and to whom •we undoubtedly owe the first essential improvements in the form and construction of ships. The cumbrous top- works were first got rid of under his superintendence. “ In my owne time,” says Raleigh, “ the shape of our English ships hath been greatly bettered; in extremity we carry our ordnance better than we were wont; we have added crosse pillars in our royall shippes, to strength¬ en them ; we have given longer floors to our shippes than in older times,” &c. The young Prince Henry was so fond of naval affairs, that Phineas Pett was ordered by the lord high admiral to build a vessel at Chatham in 1604, with all possible speed, for the young Prince Henry to dis¬ port himself in, above London Bridge; the length of her keel was twenty-eight feet, and her breadth twelve feet. In 1610 Pett laid down the largest ship that had hitherto been built. She was named the Prince Royal; her bur¬ den was 1400 tons, her keel 114 feet, and she was armed with Sixty-four pieces of great ordnance, “ being in all respects,” says Stowe, “ the greatest and goodliest ship that was ever built in England.” He adds, “ the great workmaster in building this ship was Mr Phineas Pett, gentleman, some time master of arts, of Emanuel College, in Cambridge.” This excellent man, as appears from a manuscript ac- VOL. XVI. V Y. ; 41 count of his life in the British Museum, written by him- Materiel, self, was regarded by the shipwrights of the dock-yards, who had no science themselves, with an eye of jealousy ; and a complaint was laid against him before the king, of ignorance in laying off a ship, and of a wasteful expendi¬ ture of timber and other matters. The king attended at Woolwich with his court, to inquire in person into the charges brought forward, and, after a painful investiga¬ tion, pronounced in favour of Mr Pett. One of the charges was, that he had caused the wood to be cut across the grain ; but the king observed, that, as it appeared to him, “ it was not the wood, but those who had preferred the charges, that were cross-grained.” The state of the navy at the king’s death is variously given by different writers; but on this subject the memo¬ randa left by Mr Secretary Pepys are most likely to be correct. From them it appears that, in 1618, certain com¬ missioners were appointed to examine into the state of the navy, and by their report it appears there were then only thirty-nine ships and vessels, whose tonnage amounted to 14,700 tons ; but in 1624, on the same authority, the num¬ bers had decreased to thirty-two or thirty-three ships and vessels, but the tonnage increased to about 19,400 tons. The commissioners had, in fact, recommended many of the small craft to be broken up or sold, and more ships of the higher rates to be kept up. The navy was not neglected in the troublesome reign of Charles I. This unfortunate monarch added upwards of twenty sail to the list, generally of the smaller kind; but one of them, built by Pett, was of a description, both as to form and dimensions, far superior to any that had yet been launched. This ship was the celebrated Sovereign of the Seas, which was launched at Woolwich in 1637. The length of her keel was 128 feet, the main breadth forty-eight feet, and from stem to stern 232 feet. In the description of this ship by Thomas Heywood, she is said to have “ bore five lanthorns, the biggest of which would hold ten persons upright; had three flush-decks, a fore¬ castle, half-deck, quarter-deck, and round-house. Her lower tier had thirty ports for cannon and demi-cannon ; middle tier, thirty for culverins and demi-culverins ; third tier, twenty-six for other ordnance ; forecastle, twelve; and two half-decks, thirteen or fourteen ports more within board, for murthering pieces ; besides ten pieces of chace ordnance forward, and ten right aft, and many loop-holes in the cabins for musquet-shot. She had eleven anchors, one of 4400 pounds weight. She was of the burden of 1637 tons.” It appears, however, that she was found, on trial, to be too high for a good serviceable ship in all wea¬ thers, and was therefore cut down to a deck less. After this she became an excellent ship, and was in almost all the great actions with the Dutch ; she was rebuilt in 1684, when the name was changed to that of Royal Sovereign ; and was about to be rebuilt a second time at Chatham in 1696, when she accidentally took fire, and was totally con¬ sumed. In this reign the ships of the navy were first classed, or divided into six rates, the first being from 100 to sixty guns, the second from fifty-four to thirty-six, &c. In 1642 the management of the navy was taken out of the king’s hands, and in 1648 Prince Rupert carried away twenty-five ships, none of which ever returned; and such, indeed, was the reduced state of the navy, that at the be¬ ginning of Cromwell’s usurped government, he had only fourteen ships of war of two decks, and some of these car¬ ried only forty guns ; but, under the careful management of very able men, in different commissions which he ap¬ pointed, such vigorous measures were pursued, that, in five years, though engaged within that time in war with the greatest naval power in Europe, the fleet was increased to 150 sail, of which more than a third part had two decks, and many of which were captured from the Dutch, and 42 NAVY. hdeht which it had never before reached ; but from which joined with the new commissioners. To him, it has been it In declined under the short and feeble administration -id we owe fte firs, “‘^“ken the model Though Cromwell found the navy divided into six rates of the Superbe, a French ship of XThfLuAellar- or classes, it was under his government that these ratings SP^^rer are o^opWon ^ no r; n^w mtTldtmay^lTo b”^ Ider improvement ^d at this tim^been made „„ «he mode^ of Tliird pe¬ riod. to’ the state. Mr Pett took his model of this ship from a French frigate which he had seen in the Thames.” During the first period of our naval history, we know nothing of the nature of the armament of the ships. From the time of Edward III. they might have been armed with cannon, but no mention is made of this being the case. According to Lord Herbert, brass ordnance were first cast in England in the year 1535. They had various names, such as cannon, demi-cannon, culverins, demi-culverms, sakers, mynions, falcons, falconets, &c. What the calibre of each of these was is not accurately known, but the cannon is supposed to have been about sixty-pounders, t le demi-cannon thirty-two, the culverin eighteen, falcon two, mynion four, saker five, &c. Many of these pieces, of dif¬ ferent calibres, were mounted on the same deck, which must have occasioned great confusion in action in finding for each its proper shot. , ^ , , tt i On the restoration of Charles II. the Duke of York was immediately appointed lord high admiral, and by his advice a committee was named to consider a plan, pro to be issued in weekly payments , — - half they finished their task, to the satisfaction of the king and the whole nation ; the number of ships repaired and under repair being 108 sail of the line, besides a consider¬ able number of vessels of smaller size. The same year the king abdicated the throne, at which time the list of the navy amounted to 173 sail, containing 101,892 tons, car¬ rying 6930 guns, and 42,000 seamen. The naval regulations were wisely left unaltered at the Revolution, and the business of the admiralty continued to be carried on chiefly, for some time, under the imme¬ diate direction of King William, by Mr Pepys, till the ar¬ rival of Admiral Herbert and Captain Russell from the fleet, into whose hands, he says, “ he silently let it fall. Upon the general principles of that system, thus esta¬ blished with his aid by the Duke of York, the civil go¬ vernment of our navy has ever since been carried on. In the second year of King William (1690), no less than thirty ships were ordered to be built, of sixty, se¬ venty, and eighty guns each; and in 1697 the king, in advice and able assistance of Mr Pepys, great progress was speedily made in the reparation and increase of the fleet. The duke remained lord high admiral till 1673, when, in consequence of the test required by parliament, to which he could not submit, he resigned, and that othce was in part put in commission, and the rest retained by the king. Prince Rupert was put at the head of this com¬ mission, and Mr Pepys appointed secretary to the king in all naval affairs, and of the admiralty; and by his able and judicious management there were in sea-pay, in the year 1679, and in excellent condition, seventy-six ships of the line, all furnished with stores for six months, eight fire¬ ships, besides a numerous train of ketches, smacks, yachts, &c. with more than 12,000 seamen ; and also thirty new ships building, and a good supply of stores in the dock¬ yards. But this flourishing condition of the navy did not last long. In consequence of the dissipation of the king, and his pecuniary difficulties, he neglected the navy on account of the expenses; the duke was sent abroad, and Mr Pepys to the Tower. A new set of commissioners were appointed, without experience, ability, or industry ; and the consequence was, as stated by the commissioners of revision, that “ all the wise regulations formed during the administration of the Duke of York were neglected; and such supineness and waste appear to have prevailed, that, at the end of not more than five years, when he was re¬ called to the office of lord high admiral, only twenty- two ships, none larger than a fourth rate, with two fire¬ ships, were at sea; those in harbour were quite unfit for service ; even the thirty new ships which he had left building had been suffered to fifil into a state of great de¬ cay, and hardly any stores were found to remain in the dock-yards.” The first act on the duke’s return was the re-appoint- ment of Mr Pepys as secretary of the admiralty. Finding the present commissioners unequal to the duties required at his accession. It was now partly composed of various classes of French ships which had been captured m the course of the war, amounting in number to more than sixty, and in guns to 2300 ; the losses by storms and cap¬ tures on our side being about half the tonnage and half the guns we had acquired. At the commencement of this reign, the navy, as we have stated, consisted of 173 ships, measuring 101,892 tons ; at his death, it had been ex¬ tended to 272 ships, measuring 159,020 tons, being an in¬ crease of ninety-nine ships and 57,128 tons, or more than one half both in number and in tonnage. The accession of Queen Anne was immediately follow¬ ed by a war with France and Spain, and in the second year of her reign she had the misfortune of losing a vast number of her ships, by one of the most tremendous storms tliat was ever known; but every energy was used to re¬ pair this national calamity. In an address of the House of Lords, in March 1707, it is declared as “ a most un¬ doubted maxim, that the honour, security, and wealth of this kingdom does depend upon the protection and encour¬ agement of trade, and the improving and right encourag¬ ing its naval strength therefore we do in the most ear¬ nest manner beseech your majesty, that the sea affairs may always be your first and most peculiar care.” In the course of this war were taken or destroyed about fifty ships of war, mounting 3000 cannon; and we lost about half the number. At the death of the queen, in 1714, the list of the navy was reduced in number to 247 ships, measuring 167,219 tons, being an increase in tonnage of 8199 tons. George I. left the navy pretty nearly in the same state in which he found it. At his death, in 1727, the list con¬ sisted of 233 ships, measuring 170,862 tong, being a de¬ crease in number of fourteen, but an increase in tonnage of 3643 tons. _ • , «n George II. was engaged in a war with Spain in 1739, in consequence of which the size of our ships of the line NAVY. 43 /at^riel. ordered to be built was considerably increased. In 1744-, France declared against us ; but on tbe restoration of peace in 1748, it was found that our naval strength had prodi¬ giously increased. Our loss had been little or nothing, whilst we had taken and destroyed, of the French twenty, and of the Spanish fifteen sail of the line, besides smaller vessels. The war with France of 1755 added considerably to the list, so that, at the king’s decease, in 1760, it con¬ sisted of 412 ships, measuring 321,104 tons. In the short war of 1762, George III. added no less than twenty sail of the line to our navy. At the conclusion of the American war in 1782, the list of the navy was in¬ creased to 600 sail; and at the signing of the prelimina¬ ries in 1783 it amounted to 617 sail, measuring upwards of 500,000 tons; being an increase of 185 ships and 157,000 tons and upwards since the year 1762. At the peace of Amiens the list of the fleet amounted to upwards of 700 sail, of which 144 were of the line. The number taken from the enemy, or destroyed, amounted nearly to 600, of which ninety were of the line, including fifty-gun ships, and upwards of two hundred were frigates ; and our loss amounted to about sixty, of which six were of the line and twelve frigates. The recommencement and long continuance of the re¬ volutionary war, and the glorious successes of our naval actions; the protection required for our extended com¬ merce, of which, in fact, we might be said to enjoy a mo¬ nopoly, and for the security of our numerous colonies; con¬ tributed to raise the British navy to a magnitude to which the accumulated navies of the whole world bore but a small proportion. From 1808 to 1813, there were seldom less than from 100 to 106 sail of the line in commission, and from 130 to 160 frigates, and upwards of 200 sloops, besides bombs, gun-brigs, cutters, schooners, &c. amounting in the whole to about 500 sail of effective ships and vessels; to which may be added 500 more in the ordinary, and as pri¬ son, hospital, and receiving ships j making at least 100O pendants, and measuring from 800,000 to 900,000 tons. The commissioners appointed to inquire into the state and condition of the woods, forests, and land revenues of the crown, state, in their report to parliament, in the year 1792, that, “ at the accession of his majesty (Geo. III.) to the throne, the tonnage of the royal navy was 321,104 tons, and at the end of the year 1788 it had risen to no less than 413,467 tons.” In 1808 it had amounted to the en¬ ormous extent of 800,000 tons, having nearly doubled it¬ self in twenty years. It must not, however, be supposed that the effective navy consisted of more than half this amount of tonnage. Since the conclusion of the war, it would appear that at least one half of the number of ships then in existence have been sold or broken up as unfit for the service; and as, by the list of the navy at the beginning of the year 1821, the number of ships and vessels of every description, in com¬ mission, in ordinary, building, repairing, and ordered to be built, has been reduced to 609 sail, we may take tbe great- Materiel, est extent of the present tonnage at 500,000 tons; but the greater part, if not the whole, of this tonnage may be considered as efficient, or in a state of progressive effi¬ ciency. According to the printed list of the 1st January 1821, the 609 sail of ships and vessels appear to be as under: No. 1st Rates from 120 to 100 guns 23 2d Rates ... 86... 80 do 16 3d Rates ... 78 ... 74 do 90 4th Rates ... 60 ... 50 do 20 5th Rates ... 48... 22 do 107 6th Rates ... 34... 24 do 40 Sloops ... 22 ... 10 do 136 Making a total of. 432 To which being added, gun-brigs, cutters, schooners, tenders, bombs, troop-ships, store-ships, yachts, &c 177 Grand total 609 In the year 1836 the total number of ships of war, in¬ cluding every description mentioned in the above list, amounted to about 560 sail; of which ninety-five were ships of the line in a state of efficiency for any service, or of being speedily put into a fit state for .sea, and many of them of a very superior class to any employed in the last war. The increase in the size of our ships of war was unavoid¬ able ; France and Spain had increased theirs, and we were compelled, in order to meet them on fair terms, to increase the dimensions of ours ; many of theirs were, besides, add¬ ed to the list of our navy. The following sketch will show the progressive rate at which ships of the first order, or of 100 guns and upwards, were enlarged in their dimensions. In 1677 the first rates were from 1500 to 1600 tons. In 1720 they were increased to 1800 tons. In 1745 we find them advanced to 2000 tons. During the American war they were raised to 2200 tons. In 1795 the Yille de Paris, of 110, measured 2350 tons. In 1804 the Hibernia, of 110 guns, was extended to 2500 tons; and in 1808 the Caledonia, carrying 120 guns, measured 2616 tons, and here we stopped ; but since then, the Nelson, the Howe, the St Vincent, the Britannia, the Prince Regent, the Royal George, and the Neptune, have been built, or are building, all nearly of the same dimensions, and from the same draught—nine such ships as the whole world besides can¬ not produce. The French had one ship larger than any of these, called the Commerce de Marseilles. She was taken by us in Toulon, but broke her back in a gale of wind. The following are the comparative dimensions of the Caledonia and the Commerce de Marseilles. Caledonia Commerce de Marseilles. Length of Gun-deck. feet. in. 205 0 208 4 Length of Keel. feet. in. 170 9 172 0 Extreme Breadth. feet. in. 53 8 54 91 Depth of Hold. feet. in. 23 2 25 01 Tons. 2616 2747 The following is the armament of the Caledonia: On the gun-deck she carries thirty-two guns, 32-pounders; middle-deck thirty-four 24-pounders, upper deck thirty- four 24-pounders, carronades; quarter-deck ten 32-poun¬ ders, and six 12-pounders, carronades; forecastle two 32- pounders, and two 12-pounders, carronades. Her comple¬ ment of men is 875. At the commencement of the third period, we have a somewhat more precise account of the armament of our ships of war. On the 16th of May 1677, a committee of the navy board, ordnance, and certain naval officers, re¬ commended to his majesty the following scheme for arm¬ ing and manning the thirty new ships of the line ordered to be built by act of parliament. NAVY. Guns. Cannon (supposed 42 prs.), Demi-cannon (32 prs.) Culverins (18 prs.) Twelve-pounders Sakers, upper-deck ... Forecastle Quarter-deck Three-pounders 1st Rates. 2d Rates. No. 26 28 28 4 12 2 100 3d Rates 26 26 26 io 2 26 26 4 10 4 90 70 For the 1st rate 780 men. For the 2d do 660 do. For the 3d do 470 do. The rates of ships immediately after the revolution were reduced, the first being turned to second rates, the second rates to third, &c, and the size of each class more equal¬ ized. But from this time forward it was found impossible to preserve any thing like uniformity in the several classes. So many ships captured from the French, Dutch, and Spaniards, were added to our navy, and so many new ones built after the models of ships taken frorn these maiitime powers, that the various descriptions of ships of which our navy was composed became a very serious evil. In the year 1745, a committee, composed of all flag-offi¬ cers unemployed, of the commissioners of the navy who were sea-officers, under the presidency of Sir John Norris, and assisted by the master shipwrights, were ordered to meet, to consider and propose proper establishments of guns, men, masts, yards, &c. for each class of his majesty’s ships ; and, according to their recommendation, the rates, armaments, and complements of his majesty s ships wei e to be as follows : Rate. Guns. Men. X 100 850 or 750 2 90 750 or 660 ( 80 650 or 600 3 "I 70 520 or 460 [ 60 420 or 380 4 i 50 350 or 280 5 44 280 or 220 6 24 160 or 140 But this establishment was very soon departed from ; for, on the 3d of February 1747, the board of admiralty acquainted his majesty, that the French ship Invincible, lately captured, was found to be larger than his majesty s ships of ninety guns and 750 men; and suggested that this ship, and all other prizes of the like class, and also his majesty’s ships of ninety guns, when reduced to two decks and a half, and seventy-four guns, should be allowed a com¬ plement of 700 men. And it further appears, that, at the latter end of the reign of George II. the rates of ships had undergone a very material alteration, for they consisted as under: 1st Rate 100 guns. 2d Rate 90 guns. 3d Rate 80 guns, 74—70—64 guns. 4th Rate 60 guns, 50. 5th Rate 44 guns, 38—36—32 guns. 6th Rate 30 guns, 28—24—20 guns. The scales for measuring the ships were as various as their rates ; and the evil was further increased by the va¬ rieties which it was found necessary to introduce in the rigging and arming of the ships of war. The masts, yards, rig|ing, and stores, were of so many and various dimen¬ sions, as to be not only highly inconvenient, but extremely expensive. When Lord Nelson was off Cadiz with seven- Materiel, teen or eighteen sail of the line, he had no less than seven y“*-/ different classes of seventy-four gun ships, each requhing different sized masts, sails, yards, &c. so that, in the event of one of these being disabled, the others could not supply her with such stores as could be appropriated to her wants. Present Rating of the Navy. To remedy the many inconveniences resulting from the irregularities above mentioned, the lords of the admiralty suggested, by their memorial to the prince regent, which, by his order in council, of the 25th November 1816, was ordered to be carried into effect, that the ships of the navy should for the future be rated as under. The first rate to include all three-deckers, in as much as all sea-going ships of that description carry a hundred guns and upwards. . . The second rate to include all ships of eighty guns and upwards, on two decks. The third rate to include all ships of seventy guns and upwards, but less than eighty guns. The fourth rate to include all ships of fifty and upwards, but less than seventy guns. The fifth rate to include all ships from thirty-six to fifty guns. The sixth rate to include all ships from twenty-four to thirty-six guns. ,, And that the complements of men be established as under. 1st Rate 900 — 850 or 800 men. 2d Rate 700 or 650. 3d Rate 650 or 600. 4th Rate 450 or 350. 5th Rate 300 or 280. 6th Rate 175 — 145 or 125. Of sloops, the complements established according to their size were to consist of 135, 125, 95, or 75 men; of brigs (not sloops), cutters, schooners, and bombs, sixty or fifty men* . ,, , Thus stands the rating and manning of the navy at pre¬ sent ; but another war, or a new administration of the af¬ fairs of the navy, will, in all human probability, make new regulations in these respects. It is, however, of the ut¬ most importance, with a view to convenience and economy, that the size and dimensions of the several rates should be kept as nearly as possible equal, in order that one descrip¬ tion of stores may be applicable to every ship of the same rate. To this end, the commissioners of naval revision have recommended, that the ships of each class oi i ate should be constructed, in every particular, according to the form of the best ship in the same class in our navy; of the same length, breadth, and depth ; the masts of the same dimensions, and placed in the same parts of the ship, with the same form and size of the sails.” A complete classifi¬ cation of masts, yards, and sails, has very recently been established. Improvements in Construction. If we look back to the days of Elizabeth, when the chain-pump, the capstan, the striking of the top-masts, the studding-sails, top-gallant-sails, sprit-sails, &c. were first introduced into the navy, one can scarcely conceive how they contrived to keep the sea for any length of time ; but these improvements, important as they were, are trifling when compared with those aids and conveniences which have gradually been introduced since her reign, and which a ship of war now enjoys. When Sir Anthony Deane, in 1664, raised the lower ports of a two-decker four and a half feet out of the water, which had before been scarcely three feet, and made a ship of this class to stow six months’ provisions instead of three, it was justly considered as a NAVY. 45 ateriel. most important improvement; not less so, when the breadth ' of a ship of this class was carried to forty-five feet. “ The builders of England,” says Pepys, “ before 1673, had not well considered that breadth only will make a stiff ship.” It must be confessed, however, that, as far as the form of a ship’s bottom depends on scientific principles, we have copied our best models from the French, sometimes with capricious variations, which more frequently turned out to be an injurious alteration than an improvement. The first essential alteration in the form of our ships of the line was taken from the Superbe, a French ship of se¬ venty-four guns, which anchored at Spithead, on the mo¬ del of which, as already stated, the Harwich was built by Sir Anthony Deane in 1674; since which time we have constantly been copying from French models, improving or spoiling, as chance might determine. “ Where we have built exactly after the form of the best of the French ships that we have taken,” say the commissioners of naval revi¬ sion, “ thus adding our dexterity in building to their know¬ ledge in theory, the ships, it is generally allowed, have proved the best in our navy ; but whenever our builders have been so far misled by their little attainments in the science of naval architecture, as to depart from the model before them in any material degree, and attempt improve¬ ments, the true principles on which ships ought to be con¬ structed (being imperfectly known to them) have been mis¬ taken or counteracted, and the alterations, according to the information given to us, have, in may cases, done harm.” Whilst, therefore, they add, “ our rivals in naval power were employing men of the greatest talents and most extensive acquirements, to call in the aid of science for improving the construction of ships, we have contented ourselves with groping on in the dark in quest of such discoveries as chance might bring in our way.” Upon these grounds, and by the recommendation of the commissioners, a school for a superior class of shipwright apprentices was established in Portsmouth dockyard. It consisted of twenty-five young men of liberal education, whose mornings were passed in the study of mathematics and mechanics, and in their application to naval architec- ' ture; and the remainder of the day under the master ship¬ wright in the mould loft, and in all the various kinds of manual labour connected with ship-building, as well as in the management and conversion of timber, so as to make them, at the same time, fully acquainted with all the du¬ ties in detail of a practical shipwright. After producing more officers than could be provided for, it was deemed expedient to break up the establishment. If, however, we have hitherto been inferior to the French in the scientific principles of ship-building, in the con¬ structive part we have left them behind beyond all com¬ parison ; and, notwithstanding the narrow prejudices which have been more remarkably adhered to among shipwrights than among almost any other class of artisans, various al¬ terations and improvements have from time to time been introduced into the mechanical part of naval architecture, which have added to the strength, the stability, the com¬ fort, and convenience of our ships of war, and rendered them, in every point of view, superior to those of any other nation. The application of iron where wood was formerly used, and of copper for iron, has added considerably to the durability of ships ; and the sheathing of their bottoms with copper, to their celerity; giving them, at the same time, a protection against the worm and those marine in¬ sects which were wont to adhere to them ; yet it is re¬ markable how strong the prejudice was against this prac¬ tice before it obtained a due degree of credit. In the fleet of Sir Edward Hughes in India there was but one copper¬ ed ship, and Rodney’s squadron in the West Indies had but four that were coppered in the year 1799 ; but these were enough so completely to establish their superiority over the others with wooden sheathing, that, in the year Materiel. 1782, the whole British navy wras coppered. ' But the greatest of all improvements in the construction System of of ships of war, as tending to their strength and durability, diagpual is the system of diagonal bracing, introduced a few years ‘,iacin£- ago by Mr (afterwards Sir Robert) Seppings, surveyor of the navy, and now universally adopted in all ships of the line and frigates ; a system that may be said to have establish¬ ed a new era in naval architecture. Of all large machines destined to undergo severe shocks, a ship is perhaps the least skilfully and artificially contrived. Her several parts are put together on a principle so much opposed to that which constitutes strength, that if a ship, on the old con¬ struction, should be put upon wheels, and drawn over a rough pavement, the action of a day would shake her in pieces; but being destined to move in an element that closes upon her, and presses her equally on all sides, she is prevented from falling in pieces outwards, and her beams and decks preserve her from tumbling inwards. Whoever has observed a ship in frame, as it is called, on the stocks, that is, with only her timbers erected, must be forcibly re¬ minded of the skeleton of some large quadruped, as of a horse or ox, laid on its back; the keel resembling the back-bone, and the curved timbers the ribs, which is, in fact, the name by which they sometimes go. These ribs, issuing at right angles from the keel, consist, in a seventy- four gun ship, of about 800 different pieces, the space be¬ tween each rib seldom exceeding five inches. These ribs are covered with a skin or planks of different thicknesses within and without, also at right angles to the ribs, and fixed to them by means of wooden pins or tree-nails. In the inside three or four tiers of beams cross the skeleton from side to side, at right angles to both planks and ribs. These beams support the decks. At right angles to the beams are pieces of wood called carlings, and at right angles to these other pieces called ledges, and upon these the planks of the deck are laid in a direction at right angles to the beams, and parallel to the planking of the sides. From this sketch it will be perceived that all the parts of a ship are either parallel or at right angles to each other. The ribs form a right angle with the keel, the planks in¬ side and out are at right angles to the ribs, the beams at right angles to these, the carlings to the beams, the ledges to the carlings, and the planks of the decks to the ledges, the beams, and the ribs. Now, it is wmll known to every common carpenter, that this disposition of materials is the weakest that can be adopted. Thus, if five pieces of wood be pinned together in the shape of a parallelo¬ gram, it will require but lit¬ tle force to move them from the rectangular to the oblique or rhomboidal shape. But place a cross-bar, as in the figure Z, as carpenters are accustomed to do on a common gate, and it is no longer moveable on the points of fastening. The strongest proof of a ship’s partaking of this weakness in the old construction, is afforded on her being first launched into the water, when it is invaria¬ bly found that the two extremities, being less water-borne than the middle, drop, and give to the ship a convex cur¬ vature upwards, an effect which, from its resemblance to the shape of a hog’s back, is usually called hogging. In very weak or old ships this effect may be discovered in all the port-holes of the upper-deck, by their having taken the shape of lozenges, declining different wrays from the centre of the ship to each extremity. _a i\ 46 Materiel. NAVY. Fasten¬ ings. To obviate this great defect, Seppings tried the expe- 1 riment of applying to the ribs or timbers of the ship, from one extremity to the other, and from the orlop-deck down¬ wards to the kelson, that well-known principle in carpen¬ try, called trussing; being, in fact, a series of diagonal braces disposing themselves into triangles, the sides of which give to each other a mutual support and counter¬ action. These triangles were firmly bolted to the frame; and in order to give a continuity of strength to the whole machine, and leave no possible room for play, he filled the spaces between the frames with old-seasoned timber cut into the shape of wedges ; but afterwards with a prepared cement, thus rendering the lower part of the ship or floor one solid, complete mass, possessing the strength and firm¬ ness of a rock ; but a few years have proved that this ce¬ ment has injured the timber. The same principle of trussing is carried from the gun- deck upwards, from whence, between every port, is in¬ troduced a diagonal brace, which completely prevents the tendency of ships to stretch, or draw asunder their upper works. The decks, too, are made subservient to the se¬ curing more firmly the beams to the sides of the ship, by the planks being laid diagonally in contrary directions, from the midships to the sides, and at an angle of forty- five degrees with the beams, and at right angles with the ledges. In frigates and smaller vessels, iron plates, lying at an angle of forty-five degrees with the direction of the trus¬ ses, are substituted for the diagonal frame of wood in ships of the line. _ . By this mode of construction, the ceiling or internal planking is wholly dispensed with, and a very consider¬ able saving of the finest oak timber thereby effected ; and, what is more important, those receptacles of filth and ver¬ min between the timbers, which were before closed up by the planking, are entirely got rid of. This is not the least important part of the improvement, either as it concerns the soundness of the ship or the health of the crew. It is stated that a ship which had been three years in In¬ dia, on being laid open, exhibited a mass of filth, mixed up with dead rats, mice, cockroaches, and other vermin, which was taken out in cakes, not unlike in appearance the oil-cake with which certain animals are fed; that the stench was abominable, and the timbers with which it was in contact rotten. No such filth can find a lodgment in ships of war as they are now built. It has been a subject of discussion amongst ship-build¬ ers, whether tree-nails or metallic fastenings are to be preferred. The objection to iron bolts is their rapid cor¬ rosion, from the gallic acid of the wood, the sea-water, and perhaps by a combination of both; in consequence of which, the fibres of the wood around them become injur¬ ed, the bolts wear away, the water oozes through, and the whole fabric is shaken and disarranged. This corro¬ sion of iron fastenings was most remarkable when the practice of sheathing ships with copper became general, and when iron nails were made use of to fix it; for, by the contact of the two metals in the sea-water, a galvanic action took place, and both were immediately corroded. Mixed metal nails are now used for this purpose; and cop¬ per bolts are universally employed below the line of flo¬ tation, though it is found that in these also oxidation takes place to a certain degree, and causes partial leaks. Va¬ rious mixtures of metals have been tried, but all of them are considered as liable to greater objections than pure copper. It would appear, then, that tree-nails, if proper¬ ly made, well seasoned, and driven tight, are the least objectionable, being seldom found to occasion leaks, or to injure the plank or timbers through which they pass. This species of fastening has at all times been used by all the maritime nations of Europe. The Dutch were in the habit of importing them from Ireland, it being supposed Materiel that the oak grown in that country was tougher and strong- v er than any which could be procured on the Continent, and in all respects best adapted for the purpose. “ Under all circumstances,” says Mr Knowles, “ it appears that the present method of fastening ships generally with tough, well-seasoned tree-nails, with their ends split, and caulked after being driven, and securing the buts of each plank with copper bolts well clenched, is liable to fewer objec¬ tions, and more conducive to the durability of the timber, than any other which has been tried or proposed to be established.” # , . The rounding the form of the bow in ships of the line is Round considered by nautical men as of great utility and import-bows to ance. The plan was first proposed by Seppings in 1807, ^Pso and has since been generally adopted. The removal of the head railing, and the continuing of the rounded form, give not only great additional strength to the ship, but also much more comfort and convenience to the crew, and security in that part of the ship when in action. The scarcity of compass or crooked timber was, for Scarphing some time, attended with serious injury to those ships war while on the stocks, into which it was considered ne- compass cessary to be introduced. The difficulty with which b-timber, was procured, the length of time which a ship sometimes remained on the stocks waiting for a few pieces of com¬ pass timber, the green wood, when found, being imme¬ diately added to the seasoned timber in other parts of the frame, gave to the ship different periods of durability ; though, in the long run, the seasoned parts became af¬ fected by the green wood with which they were in con¬ tact, and a premature decay of the whole fabric was the consequence. Seppings, therefore, proposed a plan in 1806, which, by uniting short timbers according to a me¬ thod called scarphing, enabled him to obtain every spe¬ cies of compass-form that could be required from straight timber. Since that period, the whole frame of a ship can be prepared at once, without waiting for particular pieces, and thus every part of it can be made to undergo an equal degree of seasoning. By the same ingenious and indefatigable surveyor of Plan for the navy, a plan was proposed and adopted in the year ren erinj? 1813, by which ships of the line were built with timber hitherto considered as applicable only to the building °lpiicabie to frigates, and that which had been deemed only fit for in- ships of' ferior uses was appropriated to principal purposes. The the line. Talavera was the first ship built on this principle, and the expense of her hull is stated to have been about a thou¬ sand pounds less than that of the Black Prince, a ship ot similar dimensions built upon the old principle. The me¬ thod by which the timbers were united was found, on trial of the Talavera with the Black Prince, whilst in frame, to give so much additional strength to the former, that it furnished the groundwork of the present mode of framing the British navy, by the introduction of the same union of materials in the application of the large, as was prac¬ tised in that of the small timber, and from which both strength and economy have been united. The building of the Talavera, and the great strength of Use of her frame, led to the practice of putting together the chocks abo- frames of ships of the line from timbers ot reduced lengths, 18 e and dispensing altogether with the chocks used for unit¬ ing their extremities, or, as they are technically called, their heads and heels. These chocks are of the form ot an obtuse wedge, as A, and they are used to unite the two pieces of timber, as B and C, by firmly bolting the piece A to the two timbers B and C. It generally happened, however, that, in the operation NAVY. ifatdriel. of thus fixing this chock, its two extremities split, and the —v'""-"' surfaces of the chock and timbers not being in perfect contact, the moisture and air were admitted, and occasion¬ ed, as they always do, the dry rot to a greater degree in those parts of the ship than in most others; and as there were from four to five hundred of these chocks in a se¬ venty-four gun ship, it will readily be conceived what mischief was done to the whole fabric, if the greatest care was not taken by the workmen to prevent their splitting, and to bring their surfaces immediately into contact. It is obvious, also, that a great deal of timber must have been cut to waste in making these chocks; and, in fact, they consumed timber in each ship, when it was at a high price, to the value of from L.1500 to L.2000, besides a consi¬ derable expense in workmanship; and when the ship came to be repaired, not one chock in six was found to be in a fit state to be used again. It is not easy to con¬ ceive how this practice of uniting the timbers ol a ship’s frame came to be introduced so generally into the British navy, more especially as it is unknown in any other nation ; it was probably first done to preserve the length of some particular timbers, one of whose ends might be defective, and the unsound part cut away in the manner we see it, and the sound chock introduced to fill up the vacuity ; but it is quite surprising how a practice should have become general which creates a waste of timber, an increase of workmanship, and sows the seeds of premature decay. To obviate these disadvantages, Sir Robert Seppings brought the but-ends of the timbers together thus, ^ 4:: o ^ and kept them together by means of a round dowal or coak, as C, just as the fellies of a carriage-wheel are fas¬ tened together. He justly observes, that the simplicity of the workmanship, the economy in the conversion of tim¬ ber, and the greater strength and durability, although of considerable moment, are of but trifling importance when compared with the advantage of rendering timber gene¬ rally more applicable to the frames of ships, which had heretofore been but partially so. Another great improvement in the construction of ships of war, introduced by Seppings, is the round stern, vrhich, however unsightly it may at first appear, from being accus¬ tomed to view the square stern with its grotesque carved work, is even in appearance more consistent with the ter¬ mination of the sweeping lines of a ship’s bottom, than the cutting them off abruptly with a square stern. But the additional strength which is thus given to a ship in that part which was hitherto the weakest, is alone sufficient to recommend the adoption of the plan in our ships of war, particularly in those of the larger classes. The advantages gained by circular sterns are thus enumerated by Sir Ro¬ bert Seppings. 1. They give additional strength to the whole fabric of a ship. 2. They afford additional force in point of defence. 3. They admit of the guns being run out in a similar way to those in the sides. 4. From the circular form and mode of carrying up the timbers, an additional protection against shot is obtained, if the ship should be raked. 5. The stern being equally strong as the bow, no se¬ rious injury can accrue in the event of the ship being pooped; and the ship may be moored, if so required, by the stern. 6. A ship will sail better upon a wind, from the removal of the projections of the quarter galleries. 7. Ships of the line have now a stern-walk, protected by a veranda, and so contrived that the officers can walk all round, can observe the set of the sails, and the fleet in all directions. 47 8. The compass-timber heretofore expended for tran- Materiel, soms is substituted with straight timber, and worked near- ly to a right angle, which affords a considerable saving in the consumption of timber. 9. The counter being done away by the circular stern, the danger which arose from boats being caught under it is obviated. In fact, the circular stern possesses many other advan¬ tages not necessary to be enumerated in this place. Improvements in the Preservation of the Navy. Not only is the new mode of construction highly fa¬ vourable to the duration of ships, but the ravages of the disease which is known by the name of the dry rot, occa¬ sioned principally by the hurry in which ships were built in the course of the late war, and the unseasoned state of the timber made use of (see Dry Rot), led to such mea¬ sures as tend most effectually to the preservation of the fleet. In the first place, various modes were put in practice By pre¬ fer assorting and seasoning the timber, and for protecting vention of it from the vicissitudes of the weather. The oak and firdlT rot- of Canada, which had been introduced to a great extent into our dock-yards during the time the Baltic was shut against this country, are now excluded ; these woods hav¬ ing been found not only to possess little durability, but so friendly to the growth of fungi, that they communicat¬ ed the baneful disease to all other descriptions of timber with which they came in contact. The practice of build¬ ing ships under cover, introduced into our dock-yards in the course of the war, and carried to an extent so as to have roofed over almost every dock and slip in all the yards, has been destructive to the growth of dry rot. See Dock-yards. A ship now placed in ordinary, whether new or newly Bv precau- repaired, is carefully housed over, so that no rain can tions in or- reach her lower decks; several streaks of planks are re- dinary. moved from her sides and decks to admit a thorough draft of air, which is sent down by wind-sails, and which per¬ vades every part of the ship; and these, with the addition of two small airing-stoves, in which a few cinders are burn¬ ed, render her perfectly dry and comfortable on all the decks and store-rooms. All the shingle ballast is re¬ moved out of the hold, which is thoroughly cleaned and restowed with iron ballast. The former practice of moor¬ ing two ships together, by which the two sides next to each other, deprived of the sun and a free circulation of air, were generally found to be decayed, is discontinued. The lower masts are left standing, and their tops housed over ; the gun-carriages and several of the stores are left on board ; and such, in short, is the state of a ship in or¬ dinary, that she may be fitted in all respects for proceed¬ ing to sea in half the usual time. “ The ships,” says Mr Knowles, “ are frequently pumped to clear them of bilge- water, and cleanliness in every respect is attended to ; the lower decks are rubbed with dry stones, commonly called holly-stones, and with sand, the use of water upon them being strictly forbidden.” But that which most of all is likely to insure the preservation of the fleet whilst in a state of ordinary, is the recent regulation, which places the ordinary under the immediate superintendence of a captain at each port, with other commissioned officers un¬ der his orders, who take care that the warrant-officers and ship-keepers attend to the proper airing, ventilating, and keeping clean and dry their respective ships. A practice has recently been introduced into the dock-Bv im- yards, of steeping oak timber in salt-water for several mersion of months, and then stacking it till it becomes perfectly dry, timber in which is said to have entirely put a stop to the progress 0fsa^t'water* dry rot where it had already commenced, and to act as a 48 NAVY. Materiel, preventive to that disease. Some doubts, however, were en- ' v tertained on this point, and the practice has been disconti¬ nued. The Americans seem to place little confidence in the good efFects which are said to have been experienced from the immersion of timber. Rodgers, the commissioner of their navy, states, in an official report addressed to the secre¬ tary, that “ experiments have been made to arrest the dry rot in ships, by sinking them for months in salt-water, but without success. The texture of the wood was found to be essentially injured by being thus water-soaked, and it became more subject to this disease than before it was sunk. The ships were also injured in their fastenings, and the at¬ mosphere within them was kept in a constant state of humidity, whence, among other ill effects, proceeded in¬ jury to provisions and stores, and sickness to the ciews. The truth is, the American timber, with the single excep¬ tion, perhaps, of the live-oak, is remarkably subject to diy rot, of which, during the late war, we had fatal experience. Mr Rodgers, however, accounts for the condition in which the oak and pine were received in England from Canada, by their immersion in water. “ Ihe Canada timber, he ob¬ serves, “ is brought down the St Lawrence in large rafts, continues months in water, and in that saturated state is landed and exposed to frost; every attempt to season it under cover is unavailing ; its pores never close again, and when used as ship-timber, dry rot ensues, which, when once commenced, can never be arrested, but by taking out all the pieces in any degree affected.” The Russians, he says, are so fully aware of the injurious effects of soaking ship-tim¬ ber in water, that it is brought from great distances down the rivers in crafts instead of rafts. The Russian ships, however, with all this precaution, are not remarkable for durability. The ships built at Antwerp by the French were in a state of rottenness before they were launched; but w’hether this was owing to the bad quality of the tim¬ ber of the German forests, or to its being water-soaked in rafting down the Rhine, remains doubtful. But we can have no doubt that porous timber is injured by moisture, though the solid British oak may be improved by the dis¬ solution of its sap juices, to the fermentation of which the disease known by the name of dry rot may perhaps be chief¬ ly owing. “ Water,” says Lescalier, a French writer of con¬ siderable merit on the subject, “ seems to be favourable to the decomposition of the sap of timber when immersed; but it substitutes in its place another kind of moisture not less destructive, of which the timber, though afterwards exposed to the air, will not easily get rid of; besidef> it weakens and destroys the grain of the wood.” “ Ihe best means,” he adds, “ of preserving timber, appears to be that of keeping it in well-constructed and airy sheds, in a ver¬ tical position, so that the moisture which remains in the interior of the logs, by running along the fibres of the wood, may be enabled to issue from the lower extremity.^ Timber thus kept dry, under shelter, will preserve itself for ages.” Mr Knowles, secretary to the committee of surveyors of his majesty s navy, in his treatise on the Means of Preserving the British Navy, is led to conclude, from a variety of experiments, “ that timber is better sea¬ soned when kept for two years and a half under cover, than when placed for six months in water, and then for two years in the air, protected from the rain and sun; that it loses more in seasoning, by having been, during the six months of immersion, alternately wet and dry, than the whole time under water ; and that the loss in mois¬ ture is greater in all cases in a given time when the but- ends are placed downwards/ And he adds as a general principle, that no timber should be brought into use ,in this country until it has been felled at least three yeais. By roofing Next to the system of diagonal braces, the roofing the ships, thrown over them whilst building and in ordinary may be considered as the greatest of all improvements for the pre¬ servation of the navy. The utility of it is so obvious, Materiel, that it is quite extraordinary such a practice should not have been earlier adopted; more especially as, at \ enice, at Carlscrona, and at Cronstadt, ships of war had long been built, repaired, and protected under covered roofs. It was strongly recommended to the English ship-builders hify years ago, but without effect; and had it not been for the extraordinary ravages of the dry rot in the unseasonei timber-built ships of the navy, we should still have been without roofs to our docks and slips. . -no. If the dock-yards were of sufficient capacity, there can By other be no doubt that the efficient plan to accomplish their du-nieails- rability, would be that of keeping them on the slip, when built, under cover. A large frigate, the Worcester, has remained on the slip and under cover for six or seven years, and there is not a flaw in her of any kind. It was stated by Mr Strange, when examined by the commission¬ ers for land revenue, that in the year 1790 there were twenty-two ships of the line under roofs in the P0^ of Venice, some of which had remained in that situation fifty- nine years. Since, however, it is utterly impracticable to keep our navy on slips, or in dry docks, the next impor¬ tant consideration is, how best to preserve them afloat in a state of ordinary. Various expedients have been at dif¬ ferent times resorted to in order to prevent the premature decay of ships laid up in this state during peace. The two great requisites for their preservation are ventilation and cleanliness. To promote the former, wind-sails were in general use, though, if not attended to, so as to oppose the open part to the quarter from whence the wind blows, or if the weather be calm, they are of little benefit. Pneu¬ matic machines of various kinds, as pumps and bellows, have been applied to force out the foul air, and introduce atmospherical air into the lower parts of a ship s hold. Heated air from stoves, placed in various parts of the ship, and conducted through tubes, was thought at one time to be efficacious in the preservation of the navy; but expe¬ rience soon showed that the heat thus circulated was so. far objectionable, as it tended to encourage the growth of fungus where there was any moisture lodged, and in the timber which had not been thoroughly seasoned. Per¬ haps no better means can be suggested than those we have described to be in practice, namely, to keep them clean, to admit as much dry air as possible, and to exclude all moisture. Finally, if we take into consideration the numerous im¬ provements which a war, unparalleled in its duration, has been the means of introducing into the materiel of the na¬ vy, whether it regards the economy of its application, the construction of the ships, and their mode of preservation, we may safely say, that at no former period was this coun¬ try in possession of such a navy as at present, in respect of the number, size, and good condition of the ships which compose a fleet, superior to those of the whole world be¬ sides ; and it is gratifying to find, that, with all the enor¬ mous consumption of the military and mercantile navy, it does not appear that the naval resources of Great Britain are at all impaired. Naval Resources. It is of essential importance that the supply of stores for the use of the fleet should not only be adequate to the de¬ mand, but that a sufficient stock should be kept on hand to answer any sudden emergency. - This is the,more ne¬ cessary with regard to those species of stores which aie derived from foreign nations. The principal articles of consumption required for build- Principal ing and equipping a fleet are, hemp, canvass, pitch, tar, naval iron, copper, and timber. All these articles might un-stores' questionably be produced in sufficient quantities in the united kingdom and her colonies, if necessity absolutely N A it^riel. required it. Hemp, for instance, might be grown to any extent in Great Britain and Ireland, were not the land nP‘ more advantageously employed in raising other articles of consumption, and if it could not be cheaper imported from Russia. In the East Indies, the Sunn hemp (infe¬ rior, it is true, to Russia hemp) might be procured to any extent; and other plants, both there and at home, might be substituted for the making of cordage and canvass. For h and pitch and tar, recourse might be had to the pitch-lake on the island of Trinidad, and the coal-tar, of which an inex¬ haustible supply may be had at home. The lake is about four miles in circumference, and many feet in depth, of solid pitch ; and it is stated that, when mixed with oil or tallow, it is rendered fit for all the purposes to which pitch and tar are usually applied. It has the advantage of securing ships’ bottoms against the attack of the worm, which is very active in the neighbouring Gulf of Para; and it does not corrode iron. The coal-tar of home ma¬ nufacture, from some prejudice or other, was refused a fair trial till very lately, and it is now deemed not inferior for many purposes to the common tar. For painting or tarring over wood-work of every kind, it is said to stand exposure to the weather even better than the common tar; and it is used for injecting in large quantities be¬ tween the timbers of ships, as a preservative from the dry rot; its powerful smell having also the good effect of driv¬ ing rats and other vermin out of the ships on which it is employed, per In the two important articles of copper and iron, our own iron, resources may be considered as inexhaustible. Former¬ ly it was deemed indispensable that certain articles should be made of Swedish iron, but of late years our own has been manufactured in every respect equally good ; and the extensive application of this metal in bridges, barges, dock- gates, roofs, rafters, floors, &c. has been equally progressive in most naval purposes. Iron knees, and other modes of binding the beams to the side timbers of ships, are now substituted for those large and crooked pieces of timber which were once deemed absolutely necessary. Our cables, rigging, buoys, and tanks for holding water, are also now of iron. I her. Put the most important article of demand for the use of the navy is timber, principally oak, concerning the supply of which from our own territories different opinions have been entertained. A deficiency in other articles may readily be supplied. A failure in the importation of hemp, for instance, in any one year, might be remedied the next, by an extended cultivation of that article ; but it requires a whole century to repair any defalcation of oak timber, and to render us independent of other nations. Nor has the subject been sufficiently elucidated, so as to form a just opinion, by the several committees of the House of Commons, the evidence produced being almost always loose, and generally contradictory. The committee of 1771, which was directed to inquire into the state of oak timber throughout the kingdom, either from a disagree¬ ment of opinion, or defect of evidence, or a wish to avoid giving alarm, prayed the house to discharge that part of its order which required them to report their opinion. The commissioners of woods and forests, however, in their report laid before parliament in 1792, appeared to estab¬ lish the fact of an alarming scarcity of oak timber in ge¬ neral, but more particularly of large naval timber, both in the royal forests and on private estates. And if such was really the fact in 1792, it will readily be conceived what the state of timber fit for naval purposes must have been at the conclusion of the revolutionary war, when the amount ?P-vate shipping had increased from 1,300,000 tons to ^,300,000 tons, or nearly doubled ; that of the East India Company, in the same period, from 79,900 tons to 115,000 tons; and that of the navy from 400,000 to 800,000 tons • VOL. XV£. 49 to say nothing of the vast consumption of oak timber in Materiel, all kinds of mill-work and other machinery; in the barrack“v'"—'' and ordnance departments ; in mines, collieries, and agri¬ culture ; in docks and dock-gates ; in piers, locks, and sluices; in boats, barges, lighters, bridges, and a great many other purposes to which this timber is applied. From these, and many other causes, the diminution of oak tim¬ ber was infinitely greater than the commissioners had cal¬ culated upon, and yet they recommended that 100,000 acres, belonging to the crown, should be set apart and planted, as necessary for the future supply of the navy. A bill to this effect, relating to the New Forest, passed the Commons, but was thrown out by the Lords. On the departments of the surveyor-general of the land Report of revenue and the surveyor-general of the woods and for-the com- ests being united, the board of commissioners made their m.iss^oner3 first report, which was printed, by order of the House ofot knd Commons, in June 1812. In this report, it is stated that, respecdng taking the tonnage of the navy in 1806 at 776,087 tons, it timber. b would require, at one and a half load to a ton, 1,164,085 loads to build such a navy; and supposing the average du¬ ration of a ship to be fourteen year’s, the annual quantity of timber required would be 83,149 loads, exclusive of re¬ pairs, which they calculate would be about 27,000 loads, making in the whole about 110,000 loads ; of which, how¬ ever, the commissioners reckon, may be furnished 21,341 loads as the annual average of prizes; and of the remain¬ ing 88,659 loads, they think it not unreasonable to calcu¬ late on 28,659 from other sources than British oak. “ This,” they observe, “ leaves 60,000 loads of such oak as the quantity which would be sufficient annually to support, at its present unexampled magnitude, the whole British navy, including ships of w ar of all sorts, but which may be taken as equivalent together to twenty 74-gun ships, each of which, one with another, contains about 2000 tons, or would require, at the rate of a .load and a half to the ton, 3000 loads, making just 60,000 loads for twenty such ships.” Now it has been supposed that not more than forty oak Quantity trees can stand on an acre of ground, so as to grow to a of timber full size, fit for ships of the line, or to contain each a load required and a half of timber; 50 acres, therefore, would be required for the na. to produce a sufficient quantity of timber to build a 74-v^* gun ship, and 1000 acres for twenty such ships; and, as the oak requires at least 100 years to arrive at maturity, 100,000 acres would be required to keep up a successive supply for maintaining a navy of seven or eight hundred thousand tons. The commissioners further observe, that as there are twenty millions of acres of waste lands in the kingdom, a two-hundredth part set aside for planting would at once furnish the whole quantity wanted for the use of the navy. This calculation, we suspect, is overrated by about one half. In the first place, it supposes a state of perpetual war, during which the tonnage of the whole navy is con¬ sidered as more than double of what it now actually is; and, in the second place, it reckons the average duration of the navy at fourteen years only, which, from the im¬ provements that have taken place in the construction and preservation of ships of war, with the resources of teak ships, built in India, we should not hesitate in assuming at an average of twice that number of years ; and if so, the quantity of oak required for the navy will be nothing like that which the commissioners have stated. This, we think, will appear from a statement made (apparently on good authority) in the midst of the war, when the ships of the line built in merchants’ yards were falling to decay after a service of five or six years. “ Assuming 400,000 tons as the amount of tonnage to be kept in commission, and the average duration of a ship of war at the moderate period of twelve and a half years, G V Y. 50 NAVY. Materiel, there would be required an annual supply of tonnage, to " preserve the navy in its present effective state, of 3^,000 tons; and as a load and a half of timber is employed for every ton, the annual demand will be 48,000 loads. The building of a 74-gun ship consumes about 2000 oak trees, or 3000 loads of timber, so that 48,000 loads will build eight sail of the line and sixteen frigates. Allowing one fourth part more for casualties, the annual consumption will be about 60,000 loads, or 40,000 full-grown treei^ ™ which thirty-five will stand upon an acre of ground, ihe quantity of timber, therefore, necessary for the construc¬ tion of a 74-gun ship will occupy fifty-seven acres of land, and the annual demand will be the produce of 1140 acres. Allowing only ninety years for the oak to arrive at perfec¬ tion, there ought to be now standing 102,600 acres of oak plantations, and an annual felling and planting, in perpetual rotation, of 1140 acres, to meet the consumption of the navy alone. Large as this may seem, it is little more than twenty-one acres for each county in England and Wales , which is not equal to the belt which surrounds the park and pleasure-grounds of many estates. . , , . The above calculation proceeds upon the principle that every acre is covered with trees fit for naval purposes, or thaUt contains thirty-five trees, with a load and a half of timber in each. It may be doubted, however, if, on the average of plantations, we shall find more than one tent of that number on an acre ; and as the same writer endea¬ vours to show that the quantity of oak timber consume in the navy is only about one tenth part of the whole con¬ sumption of the country, instead of 102,600 acres being sufficient for a perpetual supply, there would be required some ten or twelve millions of acres, in plantations similar to those at present existing, to supply the demand for oak timber. Whether such a quantity exists or not, the tact is certain, that, long before the conclusion of the war, a scarcity began to be felt, especially of the larger kind of timberf fit for building ships of the line ; and so great wa this scarcity, that if Sir Robert Seppmgs had not contnv- ed the means of substituting straight timber for those of a certain form and dimension, before considered as in¬ dispensable, the building of new ships must have entirely If, however, the growth of oak for ship timber was great- ,y diminished during the war, so as to threaten an alarm- iL scarcity, there is little doubt that, from the increased auention paid by individuals to their young plantations, and the great extension of those plantations, as we from the measure of allotting off portions of the royal fo¬ rests to those who had claims on them, and enclosing the remainder for the use of the public, this country will, in future times, be fully adequate to the production of oak timber equal to the demand for the naval and mercanti e marine. 4 It will require, however, large and successive plantations, on account of the slow growth of the oak. But there is another tree, of late years very generally planted on rising grounds, which bids fair to become an object of great national importance, as furnishing the best, an(* P6:1" haps the only, substitute for oak timber. We mean the larch, which thrives well and grows rapidly in bad soils and exposed situations, the timber of which has been found to bePdurable, and, from several experiments, not inferior in strength, toughness, and elasticity to oak. So rapid is its growth, that the Duke of Atholl received twelve guineas for a single larch fifty years old; the timber was valued at two shillings a foot. A larch of seventy years growth pro¬ duces timber fit for all naval purposes and may be consi¬ dered as equal in size to an oak of double that age. e dimensions of a larch tree cut down at Blair Atholl in 1817, and then seventy-nine years of age, were as follows • viz. stem, eighty-two feet; top, twenty feet; total height, 102 feet; girth at the ground, twelve feet; at nineteen feet, eig feet three inches and a half: and at fifty-seven feet, fTjJWd ^ feet ten inches; solid contents, 252-8 cubic feet. Another * larch, growing at Dunkeld, measured, in the year 1819, ct when it was eighty years old, and m full vigour, as fo o , viz. height of stem seventy-five feet, top fourteen feet, total height ninety feet; at one foot from the ground seventeen feet eight inches in girth ; at ten feet, ten feet four inches; and at seventy feet, three feet two inches its contents, 300 cubic feet, or six loads. For all kinds of mill-work, as wheels, axle-trees, &c. the utility of the large larch wood is unquestionable ; and the thinnings are ex¬ cellent for pailing, rails, and hurdles. The value of its application for naval purposes has been put to the test o experiment; two frigates of twenty-eight guns, one built entirely of larch from the Duke of Atholl’s plantations, the other of Riga fir (which is inferior only to oak), having been intended to go through the same service, precisely in the same parts of the world, in order to ascertain their “KdiTonttrSources of naval ttaber at h„me, welMla. have wisely availed ourselves of those which India affords for building ships of war at Bombay, of teak, a wood far su¬ perior in every respect to oak, and many times more dura¬ ble ; not liable to corrode iron or other metallic fastenings, not susceptible of the dry rot, nor subject to the attack of the worm. i II. PERSONEL OF THE NAVY. The personel of the navy is composed of two different bodies of men, the seamen and the marines, each of whom have their appropriate officers. • . c n The commissioned officers of the former consist of flag- Comm.!, officers, captains, commanders, and lieutenants. Flag-o - ^ cers are divided into three ranks, and each rank into three squadrons, distinguished by the colours red, white, and blue ; as admiral of the red, white, or blue ; vice-admiral of the red, white, or blue ; rear-admiral of the red, white, or blue ; the admiral wearing his colour at the main, the vice-admiral at the fore, and the rear-admiral at the mizen- mast head. There is also an admiral of the fleet, who, it in command, would carry the union flag at the main. There are besides superannuated rear-admirals, enjoying the rank and pay of a rear-admiral, but incapable of rising to a higher rank on the list. There is also in the navy the temporary rank of commodore, who is generally an old captain, and is distinguished by wearing a broad pendant. He ranks next to the junior rear-admiral, and above all captains, except where the captain of the fleet shall be a captain, who, in that situation, takes rank next to the ju¬ nior rear-admiral. , The commissioned officers of the navy take rank with those of the army as follows. Navy. Army. Admiral of the fleet. Field-marshal. Admiral. General. Vice-admiral. Lieutenant-general. Rear-admiral. Major-general. Commodore. Brigadier-general. Captain of three years. Colonel. Captain under ditto. Lieutenant-colonel. Commander. Major. Lieutenant. Captain. And all officers of the same rank command according to the priority of their commissions, or, having commis¬ sions of the same date, according to the order in which they stand on the list of the officers of the navy, except in the case of lieutenants of flag-ships, who take precedence according as the flag-officer shall think fit to appoint them. The warrant-officers of the navy may be compared with NAVY. 51 Kty offi der of j motion rsonel. the non-commissioned officers of the army. They take rank as follows, viz. master, second master, gunner, boatswain, carpenter. There are other warrant-officers of the navy, who, though non-combatants, constitute a part of the esta¬ blishment of the larger classes of ships of war. These are, the chaplain, surgeon, surgeon’s assistant, purser; to which may be added, as part of the staff of a fleet or squadron, secretary to the admiral or commander-in-chief, and physician to the fleet. In steam-vessels, the engi¬ neers rank next after the warrant-officers. The petty officers are very numerous, the principal of whom are masters’ mates and midshipmen. Their names or ratings will be seen in the table of the establishment of the ratings and pay in the several classes of ships of war. By the king’s order in council, the following regulations are established for the promotion of commissioned officers of the navy. Midshipmen are required to serve six years on board some of his majesty’s ships, two of which years they must have been rated as midshipmen, to render them eligible to the rank and situation of lieutenant. No lieutenant can be promoted to the rank of comman¬ der until he has been on the list of lieutenants during two years ; and no commander to the rank of captain until he has been on the list for one year. Captains become ad¬ mirals in succession according to their seniority on the list, provided they shall have commanded four years in a rated ship during war, or six years during peace, or five years in war and peace combined. No person can be appointed to serve as master of one of his majesty’s ships who shall not have served as second master; and no person can be appointed as second master until he has passed such examination as may from time to time be directed. No person can be appointed gunner or boatswain unless he shall have served one year as a petty officer on board one or more of his majesty’s ships, and produce certificates of his good conduct, and undergo the necessary examina¬ tion. No person can be appointed carpenter unless he shall have served an apprenticeship to a shipwright, and been six months a carpenter’s mate on board one or more of his majesty’s ships. No person can be appointed purser, unless he shall have been rated and discharged the duties of a captain’s clerk for two complete years, one year as captain’s clerk, and been employed in the office of the secretary to a flag- officer for one other year, produce good certificates, and find such security for the honest and faithful discharge of his duty as shall be required. No person can be appointed chaplain to one of his ma¬ jesty’s ships until he has received priest’s orders ; but he may be appointed to act whilst in deacon’s orders. No person can be appointed surgeon to one of his ma¬ jesty’s ships until, by long and meritorious services, he has discharged the duties of assistant surgeon; and all persons applying for the situation of assistant surgeon must undergo an examination touching their qualifications before the physician general of the navy. The royal marines consist of four great divisions; the first stationed at Chatham, the second at Portsmouth, the third at Plymouth, and the fourth at Woolwich. They are composed of seventy-two companies, besides two com¬ panies of royal marine artillery, whose head-quarters are at Fort Monckton, Gosport. The first division has twenty- one companies ; the second, eighteen companies ; the third, twenty companies ; and the fourth, thirteen companies. The officers of royal marines take rank with the officers of the line in the army. A colonel commandant, who is a general officer in the corps, is resident in London ; and to each of the divisions is a colonel commandant, two lieutenant-colonels, and two ] yal r ?s. majors, with a proper number of captains and subaltern Personel. officers. Whilst on shore, the marines are subject to thev— same regulations as the army; but when embarked, they are liable to the naval articles of war. Each division has its paymaster, a captain in the corps; a barrackmaster, also a captain ; two adjutants, and a quar¬ termaster, who are first lieutenants; and to each division is a surgeon and an assistant surgeon. There is also a re¬ tired list of officers, who, in consideration of wounds, infir¬ mities, and long and meritorious services, are permitted to receive their full pay. The commissions of officers of every rank in the marine corps are signed by the sovereign ; but all commissions of officers of the navy are signed by two or more of the lords commissioners of the admiralty. But the marines, whether ashore or afloat, are, as well as the officers of the navy, under the immediate direction and control of the lords commis¬ sioners of the admiralty. All the appointments of com¬ missioned and warrant officers to ships are made ex¬ clusively by the lords of the admiralty, or made subject to their confirmation, unless in cases of the death or dis¬ missal of officers by sentence of court-martial on foreign stations, when the admiral commanding has the power to fill up the vacancies. And the duties of each rank are pointed out in a code of instructions emanating from that board, and sanctioned by the sovereign’s order in council. The civil powers and duties of the lord high admiral, Military or lords commissioners of the admiralty, are treated of,(luties °f under the article Admiral. Their military powers are^J0^ more extensive and important. By their orders all ships mfraj are built, repaired, fitted for sea, or laid up in ordinary, broken up, or sold ; put in commission or out of commis¬ sion, armed, stored, and provisioned ; and employed on the home or foreign stations. All appointments or removals of commission and warrant officers, with the exception of masters and surgeons, are made by them, and all instruc¬ tions issued for the guidance of their commanders; all promotion in the several ranks emanates from them; all honours bestowed for brilliant services, and all pensions, gratuities, and superannuations for wounds, infirmities, and long services, are granted on their recommendation. All returns from the fleet are sent to the board of admiralty, and every thing that relates to the discipline and good order of every ship. All orders for the payment of naval monies are issued by the lords commissioners of the admi¬ ralty ; and the annual estimate of the expenses of the navy is prepared by them, and laid before parliament for its sanction. All new inventions and experiments are tried by their orders before being introduced into the service ; all draughts of ships must be approved by them ; all repairs, alterations, and improvements in the dock-yards, and all new buildings of every description, must be submitted for their decision before they are undertaken. All flag-officers, commanders-in-chief, are considered asComman- responsible for the conduct of the fleet or squadron under der-in- their command. They are bound to keep them in perfect c^e** condition for service ; to exercise them frequently in form¬ ing orders of sailing and lines of battle, and in performing all such evolutions as may occur in the presence of an ene¬ my ; to direct the commanders of squadrons and divisions to inspect the state of each ship under their command, to see that the established rules for good order, discipline, and cleanliness, are observed, and occasionally to inquire into these and other matters themselves. They are re¬ quired to correspond with the secretary of the admiralty, and report to him all their proceedings, for the informa¬ tion of the board. If a commander-in-chief should be killed in battle, his flag is to be continued flying, and intelligence conveyed, by signal or otherwise, to the next in command, who is immediately to repair on board, leaving his own flag (if a 52 NAVY. Other flag officers. Personel. flag-officer) flying, and direct the operations of the fleet until the battle be ended, or the enemy out of sight. Every flag-officer serving in a fleet, but not commanding it, is required to superintend all the ships of the squadron or division placed under his orders ; to see that their crews are properly disciplined ; that all orders are punctually at¬ tended to; that the stores, provisions, and water, are kept as complete as circumstances will admit; that the seamen and marines are frequently exercised; and that every pre¬ caution is taken for preserving the health of their crews ; for all which he is responsible to the commander-in-chiet. When at sea, he is to take care that every ship in his di¬ vision preserve her station, in whatever line or order or sailing the fleet may be formed ; and in battle he is to ob¬ serve attentively the conduct of every ship near him, whether of the squadron or division under his immediate command or not; and at the end of the battle he is to re¬ port it to the commander-in-chief, in order that commen¬ dation or censure may be passed, as the case may appear to merit; and he is empowered to send an officer to super¬ sede any captain who may misbehave m battle, or whose ship is evidently avoiding the engagement. It any flag- officer be killed in battle, his flag is to be kept flying, and signals to be repeated, in the same manner as if he were still alive, until the battle shall be ended; but the death of a flag-officer, or his being rendered incapable of attend¬ ing to his duty, is to be conveyed as expeditiously as pos¬ sible to the commander-in-chief. Captain of The captain of the fleet is a temporary rank, where a the fleet, commander-in-chief has ten or more ships of the line un¬ der his command ; it may be compared with that ot adju¬ tant-general in the army. He may either be a flag-officer, or one of the senior captains; in the former case, he takes his rank with the flag-officers of the fleet; in the latter, he ranks next to the junior rear-admiral, and is entitled to the pay and compensation of a rear-admiral. All orfler® of the commander-in-chief are issued through him, and all returns of the fleet are made through him to the com- mander-in-chief. He is appointed and can be removed from his situation only by the lords commissioners ot the admiralty. , - ,. , A commodore is a temporary rank, and ot two kinds; the one having a captain under him in the same ship, and the other without a captain. The former has the rank, pay, and allowances of a rear-admiral, the latter such additional pay as the lords of the admiralty may direct. Ihey both carry distinguishing pendants. When a captain is appointed to command a ship ot war, he commissions the ship by hoisting his pendant; and it fresh out of the dock, and from the hands of the dock¬ yard officers, he proceeds immediately to prepare her for sea, by demanding her stores, provisions, guns, and ammu¬ nition, from the respective departments, according to her establishment. He enters such men as may volunteer and be fit for the service (in time of peace), or which may be sent to him from some rendezvous for raising men in time of war ; and he gives them the several ratings of petty officers, able seamen, ordinary, or landsmen, as their apparent qualifications may entitle them to. If he be ap¬ pointed to succeed the captain of a ship already in com¬ mission, he passes a receipt to the said captain for the ship s books, papers, and stores, and becomes responsible and accountable for the whole of the remaining stores and pro- visions ; and, to enable him to keep the ship’s accounts, he is allowed a clerk of his own appointing. The duty of the captain of a ship, with regard to the se¬ veral books and accounts, pay-books, entry, musters, dis¬ charges, &c. is regulated by various acts of parliament; but the state of the internal discipline, the order, legula- rity, cleanliness, and the health ot the crews, will depend mainly on himself and his officers. In all these respects, Commo¬ dore. Captain the general printed instructions for his guidance are par- Personel ticularly precise and minute. And, for the information of v-* the ship’s company, he is directed to cause the articles ot war, and abstracts of all acts of parliament for the encou¬ ragement of seamen, and all such orders and regulations for discipline as may be established, to be hung up in some public part of the ship, to which the men may at al times have access. He is also to direct that they be read to the ship’s company, all the officers being present, once at least in every month. He is not authorized to inflict any corporal punishment on any commissioned or warrant officer, but he may place them under arrest, and suspend any officer who shall misbehave, until an opportunity shall offer of trying such officer by a court-martial. He is en- joined to be very careful not to suffer the interior officers, or men, to be treated with cruelty or oppression by their superiors. He alone is to order punishment to be inflict¬ ed, which he is never to do without sufficient cause, nor ever with greater severity than the offence may really de¬ serve nor until twenty-four hours after the crime has been committed, which must be specified in the warrant order¬ ing the punishment; and all the officers and the whole ship a company are to be present at every punishment, which must be inserted in the log-book, and an abstract at the end of every quarter made out and sent to the admiralty ; a regulation which is said to have been attended with in¬ finite benefit to the strict and just discipline of the naval service. , , , . _. The lieutenants take the watch by turns, and are at Lieu- such times intrusted, in the absence of the captain, with tenant, the command of the ship. The one on duty is to infoim the captain of all occurrences which take place cluiing his watch, as strange sails that may be in sight, signals from other ships in company, change of wind, &c. He is to see that the ship be properly steered, the log hove, and the course and distance entered on the log-board ; and, in short, he is to see that the whole of the duties of the ship are carried on with the same punctuality as if the captain himself were present. In the absence of the captain the senior lieutenant is responsible for every thing done on b°arfl' „ , • — r The master receives his orders from the captain, or any Master, of the lieutenants. His more immediate duties are those of stowing the ship’s hold, and of attending to her sailing qualities; of receiving and placing the provisions in the ship, so as most conveniently to come at those which may be wanted. He is to take care that the cables are pro¬ perly coiled in the tiers. The keys of the spirit-room are in his custody, and he is directed to intrust them only to the master’s mates. He has the charge of the store-rooms of the warrant-officers, which he is ordered frequently to visit; in short, the whole of the ship’s provisions, water, fuel, and stores of every description, are under the super¬ intendence of the master; and he is also intrusted, under the command of the captain, with the charge of navigating the ship, bringing her to anchor, ascertaining the latitude and longitude of her place at sea, surveying harbours, and making such nautical remarks and observations as may be useful and interesting to navigation in general. The warrant-officers are charged with the duty of re¬ ceiving on board from the dock-yards, and examining, the various stores of their respective departments, and keeping an account of the expenditure of them. The gunner has the charge of the ship’s artillery, and of Gunner the powder magazine. He is to see that the locks and car¬ riages are kept in good order, and that the powder is pre¬ served from damp; he is frequently to examine the mus- quetry and small arms, and to see that they are kept clean and fit for service; and, in preparing for battle, it is his duty to take care that all the quarters are supplied with every thing necessary for the service of the guns, and, NAVY. 53 k iiswain. 'a enter. Nfcwiel. during the action, that there be no want of ammunition served out. He is frequently to exercise the men at the guns, and to see that they perform this part of their duty with correctness, explaining and enforcing the necessity of their pointing the guns before they fire them, spunging them well, and close-stopping the touch-hole immediately after firing. The armourer and his mates are under the immediate orders of the gunner, in every thing that relates to the great guns and small arms. The boatswain is charged with the duty of receiving and examining all the stores belonging to his department, consisting chiefly of the ropes and rigging, the latter of which he is ordered to inspect daily, in order that any part of it, chafed or likely to give way, may be repaired without loss of time. He is always required to be on deck at such times as all hands are employed; he is bound to see that the men, when called, move quickly upon deck, and when there, that they perform their duty with alacrity, and without noise or confusion. The sail-maker and the rope- maker are under his immediate orders; and he is directed to see that both these officers perform their respective duties with diligence and propriety. The carpenter, when appointed to a ship, is carefully to inspect the state of the masts and the yards, whether in the dock-yard or on board of the ship, to see that they are perfectly sound and in good order. He is to examine every part of the ship’s hull, magazine, store-rooms, and cabins. He is every day when at sea carefully to examine into the state of the masts and yards, and to report to the officer of the watch if any appear to be sprung, or in any way defective. He is to see that the ports are secure and properly lined, and that the pumps are kept in good order, as also the boats, ladders, and gratings. The caulker is placed under his immediate orders, and he is to see that the former performs his duty in a workmanlike manner, in stopping immediately any leaks that may be discovered in the sides or decks. The purser has the charge of all the ship’s provisions, and of the serving them out for the use of the crew. His charge is, therefore, of a most important nature ; and, ac¬ cordingly, he must not only produce good certificates of his conduct whilst serving in the capacity of clerk, but must also find two sureties for the due discharge of .his trust, who are required to give bond in a penal sum, according to the rate or class of ship to which he may be appointed. The regulations and instructions for his guidance are mi¬ nutely detailed in the general printed instructions, with all the various forms established for the keeping of his ac¬ counts with the comptroller of victualling, to whom he is immediately responsible. To assist him in the perform¬ ance of his arduous duties, he is allowed to employ the clerk, who, being engaged by the captain, who is respon¬ sible for the strict performance of the duties of all the officers under his orders, is, as it were, a check on the purser in many parts of his duty, regarding the slop-books, muster-books, &c. He has also a steward under his im¬ mediate orders. The duties of the physician to the fleet, the surgeon of a ship and his assistants, the secretary to the commander- in-chief, and the chaplain, are too obvious to require any specification. The midshipmen are considered as the principal petty officers, but have no specific duties assigned to them. In the smaller vessels, some of the senior ones are intrusted with the watch ; they attend parties of men sent on shore ; pass the word of command on board, and see that the or¬ ders of their superiors are carried into effect; and, in short, are exercised in all the duties of their profession, so as, after six years’ service, to qualify them to become lieuten¬ ants. Krines. Every ship, according to her class, has a certain num- Pt PI M ship. m {. ber of marines serving on board as part of her complement. Personel. They are commanded by a captain, or brevet-major, in from v'—■—y— first to fourth rates inclusive, with three or two subalterns under them, and an established number of non-commis¬ sioned officers ; but the party on board fifth rates, and un¬ der, is commanded by a subaltern, and in small vessels by a sergeant or corporal. All marine-officers, of whatsoever rank, when embarked, are to obey the orders of the captain, or the commanding officer of the watch. The marines are exercised by their officers in the use of their arms ; they are employed as sen¬ tinels, and in all other duties on board of which they are capable, with the exception of going aloft. The officer commanding has the charge of the arms, accoutrements, and drums ; and he is to inspect weekly, at least, the state of the clothing of his party. The marines are in every respect treated in the same manner as the rest of the ship’s company. The long continuance of the revolutionary war neces- Number of sarily created a prodigious increase of the commissioned cp111111*3- oflicers of the navy. Their numbers, in the five follow-sioneti r ^ cers. ing years ot peace, were, Admirals Vice-admirals.. Rear-admirals. Captains Commanders... Lieutenants 1793. II 19 19 444 160 1408 1803. 45 36 51 666 410 2461 1815. 70 73 77 824 762 3211 1821. 63 59 68 828 776 3797 1836. 43 59 63 755 823 2976 The warrant-officers have increased in each class, from the average of about 400 in 1793, to 700 in 1821. The number of seamen and marines voted in 1792 was 16,000 (but never reduced to that number); in 1822, it was 21,000 ; and in 1836, 32,000. The greatest number of seamen and marines voted in any one year during the war was 150,000. The crew of a ship of war consists of able seamen, ordi- Ship’s nary seamen, landsmen, boys, and marines. The lands-company, men, boys, and marines, are always entered voluntarily, the latter in the same manner as soldiers, by enlisting into the corps, the two former at some rendezvous, or on board particular ships. A supply of boys for the navy is also re¬ gularly sent from the Asylum at Greenwich and the Ma¬ rine Society. Able and ordinary seamen also very com¬ monly volunteer to serve during the war, and always in time of peace ; but the high wages given by the merchant ships to seamen in time of war hold out such encourage¬ ment as to induce them to give the preference to that ser¬ vice, though, in all other respects, their treatment is far superior on board a king’s ship, having better provisions, and being subject to much less fatigue and exposure to the weather. Indeed, the excellent regulations now rigidly ad¬ hered to on board his majesty’s ships, and the attention that is paid to the health and comfort of the crew, have over¬ come much of that reluctance which formerly was felt to the service of a ship of war. The state of health on board of a king’s ship is, general- Health of ly speaking, not exceeded in the most favoured spot on the crew- shore ; and that horrible disease, the sea-scurvy, may now be considered as unknown in the British navy, since the universal introduction of lemon juice, or the citric acid, without an ample supply of which no ship is permitted to sail on a foreign voyage. Sir Gilbert Blane, in a sensible little tract on the Health of the Navy, says that he has never seen the scurvy resist the citric acid; and that, in the perusal of several hundreds of surgeons’ journals, he has met with only two cases which seemed to resist it. 54 NAVY. Personel. Yet, though it appears to have been known as a remedy 'for the scurvy, far superior to all others, two hundred years ago, it seems to have lain dormant and utterly neglected, till Dr Lind, more than a hundred years afterwards, re¬ vived and stated clearly the singular powers of this remedy. In 1600, Commodore Lancaster sailed from England, with three other ships, on the 2d of April, and arrived in Sal- danha Bay on the 1st of August. The commodore’s crew having each had three table-spoonfuls of lemon juice every morning, arrived there in perfect health ; whereas the other ships were so sickly, that they were unmanageable for want of hands. We have all felt the commiseration and horror which the perusal of the narrative of Anson’s Voy¬ age produces. His ship, the Centurion, left England with 400 men, of whom 200 were surviving on his arrival at Juan Fernandez, and of these, eight only were capable of duty, from scurvy. Yet even this horrible catastrophe seems to have failed in rousing the nation to have recourse to a remedy so certain and efficacious. Cook was well supplied with vinegar and other acids, and found the good effects of them ; but the first general supply of lemon juice to the navy was established only in the year D95, in con¬ sequence of a trial which had been made of it the preceding year in the Suffolk, of seventy-four guns. This ship left England, and arrived at Madras in September, without touching at any land. With every man’s grog there were daily mixed two thirds of a liquid ounce of lemon juice, and two ounces of sugar. She lost not a man ; and though the disease made its appearance in a few, an increased dose of lemon juice immediately removed it. Thus the Suffolk, after a voyage of 162 days, arrived without losing a man, or having a man sick of the scurvy; whereas the Centu¬ rion, in 143 days from the last place of her refreshment, lost half of her crew, whilst the other half were so feeble and emaciated as to be utterly helpless. Nothing could more strongly point out the efficacy of lemon juice than the following fact. When Loid St Vin¬ cent commanded the fleet which blockaded Brest from the 27th of May to the 26th of September 1800, he maintained so close a blockade, that not a single day passed without re¬ connoitring the entrance of the harbour ; yet, although the seamen of his fleet, consisting of at least 16,000 men, had no other than the ordinary ship’s provisions, sixteen only, in the course of four months, were sent to the hospital. In 1780 the Channel fleet, as appears from Dr Lind, were so overrun with scurvy and fever as to be unable to keep the sea after a cruise of ten weeks only. From the official returns collected by Sir Gilbert Blane, M. Dupin, a French author well versed in naval subjects, has drawn out the following table, which exhibits at one view the progressive diminution of sickness, death, and desertion, in the British navy, calculated on 100,000 men. Progres¬ sive dimi¬ nution of sickness. Years. 1779 1782 1794 1804 1813 Sick sent to Hospital. 40,815 31,617 25,027 11,978 9,336 Deaths. 2654 2222 1164 1606 698 Desertions. 1424 993 662 214 10 Hence it would appear, that the diminution of sickness and of deaths has been in the proportion of four to one nearly between the years 1779 and 1813. The diminu¬ tion of desertions from the hospital in the same period is not the less remarkable ; and it affords, at the same time, the strongest proof of the progressive amelioration of the condition of seamen on board British ships of war. In¬ deed, whether on board of ship, or in any of those noble in¬ stitutions, the naval hospitals, which ate established at all the principal ports at home, and in the colonies abroad, Personel the attention which is paid to the sick sailor is above all " praise. The seamen are sensible of this, and nothing keeps them back from volunteering their services, and giving a preference to a king’s ship over a merchantman, but the temptation of high wages offered by the latter in time of war, and that love of liberty and free scope for roving which are characteristic of seamen. The speedy manning of the fleet, on the first breaking IMannint out of the war, is one of the most important objects that the fleet, can devolve on the naval administration, as on it alone must depend the safety of our commerce and our colonies. This has been felt at all times; and, accordingly, a variety of schemes have been brought forward for this purpose, but all of them have failed of success, except the compulsory mode of raising men under the authority of press-warrants, issued by the lords commissioners of the admiralty, by virtue of the king’s order in council, renewed from year to year. There likewise issues, on the breaking out of a war, a proclamation from the king, recalling all British seamen out of the service of foreign princes or states; and the instructions to the commanders of all ships of war di¬ rect them to search foreign vessels, and to take Biitish seamen out of them. The impressment of seafaring men, however anomalous Impress under a free constitution like that of Great Britain, is de-ment. fensible on state necessity, until it can be shown that the fleet, on an emergency, is capable of being manned with¬ out resorting to that measure. In consequence of some doubts being raised on the legality of the subject in the year 1676, when the affairs of the admiralty were managed immediately under the direction of the king and the great officers of state, a discussion was held on this point, when it was decided by the judges and crown-lawyers, that the king had an indefeasible right to the services of his sub jects when the state required them, and that the power of impressing seamen was indispensably inherent in theciown, without which the trade and safety of the nation could not be secured. The first instance of impressing men in Ire¬ land seems to have been in the year 16/8, v/hen the lord- lieutenant received directions from the privy council to raise a thousand seamen for the fleet. In 1690, the lords- justices of Ireland were directed to assist the officers of the navy in impressing men in that kingdom, In 169/, a re¬ gister was taken of all the seafaring men in Ireland, which amounted to 4424 men, of whom it is noted 2654 were Catholics. On several occasions, during Queen Anne’s reign, the lords-justices of Ireland received directions to raise men to serve in the fleet. In Scotland, the mode of raising men by impressment was unknown before the union ; but in various instances the council of Scotland was directed to raise volunteers for the fleet, each man to have forty shillings as bounty. In 1706, an experiment was tried for the speedy man¬ ning of the fleet, by virtue of an act of parliament, which required the civil magistrates of all the counties to make diligent search for all seafaring men, and twenty shillings were allowed to the constables for each man taken up; the seamen to have pay from the day of delivery to the naval officers stationed to receive them; and if they deserted after that, they were to be considered as guilty of felony. By the same act, insolvent debtors, fit for the service, and willing to enter it, were released, provided the debt did not exceed L.30 ; and no seaman in the fleet was to be arrested for any debt not exceeding L.20. The whole pro¬ ceeding under this act incurred a very heavy expense, and totally failed. In the same year, the queen referred to the Frince of Denmark, then lord high admiral, an address from the House of Lords, relating to the three following points Itf, The most effectual means for manning the fleet; 2d, NAVY. 55 P ionel. the encouragement and increase of the number of seamen; v—the restoring and preserving the discipline of the navy. His royal highness submitted these points to such of the flag-officers and other commanders as could be assembled, who made a report, of which the substance was to the fol¬ lowing effect:—1st, To cause a general register to be kept of all seafaring men in England and Ireland, for which they presented the draft of a bill; 2d, that all marines qualified to act as seamen should be discharged from the army, the officers to have levy money and the men’s cloth¬ ing returned; 3d, that not fewer than 20,000 seamen should be kept in employ in time of peace. But they observe, that as to the restoring and preserving the discipline of the navy, no particular instance being laid before them wherein it was defective, they could give no opinion on that head, tillistry of This registry of seafaring men has been tried more than e:|ien. once; but as the men themselves had no interest whatever in the measure, it always failed in producing the desired effect. It is now under trial by act of parliament, with great inducements for men to register and enter the naval D C service. In fact, there are now so many exemptions from the impress, that its severity is greatly abated. The following descriptions of persons are protected by various acts of par¬ liament : Masters of merchant ships or vessels. First mates of such as are fifty tons or upwards. Boatswains and carpenters of such as are of 100 tons or upwards. Men belonging to vessels and craft of all kinds in the employment of navy, victualling, ordnance, customs, excise, and post offices. Watermen belonging to the insurance offices within the cities of London and Westminster. All men of the age of fifty-five years and upwards. All youths not having attained the age of eighteen. All foreigners. Apprentices not having used the sea before the date of their indentures, and not more than three years from the said date. Landsmen not having served at sea full two years. Masters, apprentices, one seaman, and one landsman, of all fishing vessels on the sea coast or on navigable rivers. Harpooners, line-managers, and boat-steerers of the Greenland fishery and the southern whale fishery; and all seamen and common mariners who have entered for the said fisheries. And no person whatsoever can be impressed, except by an officer who has been intrusted with a press-warrant, ipline. The discipline of the navy, or the government of his majesty’s ships, vessels, and forces by sea, is regulated by the act of 22 Geo. II., usually known by the name of the articles of war. By this act, the lords commissioners of the admiralty are empowered to order courts-martial for all offences mentioned therein, and committed by any per¬ son in and belonging to the fleet and in full pay ; and also to delegate the same power to admirals commanding in chief on foreign stations, which power also may devolve on his successor in case of death or recall, provided that no commander-in-chief of any fleet or squadron, or detach¬ ment thereof, consisting of more than five ships, shall pre¬ side at any court-martial in foreign parts, the officer next in command being ordered to preside thereat, rts. By this act, no court-martial can consist of more than 1 tia • thirteen or of less than five persons, to be composed of such flag-officers, captains, or commanders, then and there present, as are next in seniority to the officer who presides at the court-martial. And when there are but three offi¬ cers of the rank of captains, the president is to call in as many commanders under that rank as will make up five in the whole. This code of laws for the government of the fleet con- Personel. sists of thirty-six articles, of which nine award the punish- ment of death, and eleven death or such other punishmentArtic es ot as the court-martial shall deem the offence to deserve. Those which incur the former penalty are, the holding il¬ legal correspondence with an enemy ; cowardice or neglect of duty in time of action ; not pursuing the enemy ; deser¬ tion to the enemy; making mutinous assemblies; striking a superior officer; burning magazines, vessels, &c. not belong¬ ing to an enemy; murder; sodomy. The penalty of death for cowardice, or other neglect of duty, in time of action (art. 12), and of not pursuing the enemy (art. 13), was, by the 19th George III. so far mitigated, as to authorize the court-martial “ to pronounce sentence of death, or to in¬ flict such other punishment as the nature and degree of the offence shall be found to deserve.” Under these ar¬ ticles thus mitigated, Admiral Byng would probably not have been condemned to death. The other eleven articles, which leave the punishment to the discretion of the court, are, not preparing for fight, and encouraging the men in time of action; suppression of any letter or message sent from an enemy ; spies delivering letters, &c. from an enemy ; relieving an enemy ; disobedience of orders in time of action ; discouraging the men on various pre¬ tences ; not taking care of and defending ships under con¬ voy ; quarrelling with and disobeying a superior officer in the execution of his office ; wilfully neglecting the steer¬ ing of ships ; sleeping on watch, and forsaking his station; robbery. The i-emaining sixteen articles incur the penalty of dismission from the service, or from the ship, degradation of rank, or such other punishment as the court may judge the nature and degree of the offence to deserve. Much, however, of the internal discipline of a ship ofPetty pu- war depends upon the captain, who, being empowered tonishment- punish the men for minor offences, according to the usage of the service, courts-martial on seamen are rarely found necessary to be resorted to in well-regulated ships. The principal circumstance which usually militates against the perfect good order of the crew, is the great allowance of grog served out daily to the men, as established by the king’s order in council, and which frequently leads to drun¬ kenness, and this again to insubordination. Perhaps half the punishments in the navy are for this offence, which it requires the utmost vigilance and precautions on the part of the officers to prevent. In other respects the discipline of a well-organized ship Effects of of war is perfect; and to this discipline M. Dupin, a French discipline, writer of great sagacity, mainly ascribes the brilliant suc¬ cesses of the British navy, and to the want of it the ruin of that of France. “ We have already cited,” says he, “ as a model, the management of the materiel of the Eng¬ lish ships. In the preservation of this materiel, in the stowing it away, in the arrangement of whatever may be necessary either for manoeuvres or for action, the most perfect regularity is observed. At the same time, what becoming austerity is maintained by the commanding of¬ ficer ; what obedience amongst the subalterns; and, in a space so limited, considering the number of men on board, and the multiplicity of movements they have to make in obeying so many different orders, what imposing silence. It is the calmness of strength, the presiding influence of wisdom. In the midst of the most complicated operations, and even in the heat and transport of battle, one hears only the words of command, pronounced and repeated from rank to rank, with a measured tone and perfect sang froid. No unseasonable advices, no murmurs, no tumult.. The commanders meditate in silence ; the word is given, and the men act without either speaking or thinking.” This is remarkably so in the day of battle. Every of¬ ficer and man knows precisely his place, and the duty he has to perform, on that day. By the general printed in- 56 N A V Y. Naval tac¬ tics. Personel. structions, the captains of his majesty s ships are requited ‘ to accustom the men to assemble at their proper quarters, to exercise them at the great guns, to teach them to point, fire, &c. under all circumstances of sea and weather. In¬ deed, it is well known, that the preservation of the high character of the British navy essentially depends on the proper training of the seamen to the expert management of the guns, so as to be duly prepared in the day of battle ; the issue of which so mainly depends on the cool, steady, and regular manner in which the ship s ordnance is load¬ ed, pointed, and fired. Practice in these respects is much more necessary on board ships than on shore, as it can never happen that the ship is entirely steady, and has most frequently a rolling or pitching motion, for which al¬ lowances must be made, and which can only be made with effect by long practice. If the management of the great guns of a ship of war is more difficult than the artillery of a fort, so likewise are naval tactics more difficult than those of an army ; inas¬ much as there is more difficulty and less dependence in placing and directing the movements of an inanimate than an animate machine. The general principles are the same , the object of both being that of bringing the greatest pos¬ sible force to bear on that point which is likely to produce the greatest possible injury to the enemy. With this view, as well as to keep a fleet together in compact order, so that straggling ships may not be cut oft by the enemy, it has been ftmnd necessary to preserve a certain order of sailing, whether out of sight of an enemy or in his pre¬ sence ; and such an order as, according to the state of the wind and weather, and the point of bearing of the enemy s fleet, may most conveniently and expeditiously be changed into such a line of battle as the commander-in-chief may deem it most expedient to adopt in the attack to be made on his opponent. . In order to do this, it is obvious that every individual captain must be able to know, under all circumstances, what the ship he commands will be able to do, in order to preserve her station in the fleet; for it is with ships as with horses, no two perhaps performing the same evolu¬ tion with the same tightness of rein, or the same quantity of sail. This shows the absolute necessity of a com- mander-in-chief frequently exercising his fleet in naval tactics, and to observe how such and such a ship will be¬ have under a certain quantity of canvass, and to assign her station in the line where she may appear calculated to act with the greatest efficiency. To facilitate these movements, the admirals command¬ ing squadrons are considered as responsible for the move¬ ment of the ships in their respective divisions. They are to see that each captain strictly obeys the general order; and if any one is perceived to neglect his duty, whether belonging to his proper division or not, if in action, he has the power to send immediately another officer to suspend him. And in order that no confusion may arise, if, in time of battle, the admiral commanding in chief, or any of the admirals commanding squadrons, should be killed, his or their flags remain flying till the battle is decided. If the commander-in-chief be killed or severely wounded, a private signal is made to the second in command; or if a junior admiral be killed or wounded, the commander-in¬ chief is also acquainted by signal. Code of na- This silent method of communicating what is going on val signals. is the perfection of naval tactics; indeed it is very difficult to conceive how our ancestors contrived to manage a fleet without a code of signals. For great and important oc¬ casions, the exhibition of a flag or flags, in some particu¬ lar part of the ship, might be generally understood to im¬ ply that the fleet should anchor, or tack, or form the or¬ der of sailing in two lines, or the line of battle, or some other great movement. The hoisting of a cask at the yard-arm might be understood to imply a want of water ; Person^ or a hatchet, of wood ; or an empty bag, of bread ; and's-— the table-cloth was a very significant invitation to dinner ; but they had no means of interchanging freely their wants or intentions, or of conveying detailed intelligence. Even so late as the American war, there was no established code of signals in the navy. An anecdote is told of Ad¬ miral Geary, who, in the year 1780, commanded the Chan¬ nel fleet, which clearly proves how little was then known or practised in the way of signals. His captain, Kempen- felt, had laboured long to improve the defective system ; and having one day seen the enemy s fleet, he endeavoured to communicate the intelligence by the new code; but in the hurry of making sail and giving chase, the signals somehow or other were not understood by the rest of the fleet. Geary at last became impatient, and, running up to Kempenfelt, seized him by the hand, and exclaimed with great emphasis, “ Now, my dear Kempy, do, for God’s sake, throw your signals overboard, and make the old one, which we all understand,—‘ to bring the enemy to close action.’” “ If an admiral,” says Dr Beatson in his able Memoirs, “ cannot command all the necessary movements of his ships by signal in the day of battle, he is not upon a foot¬ ing with an enemy who possesses that advantage; and, even with better ships and better men, and more ex¬ perienced commanders, he may be foiled in his expecta¬ tions of victory, if not defeated, from his want of the means to direct and to perform the necessary evolutions of his fleet.” “ In no fight,” he adds, “ was the insufficiency of the present system of naval signals more conspicuous than in this (Keppel’s unfortunate action) ; and it is to be hoped that if ever a new code be adopted for the use of the royal navy, it may be so clear and comprehensive, that such fa¬ tal errors as those which have been pointed out will in future be prevented.” This, we may now say, has been ac¬ complished. The idea of numbering the flags, and of assigning a cer¬ tain number of corresponding sentences to certain combi¬ nations of these numbers, was reduced to something ap¬ proaching a regular system in the fleet under the com¬ mand of Lord Howe”; and in the year 1798 a new signal- book was issued from the admiralty, containing about 400 sentences, expressive of certain operations of a fleet, com¬ municated by means of flags to which the numerical cha¬ racters were applied; and these, as far as they went, an¬ swered very well, but did not supersede the necessity of conveying orders by boats on many occasions. The fol¬ lowing year Sir Home Popham suggested the idea of mak¬ ing the flags to represent the letters of the alphabet in combination with numbers, which not only added immense¬ ly to the means of communication, but also of making use of words by signal. From this time improvements in the modes of communicating by signals and telegraphs were rapidly introduced, particularly in the shape and the co¬ lours of the flags, according to a plan of Sir Home Pop- ham, which has rendered signals by flags as nearly perfect as they probably ever will be. There is, however, an imperfection in the flags them¬ selves ; as in calm weather, when they do not fly out, nei¬ ther their shape nor colour is visible without the use of stretchers, which are not always easily managed, and never without loss of time. Again, if the wind be parallel to the line of vision, the flag shows only its edge, and neither shape nor colour can be discerned. To remedy these in¬ conveniences, Sir Home Popham proposed a portable wooden semaphore, in imitation of the French telegraph, to be mounted on the quarter-deck or poop of a ship. It consists of two posts, each having a moveable arm, Sea-tele which may be placed in four positions that can never be graph- mistaken, being at right angles to each other; and the NAVY. 57 pro ve¬ il : it in •sonel. number annexed to each position is that which it conveys ' to the person receiving the message. The encouragement afforded by government to every branch of science connected with the navy, and naviga- ji igation. j.jon jn general, has been carried much farther by England than by any other European nation, and has produced the happiest results for commercial enterprise, by determin¬ ing with accuracy the precise position of ships, by short¬ ening long voyages, and by the discovery of new lands and unexplored regions. From the commencement of the eighteenth century, when a national reward was first of¬ fered to the man of science, or the artist, who should dis¬ cover a method sufficiently exact to determine the longi¬ tude of a ship’s place at sea, to the present time, the im¬ provements in the construction and division of all kinds of instruments for measuring angles, in the calculations of lunar and other tables, and, above all, in the manufacture and adjustments of chronometers, have continued in gra¬ dual progression, and may now be considered as having arrived at such a degree of perfection, more especially the chronometers, that the discovery of the longitude can scarcely be said to remain a desideratum. We may form an idea what the progress in the improvement of chrono¬ meters has been, when a public reward was offered by parliament in the year 1814, to the first who should de¬ termine the longitude at sea within a degree ; and in 1820, three chronometers, after remaining in the arctic regions for eighteen months, returned to England without alter¬ ing their rates more than a few seconds of time. ] :rease of The officers of the royal navy are much more generally i2nce in versed in the sciences oflate years than they were hereto- : navy. fore> Jn fact, it is now necessary for a young man to be well acquainted with a certain portion of mathematical and as- lersonel. tronomical knowledge, to enable him to pass an examina- ^ v tion, without which he cannot be qualified for the commis¬ sion of a lieutenant. The examinations also of the seve¬ ral warrant-officers, and their qualifications for their respec¬ tive stations, are more strictly attended to than hereto¬ fore ; and the consequence is, that a much better system of discipline without rigour is established throughout the fleet, and more comfort in every respect to every class of officers and men employed. The encouragement given to the navy from its first re- Pay and gular establishment has marked it as a favourite service emolu- in the minds of the public. The sea-pay, the half-pay,ments* and other emoluments, have generally been superior to those enjoyed by the army, but subject to great fluctua¬ tions in every reign, and to frequent changes in the same reign. Thus King William, in 1693, gave to an admiral L.4 a day, a vice-admiral L.3, and a rear-admiral L.2, which, with the compensation for servants, amounted to more than their present pay; yet their allowances were still further increased in 1700, till a reduction took place in consequence of an address from the Commons. From this time till the year 1806 very little alteration took place, when a small addition was made to the pay of each class. The following table will exhibit, at one view, the com¬ plete war-establishment of commissioned, warrant, petty, and non-commissioned officers, seamen, and marines, on board every class of his majesty’s ships, with the rate of pay granted to each, and the classes into which they are divided for the distribution of prize-money or seizures; as established by his majesty’s order in council of the 25th November 1816. FLAG PAY. Admiral of the fleet L.6 Admiral 5 Vice-admiral 4< liear-admiral, or commodore with captain under him } Captain of the fleet / In flag-ships all the lieutenants, including one extra as flag-lieutenant, are allowed 6d. per diem in addition to their pay. 3 0 •1 Sea-pay per diem, besides which every commander-in-chief receives a fur¬ ther sum of L.3 per diem whilst his flag may be flying within the limits of his station. Classes for Distribution of Seizures. II. III. IV. VII. Physician to the fleet, of less than three years’ service as such L.l 1 0 per diem. Physician to the fleet, of more than three and less than ten years’ service 1 11 6 do. Physician to the fleet, of more than ten years’ service 2 2 0 do. Master of the fleet 15 7 Q per mensem. Secretary to the admiral of the fleet 38 7 0 Secretary to an admiral commander-in-chief. 30 13 8 Secretary to a vice or rear admiral commander-in-chief. 23 0 4 Secretary to a junior flag-officer or commodore * 11 10 0 Two clerks to secretaries of commanders-in-chief, each 4 12 0 One clerk to secretaries of junior flag-officers or commodores 3 16 8 Admiral’s coxwain 2 9 0 Steward ") Cook * I* 112 0 Domestics 1 do. do. do. do. do. do. do. do. The numbers of these ratings to be" ' Admiral of the fleet 12 Admiral 10 Vice-admiral • 7 Rear-admiral, or commodore with captain under him 5 . Captain of the fleet 3 VOL. XVI. H 58 NAVY. Classes for Dis¬ tribu¬ tion of Seizures in Ships and Sloops IIM RANKS AND RATINGS IV.. V. Captain 1st Lieut, if of 7 years standing I All others J Master 2d Master Chaplain Purser Surgeon (for pay see note at the end of this table) Gunner Boatswain Carpenter (with 7s. per month addi tional for tools in every rate) Master’s mate, if passed Master’s mate, not passed Midshipman, if passed Midshipman, not passed Assistant surgeon (for pay see note) Clerk Schoolmaster Master at arms Armourer Caulker Ropemaker Sailmaker.. Carpenter’s mate (with 7s. per month additional for tools in every rate).. Gunner’s mate Boatswain’s mate Ship’s corporal Quartermaster Captain’s coxswain Coxswain of the launch Coxswain of the pinnace Yeoman of the signals Captain of the hold Captain of the forecastle Cooper Armourer’s mate Caulker’s mate Sailmaker’s mate Captain of the foretop Captain of the maintop Captain of the afterguard Captain of the mast Ship’s cook NAVY. 59 5th Hate. Pay per Month. L. s. d. 30 13 8 0 0 6th Rate. Sloops. 100 Men&upwards. Under 100 Men, 9 4 9 4 4 12 0 12 5 4 4 4 4 4 19 8 j 3 9 0 { i 2 13 8 j f 3 1 4 * \ 1 18 41 3 9 0 2 2 0 > 1 17 0 - 1 17 0 ^ 1 15 0 2 11 6 Pay per Month. Sa d* 26 17 0 9 4 0 8 8 0 4 12 0 12 5 4 3 16 8 4 12 0 Pay per Month. / 3 2 13 9 01 3 8 j J 3 1 41 ( 1 18 4 j 3 9 0 2 0 0 1 15 0 1 15 0 ► 1 14 0 2 10 6 23 0 9 4 7 13 3 16 8 4 12 0 1? 9 13 1 18 1 19 0 > 1 15 0 1 15 0 1 14 2 10 Pay per Month. L* s» d» 23 0 4 9 4 0 7 13 4 3 16 8 I 4 12 0 J 3 9 01 i 2 13 8j 13 141 \ 1 18 4/ 3 9 0 1 19 0 !> 1 15 0 Bombs. 1 15 0 r J4 0 2 10 6 Pay per Month. L. s. d. 23 0 4 9 4 0 7 13 4 3 16 8 4 12 0 3 9 01 2 13 8 / {Ul 3 9 0 - 1 19 0 1 15 0 1 15 0 ^ 1 14 0 2 10 6 Gun Brigs. Pay per Month. L. s. d. 11 10 0 7 13 4 r 3 9 0( 1 2 13 8j f 3 1 4 1 | 1 18 4/ 3 9 0 ^ 1 19 0 1 15 0 1 15 0 2 10 6 Schooners & Cutters, Pay per Month. L. s. d. 11 10 0 7 13 4 1 15 0 2 10 6 Classes for Dis¬ tribu¬ tion of Seizures in Brigs, Schoon¬ ers, and Cutters. J 3 9 0 l 2 13 8 / 3 1 4 l 1 18 4 3 9 0 1 19 0 1 15 0 I. II. III. MV. V. 60 NAVY. Classes for Dis¬ tribu¬ tion of Seizures in Ships and Sloops. 1st Rate. VI. HANKS AND RATINGS. No. Pay per Month. VII. Volunteer, 1st class Gunner’s crew Carpenter’s crew (with 7s. per month additional for tools in every rate)... Sailmaker’s crew Cooper’s crew Able seaman Gunner’s yeoman Boatswain’s yeoman Carpenter’s yeoman Ordinary seaman Cook’s mate Barber Purser’s steward (in vessels in which a purser is allowed) Captain’s steward Captain’s cook Ward or gun-room steward Ward or gun-room cook Steward’s mate Landman L. 1 d. 0 1 14 0 2d Rate. 3d Rate. No. 7 22 16 2 2 Pay per Month. L. 1 ► 1 14 0 No. 6 20 14 2 2 Pay per Month. L. 1 J 1 14 0 4th Rate. No. Pay per Month. 4 IB 12 2 2 L. 1 k 1 14 0 -L.l. 12s. in all Rates. L.l. 4s. in all Rates. > L.l. 12s. in all Rates. L.l. Is. in all Rates. VIII. Boy, 2d class... Ditto, 3d class. Widow’s men... Total.'. 207 0 12 3 0 10 9 1 12 0 12 17 7 188 0 12 3 0 10 9 1 12 0 10 16 6 166 0 12 3 0 10 9 1 12 0 7 11 5 126 The numbers included in these ratings are, in 0 12 3 0 10 9 1 12 0 NAVY. 61 Sloops. Under 100 Men. No. 1st Class ^33 1st Rates 2d Class j.. 483 I 3d Class 433 J 1st Class 362 (2d Class.* 312 list Class 359 (2d Class 309 J 1st Class 264 { 2d Class i»«.... 164 / 1st Class 144 l 2d Class 124 (1st Class 63 -I 2d Class 33 v3d Class 13 '1st Class 50 2d Class 40 3d Class 36 2d Rates, 3d Rates.. 4th Rates. 5th Rates. 6th Rates. Sloops, Brigs, &c. 0 12 3 0 10 9 1 12 0 87 4thCla6s. 5th Class. .£ 13 12 10 12 65 16 30 20 J 0 12 0 10 1 12 900 850 800 700 650 650 600 450 350 300 280 175 145 125 135 125 95 75 60 50 Pa} per Month. 1 0 1 14 0 Bombs. No. Pay per Month. L. d. 1 14 0 Gun Brigs. I Schooners & Cutters. No. Pay per Month. No. L. 1 14 0 Pay per Month. Classes for Dis¬ tribu¬ tion of Seizures in Brigs Schoon¬ ers, and Cutters. L. s. d. 1 14 0 J>vi. 47 0 12 0 10 1 12 34 12 10 12 18 12 10 18 0 12 S 0 10 9 ^VII. VIII 62 NAVY. Personel. Classes for Dis¬ tribu¬ tion of Seizures in Ships and Sloops. II. III. IV. V. VI. RANKS AND RATINGS. Number in each Rate. Fd P3 MARINES. Captain ( Ditto if brevet-major / 1st Lieutenant. Ditto after 7 years 1 Ditto under 7 years /- 2d Lieutenant ) Serjeant 1 Ditto if colour serjeant... J Corporal. Ditto after 14 years Ditto from 7 to 14 years Ditto under 7 years ears..^ Drummer. P3 Bombardier. Ditto after 14 years ) Ditto from 7 to 14 years.. /- Ditto under 7 years ) Private or gunner. Ditto after 14 years 'I Ditto from 7 to 14 years >- Ditto under 7 years ) 146 Total marines... 160 ■ , (/> ® £ O P -I o. 3 -2 § tZ2 C 2® o O" 138 150 114 1 1 125 53 44 60 50 21 25 o 3 20 Pay of Marines in all Rates. 1 1 17 20 10 12 10 14 14 14 10 17 10 10 10 10 9 2 7 7 Pay of Marine Artillery. 15 8 0 18 4 0 10 19 4 9 11 4 7 16 4 , f 1 18 1 2 16 9 1 \ 2 12 1 3 10 9 10 12 10 12 1 10 1 7 1 5 1 1 4 { 1 1 0 19 0 17 2 14 0 2 118 2 9 4 l 4 5 5 2 9 6 2 7 2 2 4 10 1 9 1 1 6 9 14 5 Personel, Note.—To this table it may be added, that captains who, on the death or f f f ,a ** authorized to hoist a distinguishing pendant, are entitled to receive the pay o . p y as captains, while the pendant is flying within the limits of the station. Surgeons of Ships in Active Service. Under 6 years service, After 6 ditto — 10 ditto — 20 ditto 10s. a day. 11s. do. , 14s. do. ,18s. do. Surgeons in Receiving-Ships, Prison-Ships, Sfc. In harbour-duty .... Surgeons of hospital-ships Assistant-surgeons 10s. a day. 15s. do. 6s. 6d. do. Establish¬ ment of half-pay. Though the navy, as we have seen, was put upon a re¬ gular establishment under the reign of Henry VIII., nei¬ ther officers nor seamen received any pay or emolument in time of peace, until the reign of Charles II., when, in 1668, certain allowances were made to flag-officers and their captains out of the L.200,000 a year voted for the whole naval service; and in 1674, certain other allowances were granted, by order in council, to captains who had commanded ships of the first and second rate, and to the second captains to flag-officers, on the ground, as assigned in the preamble, that they had undergone the brunt ot the war, without sharing in the incident advantages of it, as prizes, convoys, and such like, which the commanders of the smaller classes of ships had enjoyed. But the first regular establishment of half-pay for all flag-officers, cap¬ tains, first-lieutenants, and masters, was by King W illiam, in the year 1693, provided they had served a year in their respective qualities, or had been in a general engagement with the enemy. A regular established halt-pay was fur¬ ther sanctioned by an order in council of Queen Anne in 1700 ; the conditions of which were, that no officer should enjoy the benefit thereof who had absented himself without permission of the lord high admiral or lords commission¬ ers of the admiralty, or who had been dismissed for any misdemeanour, or by court-martial, or who had not be¬ haved himself to the satisfaction of the lord high admiral, or who should have leisure to go out of his majesty’s domi¬ nions, if employed in the merchant service or otherwise, or who enjoyed the benefit of any public employment. Since the above period the rate of half-pay to the several officers of the navy has undergone various modifications. At present it stands thus : RATES OF HALF-PAY. NAVY. 63 Personel. Flag- Officers. Admirals of the fleet Admirals Vice-admirals Rear ditto Per Diem. .L.3 3 0 2 2 0 1 12 6 1 5 0 Captains. To each of the first 100 as they stand on the 0 14 6 general list of officers in seniority To each of the next 150 0 12 6 To the rest 0 10 6 Commanders. To each of the first 150 on the list 1 10 0 To the remainder 0 8 6 Lieutenants. The boatswains, gunners, and carpenters of the navy, Personel. have pensions or superannuations, in lieu of half-pay, ac¬ cording to the following scale, formed on a consideration of the total length of service as warrant-officers, with the length of service in commission. Total Service. Years. 30 30 30 30 20 20 20 20 15 15 15 10 10 Commissioned Service. Pension. Years. L. 20 85 15 75 10 65 5 55 20 75 15 65 10 55 5 45 15 60 ..10 50 5 40 10 45 5 35 To each of the first 300 on the list 0 To each of the next 700 0 To the remainder 0 Royal Marines. Colonels 0 Lieutenant-colonels 0 Majors 0 Captains 0 First lieutenants of seven years standing 0 The rest 0 Second lieutenants 0 Masters. To the first 100 on the list (being qualified for } first or second rates) J To the next 200 (being qualified for third or { fourth rates | The remainder having served five years in the 4 navy, two of which as acting or second mas- /- ter, or as master’s mate or midshipman ) 0 0 0 7 6 5 14 11 9 7 4 4 3 7 6 5 0 0 0 6 0 6 0 6 0 0 0 0 0 Medical Officers. Physicians. After ten years service After three years Under that time Surgeons. Six years service Under that time Assistant Surgeons. Three years service Two years Dispensers 1 1 0 0 15 0 0 10 6 0 6 0 0 5 0 0 3 0 0 2 0 0 5 0 Chaplains. After eight years service at sea, or ten in harbour 0 5 0 For less service, not under three years. . .-f a ProPorti°n „ ^ ( of the above, ror each year’s longer service than ten } years, 6d. per diem additional till it reach / U 10 0 Pursers.' To the first 100 on the list 0 5 Do. next 200 do 0 4 The remainder 0 3 Payable quarterly. 0 0 0 In point of half-pay and other pecuniary emoluments, the Naval navy has much the advantage over the army, more parti- prize- cularly in the chance of prize-money, which but seldom money, falls to the share of the army, except on some conjoint ex¬ pedition. On the commencement of a war a proclamation is issued by the king, directing that the net produce of all prizes taken by any of his ships of war shall be for the entire benefit and encouragement of the flag-officers, cap¬ tains, commanders, and other commissioned officers, and of the seamen, marines, and soldiers on board at the time of the capture ; and directing also in what manner the dis¬ tribution shall be made. Many very handsome, and, in some instances, very splendid fortunes, have been made by captures of the enemy’s ships. Another great encouragement for young men to enter Honours the naval service arises from the honours bestowed by the and re¬ sovereign for any brilliant exploit. Thus, in consequence wards, of the skill and bravery which were exhibited in the great and glorious action of the 1st of June 1794, his majesty was graciously pleased to confer on Earl Howe the order of the garter; Admirals Graves and Sir Alexander Hood were made barons of the kingdom of Ireland ; and Rear- admirals Bowyer, Gardner, and Pasley, together with Sir Roger Curtis, captain of the Queen Charlotte, were creat¬ ed baronets. Gold medals and chains were also distri¬ buted to such admirals, and gold medals to such captains, as were particularized in Lord Howe’s despatches. The first lieutenants of each ship were promoted to the rank of commanders; and pensions of L.1000 per annum were granted to Rear-admirals Bowyer and Pasley, in consider¬ ation of the loss of limbs. For the action of 14th of February 1797, Lord St Vincent was advanced to the dignity of an earl, and a pension was granted to him of L.3000 a year; Vice-admirals Thomp¬ son and Parker were created baronets ; Commodore Nel¬ son received the order of the bath, and Captain Calder of the Victory the honour of knighthood; and gold medals were distributed to the admirals and captains. For the action of the 11th of October 1797, Admiral Dun¬ can was created a viscount, with a pension of L.2000 a year; Vice-admiral Onslow was made a baronet; and Cap¬ tain Fairfax had the honour of knighthood. Gold medals were also distributed to the admirals and captains. For the action of the 1st of August 1798, his majesty was pleased to testify his sense of the importance of this bril¬ liant achievement, by raising Sir Horatio Nelson to the dignity of the peerage, by the title of Baron Nelson of the Nile; and by directing medals to be distributed to the captains. The first lieutenant of the Majestic was made a captain, and the first lieutenants of the other ships were 64 N A Tersonel. promoted to the rank of commanders. And for the attack the Danish fleet at Copenhagen, Lord Nelson was rais¬ ed to the dignity of a viscount, and the order of the bath was conferred on Admiral Graves. . For the ever memorable action of Trafalgar, in which Lord Nelson fell in the arms of victory, his majesty was pleased to confer upon his brother the rank of earl, with a pension of L.5000 a year; and the sum of L.120,00U was voted by parliament for the purchase of an estate to be annexed to the title. Admiral Collingwood was raised to the dignity of baron; Lord Northesk was honoured with the order of the bath, and Captain Hardy was creat¬ ed a baronet. The captains received medals; five lieu¬ tenants were made captains, and twenty-four, command¬ ers ; twenty-two midshipmen were made lieutenants; and the senior captain of marines was made brevet-major. By this last act of Lord Nelson’s life was annihilated the only remaining hope of the combined navies of France and Spain, and a blow given to the naval power of the enemies of Great Britain, which they never recovered du- V Y. And the widows of officers of the royal marines are cn- JPersonei. titled to the following pensions: Per Annum. The widow of a Ditto Ditto Ditto Ditto Ditto Ditto general officer L.120 colonel lieutenant-colonel 80 major ^0 captain 50 first lieutentant and surgeon 40 second lieutenant and assist- •er; ant surgeon In addition to these pensions, there has been established a Compassionate Fund, for the relief of such widows and orphan children as may appear to be proper objects of com¬ passion. The sums annually required are voted by parlia¬ ment, and at present are limited to L.14,000 a year. Pensions to petty officers and seamen are granted by the board of admiralty for wounds, infirmities, and length of service; and the sum required for this purpose is voted annually on the navy estimates. ,rr The establishment of Greenwich Hospital embraced Grenwct The first idea of this noble HosPltaL has 20 0 0 “ScS S, John W - f mnch more ~ objec,^ ^ ^ Duckworth, Sir Robert Calder S.r Rrchard Strachan *?th Jve pearanCe of justice, to Mary, Lord Gambler, and Lord Exmouth, and even for bnl a consort 0f William 111. Being desirous that our gal- actions of single ships, appropriate distinctions have neve seamen wom down by age or infirmities, as well as suf- been withheld. Exclusive of peerages and baroneto^, Lt be left destitute, she made the honours bestowed for gallant conduct in the naval sc g with Ki william, of the palace of Green- llvenTfeghl ^ommlndeVand 130°companions „f the wich, and of certain lands adjoining, to be appropriated Pensions The provision which is made for officers, m the event for wounds. 0f iosincr a limb, or being so severely wounded m the ser¬ vice that the prejudice to the habit of body is equal to the loss of a limb, is another encouragement for entering the naval service. For an admiral, from L.300 to L.700 per annum. A captain, wounds, L.250 ; loss of a limb • Commander...do... L.150 ; do ' Lieutenant.....do... L.91. 5s.; do Marine officers the same as in the army. 5s. Widows’ pensions. jv.o.u... likewise made for the widows of the com- mission "and warrant officers of his majesty’s navy, by or¬ der of the king in council, and voted annually on the navy estimates. The pensions are allowed according to the annexed scale, being similar in most cases to of officers in the army of corresponding ranks. also provided for by an annual vote of parliament, are Scale of Pensions. The widow of a flag-officer of his majesty’s fleet. ■ of a captain, superannuated with the rank of rear-admiral 10° of a captain of three years standing of a captain under three years standing. of a commander of a lieutenant, superannuated with the rank of commander 60 of a lieutenant, of a master. of a surgeon.. 40 of a purser, of a boatswain, - of a gunner of a carpenter 25 . of a second master of a yacht. or master of a naval vessel warranted by the navy board to this purpose, in order, as stated in the kings commis¬ sion, to “ the making some competent provision, that sea¬ men, who, by age, wounds, or other accidents, shall be¬ come disabled for further service at sea, and shall not be in a condition to maintain themselves comfortably, may not fall under hardships and miseries, but may be support¬ ed at the public charge; and that the children of such disabled seamen, and also the widows and children of such seamen as shall happen to be slain in sea service, may, in some reasonable manner, be provided for and educated. In 1695, the committee appointed to examine and report on the premises recommended an additional wing to King Charles’s building, which being approved by the king, Sir Christopher Wren undertook to superintend the new erec- lo LUtJ tions without any pay or reward. Since that time various th? widows additions and improvements have been made to this mag- The latter nificent pile of building, which was completed very nearly as it now appears, in the year 1778. The king granted L.2000 a year towards the carrying on, perfecting, and endowing of this hospital. The great officers of state and wealthy individuals also subscribed liberally to the undertaking. It was at the same time en- L.120 0 0 acted by parliament, that a deduction of sixpence per man per month should be made out of the wages of all mariners for the use of the hospital; and power was given to the lord high admiral to appoint commissioners for receiving the said duty, whose office is situated on Tower Hill. These deductions no longer exist, and the establishment has been broken up. In 1699 his majesty contributed the sum of L.19,500, being fines laid by the House of Lords on certain merchants convicted of smuggling. In 1705 Queen Anne assigned to the use of the hospital the effects of Kid the pirate, amounting to upwards of L.6000. In 1707, Robert Osbaldiston, Esq. devised by will half of his estate, which was valued at L.20,000. In the same year Anthony Bowyer gave the reversion of a considerable es¬ tate for the use of the hospital. By several statutes, the forfeited and unclaimed shares of prize-money were given to the hospital, and various grants, from time to time, con¬ tinued to be made by parliament. But the most substantial grant was that made by the Commons, of the rents and pro¬ fits of the forfeited estates of the Earl of Derwentwater, 0 0 0 0 80 70 50 40 30 25 25 25 0 0 ( NAVY. 65 e nel. amounting at that time to about L.6000 a year, and at present to the gross rental of L.60,000, of which, after payment of all expenses for improvements, repairs, collec¬ tions, and incumbrances, the annual receipt may be esti¬ mated at from L.30,000 to L.40,000. :i! inent At present the permanent revenues of the hospital con- vnaes. sist of the following heads : 1. The duties arising from the North and South Fore¬ land light-houses. 2. The rents and profits of the Derwentwater estates, including the lead mines. 3. Rents of the market of Greenwich, and of certain houses there and in London. 4. Interest of money invested in the public funds. 5. Forfeited and unclaimed shares of prize-money. 6. Fines for various offences. It is evident that the funds of the establishment must vary considerably in times of war and peace; being lowest in the latter period, when the demands are heaviest upon it, especially for a certain number of years after the close of a war. The rental of the estates belonging to the hospital in the counties of Northumberland, Cumberland, and Dur¬ ham, rose from L.23,000 in 1805, to L.43,000 in 1816. The present gross rental of these estates and the lead mines, as above stated, amounts to about L.60,000, the North and South Foreland lights to L.7000, and the in¬ terest of funded property to L.50,000 ; making, with other contingencies, an annual revenue of about L.150,000, the whole of which is expended on the household establish¬ ment, the clothing, maintenance, and allowances to pen¬ sioners and other attendants, with repairs, taxes, and con¬ tingencies. The establishment of this noble institution consists of a governor, who is a flag-officer in the navy, lieutenant-go¬ vernor, four captains, and eight lieutenants, all resident within the hospital; a treasurer, auditor, paj'master of pensions, secretary, clerk of the check, two chaplains, two physicians, three surgeons, two dispensers, steward, clerk of the works, and several clerks. The number of in-pen¬ sioners is about 3000, and the number of nurses 180, all of whom must be the widows of seamen of the navy, and under the age of forty-five years at the time of admission. Under the naval administration of Earl Grey, the fol- ffi rs on lowing officers were added to the out-pensions of Green- ir iiwichwich Hospital, to be selected by the admiralty, according !ta • to their respective claims on the service : [o ital st ;Lish- r ’ei oned Per Year. 10 Captains at L.80 15 Commanders at 60 50 Lieutenants at 50 in addition to their half-pay. )u >en- The out-pensions to seamen were first established in the ic< d sea-year 1763, by act of 3d Geo. III. ch. 16, in consequence of which 1400 out-pensioners were appointed at L.7 per an¬ num each, after undergoing an examination at the admi¬ ralty as to their claims. At the close of the long revolutionary war, the applica¬ tions became so numerous, and the claims of the seamen who had been wounded or worn out in the service so strongly grounded in humanity and justice, that it became necessary to adopt a scale of pensions, and to establish certain rules and regulations, by which seamen of his ma¬ jesty s fleet and royal marines should be remunerated for wounds or hurts, debility, and length of service. The fol¬ lowing are the regulations. For Wounds, Hurts, or Debility. Every seaman, landman, boy, or royal marine, wound¬ ed or hurt in his majesty’s service, is entitled to a pension VOL. XVI. proportioned to his wounds or hurts, of not less than six- Personel. pence a day, and not more than one shilling and sixpence a day. For sickness or debility, after seven years’ ser¬ vice, and under special circumstances before that period, of not less than fivepence a day, nor more than tenpence, according as he may appear capable of assisting himself. Beyond fourteen, and less than twenty one years’ service, not less than eightpence, nor more than one shilling and threepence. And after twenty-one years’ service, one shil¬ ling and sixpence a day. But the rates are altered from time to time. All the above-mentioned pensions may be forfeited by misconduct, by desertion, and by sentence of a court-mar¬ tial ; also by neglecting or omitting to attend at such port or place, and at such time, as shall, in time of war, or in prospect of a war, be appointed for the assembling of the pensioners, by the lords commissioners of the ad¬ miralty. To the noble institution of Greenwich* Hospital is ap¬ pended an asylum for the maintenance and education of the children of officers and seamen of his majesty’s naval service. The Naval Asylum was originally instituted by the Naval Patriotic Fund and private subscriptions, and afterwards Asylum, established at Greenwich, by warrant under the king’s sign-manual, dated in January 1818, appointing the lords commissioners of the admiralty to be commissioners and governors, who, with twenty-four directors, were to super¬ intend and manage the same. The object was, the main¬ tenance and education of a certain number of orphans and other children of the non-commissioned officers, seamen, and marines of the royal navy. As it was manifest, how¬ ever, that this establishment, so contiguous to the hospital of Greenwich, could be managed without inconvenience by the commissioners and directors of that hospital, under a more effective and economical system, his majesty was pleased, by his warrant of January 1821, to annul the for¬ mer warrant, and to vest the superintendence and inter¬ nal management of the said asylum in the commissioners and governors of Greenwich Hospital. The two schools of Greenwich Hospital and the Naval Asylum, and the funds thereof, are now therefore incorpo¬ rated. The internal management is confided to the board of directors, and one of the captains of the hospital is in¬ trusted with the general superintendence. A chaplain, and proper schoolmasters, schoolmistresses, matron, and inferior assistants, male and female, with moderate salaries, reside in the building. The number of children maintain¬ ed and educated in the institution are, In the boys’ upper school 200 lower school 600 Girls.., 200 In the whole....1000 To the upper school no boys are admitted but the sons of seamen and marines, slain, drowned, or dead; those of pensioners in the hospital; of seamen disabled, past their labour, or otherwise objects of charity; and of officers in the navy and marines, on the production of a required certi¬ ficate of poverty. The age of admission is from eleven to twelve, and the continuance in the school three years, at the expiration of which they are bound apprentices to the merchant service. Presentations by the directors in rotation. The boys and girls of the lower school are the children of seamen and marines of the naval service, admitted by the board of directors, giving a preference to orphans. The age of admission is from nine to twelve years inclusive; but none is retained beyond the age of fourteen. The boys are sent into the navy, or merchant service, or put apprentices to some trade. The girls, at the age of four¬ teen, are apprenticed to trades, or sent to service. 66 N A Z Naxia Thus all the classes of officers, seamen, and marines, who II have faithfully served in the navy, are provided for by Nazareth, state . ailj the children of such as may be in indigent ■' v circumstances receive an education at the public expense, suited to their condition in life. The total expense of the navy, including every branch N A Z of the service, civil and military, for one -whole year, about Nazants, the middle of the last war, may be estimated at about L.18,000,000. In the year 1822, according to the esti¬ mates which were laid before parliament, it amounted to about L.5,000,000; and in the year 1837 it has been fixed at the sum of L.4i,663,000. (M*) NAXIA, the anxient Naxos, is one of the largest and most fertile of the islands in the Archipelago, known as the Cyclades. Its greatest length from north to south is seventeen miles, and its greatest breadth about twelve miles. The north point is in latitude 37. 12. Although the roca-s are of a most repulsive appearance, yet the island is diver¬ sified by hills, valleys, and plains, and is well wooded and watered. Besides the city of its name, it contains thirty- five villages, and a population of about 17,000 persons. It produces corn equal to six months’ consumption, and a surplus of oil, fruits, and cheese. Large quantities of oranges and lemons are exported. There is no port on the island for ships to enter. NAXOS, or Naxia, a considerable town^ and capital of the Isle of Naxos, opposite the Isle ot Paros, with a castle and two archbishops’ sees, the one Greek and the other Latin. The greater part of the inhabitants are Greeks. Long. 25. 51. E. Lat. 37. 8. N. NAYO, a small island in the Eastern Seas, near to the north coast of Celebes. Long. 124. 24. E. Lat. 1. 24. N. NAYRES are the nobility of the Malabar coast. We may with truth affirm that they are the oldest nobility in the world; for the most ancient waiters mention them, and quote the law which permits the Nayre ladies to have several husbands, every one being allowed four. NAZARETH, a town or village of Palestine, celebrat¬ ed in holy writ as the residence of our Saviour. It is si¬ tuated in a deep valley, on the side of a high hill, neaier to its summit than its base, and having a rocky eminence along it. It contains about 250 buildings of stone, a ma¬ terial always at hand. They are flat-roofed, generally of only one story, but sufficiently spacious for the accommo¬ dation of the numerous poor families by whom they are in¬ habited. The streets are steep and narrow, and, from the looseness of the soil, exceedingly dirty. Of the public buildings the mosque is the most conspicuous, and is a neat edifice. It is enclosed with a good wall of masonry, so that Mr Buckingham, who visited it, could only see one of its sides, on which there were five arches. It has a plain whitened minaret, surrounded by a gallery, and sur¬ mounted by a crescent. The Greeks have a church on the south-eastern edge of the town, at the foot of a hill, and the Maronites have also a church in front of a Fran¬ ciscan convent. This convent, Mr Buckingham mentions, is one of the largest and most commodious he had seen anywhere, being superior to those of Smyrna, Alexandria, or “Cairo. It is still adorned with some precious remains of antiquity. Two antique shafts of red granite columns are used as portals to the door-way. Within is a court, and near the gate at its further extremity is the fragment of a shaft of another granite column, lying on the ground. White pillars form the portals of entrance to the original building, destroyed by the Turks ; and of these the remains are still to be seen. On the wall, both within and without, there are worked into the masonry several pieces of the old ruins, containing delicate sculptures of frize, cornices, capi¬ tals, &c. The gate leads to a large paved square, in which there are two wells, surmounted by the cross; and on the right hand is the hall for the reception of strangers and visitors. The interior is furnished with every convenience, in staircases, galleries, and apartments. Mr Buckingham mentions, that he supped in a hall below, of considerable size. The table service consisted altogether of pewter, but every thing was extremely clean, and the provisions were excellent, particularly fine wheaten bread, and wine from Mount Lebanon, not inferior to the wines of France. The church belonging to the monastery is erected over a grot¬ to, which is believed to have belonged to the Virgin Maiy. In this place are shown her kitchen and fire-place; and by way of miracle a pillar is exhibited, the capital of which, separated from the shaft, is represented as self-supported in the air. Dr Clarke, however, soon observed that it was fastened into the wall above. Mr Buckingham was shown a second grotto, or a continuation of the first, with two reel oranite pillars, of about two feet in diameter at its entrance; and he was told that the one marked the spot where the Virgin rested, the other where the angel stood when he appeared to Mary. The church erected over this sacred spot is large, and well furnished with paintings, mostly gaudy, though there were a few not altogether devoid ot merit. The synagogue in which Jesus read and expound¬ ed the prophet Esaias is shown here within the town; the precipice from which his enemies would have thrown him down is also pointed out; and, according to Mr Buck¬ ingham, it is not improbable that this precipice, which overlooks the town, was the scene of this outrage. But the most venerated relic is a stone called the table ot Christ, from which he is asserted to have eaten before and after his resurrection. Nazareth forms part of the pachalik of Acre, and was reduced to indigence and mi¬ sery by the oppression of Djezzar Pasha. Many of the wretched people emigrated in consequence; and several of the neighbouring Arabs said to Dr Clarke, that the beg¬ gars in England were better and happier than they. The stationary inhabitants are about 2000, of whom 500 are Catholic Christians, about 300 Maronites, and 200 Ma- hommedans, the rest being schismatic Greeks. Nazareth is fifty miles north from Jerusalem. NAZARITE, or Nazarean, or Nazarene, a term which signifies one who is of Nazareth, or any native of the city of Nazareth. It was given to Jesus Christ and his disci¬ ples, and is commonly employed in a sense of derision and contempt by those authors who have written against Chns- tianitv. It has also been applied to a sect of heretics called Nazarenes ; and sometimes it means a Nazarite, or one who has laid himself under the obligation of a vow to observe the rules of Nazariteship, whether it be for his whole life, as Samson and John the Baptist, or only for a time, as in the case of those mentioned in Numbers (vi. 18, 19, 20) and Amos (ii. 11, 12). Lastly, the name of Nazarite, in some passages of Scripture, denotes a man of particular distinction and great dignity in the court of some prince. Of these several sorts of Nazarites we shall now give some account. T . . The name of Nazarene belongs to Jesus Const, not only because of his having lived the greater part of his life at Nazareth, and because this city has always been consider¬ ed as his country, but also because the prophets had fore¬ told that he should be called a Nazarene (Matth. ii. 23). “ And he came and dwelt in a city called Nazareth, that it might be fulfilled which was spoken by the prophets, He shall be called a Nazarene.” We find no particular passage in the prophets where it is said that the Messiah should be called a Nazarene ; and St Matthew only quotes N A Z rite, the prophets in general. Perhaps he meant to insinuate, "—-'''that the consecration of the Nazarites, and the great pu¬ rity of which they made profession, were a type and a sort of prophecy of those of our Saviour, or else that the name Nazir or Nazarite, given to the patriarch Joseph (Gen. xlix. 26 ; Deut. xxxiii. 16), was a prophecy which was to be fulfilled in the person of Jesus Christ, of whom Joseph was a figure. Lastly, St Jerome was of opinion, that St Matthew here alludes to a passage in Isaiah, where it is said, “ And there shall come forth a rod out of the stem of Jesse, and a branch (Nezer) shall grow out of his roots. According to the general consent of all the fathers and in¬ terpreters, this branch, or Nezer, and this root, are intend¬ ed to denote Jesus Christ. When the word Nazarene is applied to the heretics known by this name, it denotes Christians converted from Ju¬ daism, whose chief error consisted in defending the ne¬ cessity or expediency of the works of the law, and who obstinately adhered to the practice of the Jewish ceremo¬ nies. The name of Nazarenes at first had nothing odious attached to it, and it was often applied to the first Chris¬ tians. The fathers frequently mention the Gospel of the Nazarenes, as differing in nothing from that of St Matthew, which was either in Hebrew or Syriac, being for the use of the first converts, but afterwards corrupted by the Ebio- nites. These Nazarenes preserved the first gospel in its primitive purity. Some of them were still in being in the time of St Jerome, who does not reproach them with any error; they were very zealous observers of the law of Moses, and held the traditions of the Pharisees in supreme con¬ tempt. Nazarite, when used to signify a person under the an¬ cient law who had made a vow of observing a more than ordinary degree of purity, denotes a man or woman who engages himself or herself by a vow to abstain from wine and all intoxicating liquors, to let the hair grow without cutting or shaving, and not to enter into any house which was polluted by having a dead corpse in it, or to be pre¬ sent at any funeral. But if by chance any one should have died in the presence of such a person, he or she be¬ gan again the whole ceremony of consecration and Na- zariteship. This ceremony generally lasted eight days, sometimes a month, and sometimes their whole lives. When the time of their Nazariteship had been accomplish¬ ed, the priest brought the person to the door of the tem¬ ple, who there offered to the Lord a he-lamb for a burnt- offering, a she-lamb for an expiatory sacrifice, and a ram for a peace-offering. They likewise offered loaves and cakes, with wine necessary for the libations. After all this had been sacrificed and offered to the Lord, the priest or some one else shaved the head of the Nazarite at the door of the tabernacle, and burned his hair, throwing it upon the fire of the altar. Then the priest put into the hand of the Nazarite the shoulder of the ram roasted, with a loaf and a cake, which the Nazarite returned into the hands of the priest, who offered them to the Lord, lifting them up in the presence of the Nazarite; and from this time he might again drink wine, his Nazariteship being now ac¬ complished. As to those who were perpetual Nazarites, like Samson and John the Baptist, it appears that they were consecrated to their Nazariteship by their parents, and continued all their lives in this state without drinking wine or cutting their hair. Those who made a vow of Nazariteship out of Pales¬ tine, and could not come to the temple when their vow was expired, contented themselves with observing the ab¬ stinence required by the law, and afterwards cutting their hair in the place where they happened to reside. As to the offerings and sacrifices prescribed by Moses, which were to be offered by themselves, or by others for them at the temple, they deferred this till they found a conve- N E A 67 Nearchus. nient opportunity. Hence it was that St Paul being at Nazim Corinth, and having made the vow of a Nazarite, he had his hair cut off at Cenchrea, and postponed fulfilling the re¬ mainder of his vow till he should arrive at Jerusalem (Acts, xviii. 18). When a person found that he was not in a condi¬ tion to make a vow of Nazariteship, or had not leisure to perform the ceremonies which it rendered necessary, he contented himself by contributing to the expense of the sacrifice and offerings of those who had made and fulfilled the vow; and by this means he became a partaker in the merit of such Nazariteship. When St Paul went to Jeru¬ salem, in the year of Christ 58, the apostle St James the Less, with the other brethren, said to him (Acts, xxi. 23, 24), that to quiet the minds of the converted Jews, who had been informed that he everywhere preached up the entire abolition of the law of Moses, he ought to join him¬ self to four of the faithful who had made a vow of Na¬ zariteship, and contribute to the charge of the ceremony at the shaving of their heads; by which .the new converts might perceive that he continued to keep the law, and that what they had heard of him was not true. The Hebrew word Nazir, which is employed to signi¬ fy a person exalted to great dignity, as it is said of the patriarch Joseph (Gen. xlix. 26 ; and Deut. xxxiii. 16), “ that he was separated from his brethren,” as it is in our translation, or as the Vulgate and others understand the Hebrew, “ that he was a Nazarite amongst his brethren,” has been variously understood. Some think that the He¬ brew word Nazir, in these places, signifies one who is crowned, chosen, separated, or distinguished ; indeed the word Nazir signifies a crown. The Septuagint translate this word a chief, or him who is honoured. Calmet thinks that it was a term of dignity in the courts of eastern prin¬ ces ; and mentions, that at this day in the court of Persia the word Nazir signifies the superintendent-general of the king’s household, the chief officer of the crown, the high steward of his family, treasures, and revenues; in which sense Joseph was the Nazir of the court of Pharaoh. Le Clerc translates the term Nazir a prince, and calls Joseph “ the prince of his brethren and Pool declares in favour of this last translation. NAZIM, a river of Asiatic Russia, in the government of Tobolsk and district of Berezof, which falls into the Obi, after a course of 160 miles. NAZOOK, a large lake of Armenia, situated amongst the mountains, in a bare and desolate country, being thir¬ teen miles in length and five in breadth. NEALING, or rather Annealing, a term used to sig¬ nify the preparing of several matters, by heating or baking them in the oven, or otherwise. See Annealing. NEAMUTSERAI, a fortified village of Afghanistan, in the district of Puckoli, on the north-eastern border of La¬ hore. It has a caravanserai, which is placed in a break of the great range of mountains, which extends from the Punjab to the Indus. Long. 71. 50. E. Lat. 33. 30. N. NEAP or Neep Tides are those tides which happen when the moon is in the middle of the second and fourth quarters. The neap tides are low tides in respect of their opposites the spring tides. As the highest of the spring tides is three days after the full or change, so the lowest of the neap tides is four days before the full or change ; on which occasion the seamen say that it is deep neap. NEAPED. When a ship wants water, so that she can¬ not get out of the harbour, off the ground, or out of the dock, the seamen say she is neaped, or beneaped. NEARCHUS, the admiral of Alexander the Great, was the son of Androtinus, a native of Crete, and flourished 330 before Christ. Ele was the personal friend of Alex¬ ander before the death of his father, and was obliged to fly from Macedonia when Philip began to be suspicious of the intentions of his son. Nearchus attended Alexander 68 N E A Nearchus. in his eastern expedition, and was left to watch over Ly- '•'-"“v-*'' cia and the adjoining countries. (Arrian, iii. 6, 8 ; Irid. 18, 4, 10.) After the conquest of Darius, he was called from his province by Alexander, and appointed to command the fleet which was hastily constructed on the river Hydaspes,1 from the timber which grew upon its banks. Onesicritus was appointed second in command. Both admirals after¬ wards left a detailed account of their voyage from the mouth of the Indus, where they parted with Alexander, proceeding along the coast towards the Persian Gulf, and as far as the river Euphrates. The journal of Nearchus has luckily been preserved for us by Arrian in his Indian history (cap. 20), and it corresponds in general so closely with the descriptions of modern navigators, that there can be no doubt of its authenticity. Strabo (ii. 70) indeed expresses doubts respecting the correctness of his state¬ ments ; and perhaps there may have been some exaggera¬ tion of the dangers he encountered, and the wonders he saw, but he has certainly given a very accurate account of the coast along which he sailed. This was the first time that a Greek fleet had entered the Indian Ocean; and when Alexander made known his intentions, the sailors murmured at the unknown dangers to which they were going to be exposed. The appoint¬ ment, however, of his beloved friend Nearchus to command the exploring expedition quieted their apprehensions, as they were satisfied that the dangers could not be so great as they imagined, when Alexander was willing to allow Nearchus to be exposed to them. Alexander left the fleet at a spot called Xylenopolis, in the month of August 326 be¬ fore Christ, and proceeded with his army across the sandy deserts of Mekran to Persia. About the month of Octo¬ ber, when the south-west monsoon had ceased to blow, Nearchus sailed down the western branch of the Indus, now called Buggaur, into the Indian Ocean, which he reached after a passage of 150 stadia. He directed his course to the north-west, and, after sailing 150 stadia, reached a small sandy island called Crocala, now Chulna, or Chilni, which is situated off Cape Mouze, about five miles from the mainland. It is now described as a small desolate rock, about two miles in circumference, rising abruptly from the sea in a conical shape, to the height of about two hundred feet. Proceeding from Crocala, and having a mountain, which he calls Eiros, on his right, and a low sandy island on his left, he entered a large and safe harbour, which he designated Port Alexander. This is now called Sonmeany, and is said to be a creek running up some distance inland. Here he found that the south-west monsoon was still blowing with much fury, and he therefore remained quiet¬ ly for twenty-three days. During his voyage for the next three hundred miles, he landed at many spots along the coast; and at the mouth of the Tomerus, or Tuburus, now called Busul, he had an engagement with the inhabitants, who assembled to the number of six hundred. He describes their bodies as in the most filthy state ; their nails being so long and hard that they made use of them instead of iron, with which they were unacquainted. The people along this coast he calls Oreitae, or Orae, and states, that they had the same dress and arms as the Indians, but that their lan¬ guage and manners differed. A passage of 300 stadia then brought him to Malana, said to be still called Malin, which was the last spot belonging to the Oreitae. The whole of the remainder of the coast, to the vicinity of the entrance to the Persian Gulf, was inhabited by the Ichthyophagi or fish-eaters, a name which the Greeks gave to them on account of their mode of life. The country, to a considerable distance inland, was little else than a sandy desert, and the inhabitants supported themselves chiefly on N E A the fish which they caught. From Malana Nearchus sailed ^Neas. 600 stadia to Bagisara, which he represents as a harbour fit for the reception of a fleet. It is now known under the name of Arabah or Hormarah Bay. The high rugged promontory which he passed immediately after leaving this place is now Cape Arabah., At the small island of Car- nine, now Ashtola, he was hospitably received by the in¬ habitants, who supplied him with some sheep; but they found that even these animals tasted of fish, as well as the sea-birds which they caught. This island is represented as about four or five miles in circumference, and situated twelve miles from the coast of Mekran ; but not a vestige of any habitation now remains. Proceeding 350 stadia, he reached an excellent harbour, which he calls Mosarna, where there were fishermen, and plenty of water, from the want of which they had suffered since they left the river Indus. This harbour was formed by a promontory project¬ ing 150 stadia into the sea, now called Ras No, and the bay is that of Gwadel. Nearchus states, that he consider¬ ed his dangers as now ended, and that the coast began to assume a much less desolate appearance. In 1150 stadia, he reached a small village, Barna, where there were palm trees, gardens with myrtles and flowers, and the inhabi¬ tants seemed to have some degree of cultivation. He be¬ gan, however, to suffer from want of provisions; and having reached a small city, the only one he mentions in his voyage along this coast, he determined to compel the in¬ habitants to supply him with whatever they had. It is cu¬ rious that the name of the city should not be mentioned ; but having obtained possession of it by stratagem, he found that they had little else than flour made of the bones of fish ground to powder. He at length reached the end of the coast of the Ichthyophagi, which he describes as be¬ ing 10,000 stadia in length. He now found himself on the coqst of the fertile province of Carmania, and at Badis, now Jask, he obtained abundance of water and corn. On reaching Harmozia, at the mouth of the river Anamis, now called Minab, he discovered that Alexander was at no great distance with his army; and having landed, he proceeded to the camp, where he was received with great joy by the king and the whole army. He was directed to conduct the fleet up the Persian Gulf, to the mouth of the Euphrates, and reached the city Diridotis in safety. .(See Notes on the Eastern -Shores of the Persian Gulf in 1828, by Kemp- thorne, in the Geographical Journal, vol. v. p. 263 ; also the Voyage of Nearchus, illustrated by Dr Vincent, London, 1797; and Hecherches sur la Geographic des Anciens, par Gosselin, vol. iii.) NEAS, or Nias Isle. This island is situated on the west coast of Sumatra, from which it is separated by a strait sixty miles in breadth, and is fifty miles in length by twen¬ ty in average breadth. It is a large and productive island, and is divided into about fifty small districts, under chiefs or rajahs, who live in a state of perpetual hostility, their great object being to make prisoners, that they may sell them for slaves. These violences are encouraged by na¬ tive traders, who resort to these islands for cargoes of slaves, and who are accused of occasionally surprising and carrying off whole families. The number of slaves export¬ ed is estimated at from 600 to 1000. Besides slaves, padi and rice are exported to a considerable amount. The cul¬ tivation of these articles is carried on at a distance from the coast, whither the natives retire, to be secure from piratical depredations. They bring down their produce to the harbours, and exchange it for iron, steel, beads, to¬ bacco, and the coarser kinds of Madras and Surat piece- goods. Hogs are reared in great numbers; and several parts of the continent are supplied from thence with yams, i Now the Behut or Bedusta, also called by the natives the Jylum, which still affords an abundant supply of timber. NEC Neath bears, and poultry. It is well peopled, and its inhabitants II are a peculiar and distinct race, not only from those of Su- Necessity. matraj but fr0m the people on all the islands to the south- ward.? They are of lighter complexions, especially the women, than the Malays ; smaller also in their persons, and shorter in their stature, with broad mouths, flat noses, and their ears pierced and distended in an extraordinary manner. They have a singular sort of leprous scurf on their skins, which in some covers the whole body and limbs, whilst in others it resembles rather the ring-worm running in waving lines or concentric curves. JThe prin~ cipal food of the common people is rice, and the better classes use pork. The natives are remarkable for their docility and expertness in handicraft work, and are ex¬ cellent house-carpenters and joiners. They are likewise industrious and frugal, temperate and regular in their ha¬ bits, but at the same time avaricious, sullen, vindictive, and sanguinary. They are often employed by the Dutch as domestic servants ; but they are always esteemed dan¬ gerous. In many cases, however, this may be owing to the bad treatment which they receive. Some of the petty rajahs in the island have amassed treasures to a consider¬ able amount, equal to 10,000 or 20,000 dollars. NEATH, a market-town of the hundred of the same name, in the county of Glamorgan, in South Wales, and distant 197 miles from London. The neighbourhood abounds in good coal, which is brought by canals from the pits to the navigable river Neath, and which forms an im¬ portant branch of its commerce. There are, besides, se¬ veral extensive works for smelting the copper ore produ¬ ced on the opposite shore of Cornwall. About half a mile west of the town are the remains of its extensive and pic¬ turesque castle, and beyond it the cascade of Mellincourt, where the river Clydaugh precipitates itself over rocks of eighty feet perpendicular height. It is a corporate town, under a portreeve and twelve aldermen, but has never sent members to the House of Commons. It has a well-sup¬ plied market on Wednesday. The population amounted in 1801 to 2502, in 1811 to 2740, in 1821 to 2823, and in 1831 to 4043. NEBULY, or Nebulee, in Heraldry, is when a coat is charged with several little figures, in form of words run¬ ning within one another, or when the outline of a bordure, ordinary, or the like, is indented or waved. NECESSITY, whatever is done by a cause or power that is irresistible. In this sense it is opposed to freedom. Man is a necessary agent, if all his actions be so deter¬ mined by the causes preceding each action, that not one past action could possibly not have come to pass, or have been otherwise than it has been; or if it be so ordained that any future action cannot possibly not come to pass, or be otherwise than it shall be. But he is a free agent if he be able, at any time, to do difterent things; or, in other words, if he be not unavoidably determined in every point of time, by the circumstances in which he is placed, and the causes to the action of which he is exposed, to do that one thing which he does, and not possibly to do any other thing. Whether man is a necessary or a free agent, is a question which has been debated with much ingenuity by writers of the first eminence. (See Metaphysics, part iii. chap. v.; and also Predestination.) Necessity, in Mythology, a power superior to all other powers, and equally incapable of being resisted by gods or men. Herodotus, as quoted by Cudworth, mentions an oracle which declared that “ God himself could not shun his destined fate;” and amongst the fragments of Phile¬ mon, collected by Le Clerc, we find the following sen¬ tence : t^ouXoi (Zut/iXuoy sir^sv, o! [ZatrtXiis thaw, o hot a'jayxyt. “ We are subject to kings, kings are subject to the gods, NEC 69 and God is subject to Necessity.” Hence it is that, in the Necho. Iliad, we find Jove himself, the sire of gods and men, re-^^v^*^ gretting that he was restrained by Necessity from rescu¬ ing his favourite son from the sword of Patroclus. Nay, to such a height was this impiety carried in the earliest ages of Greece, that we find Hesiod and Homer teaching that the gods themselves were generated by Necessity en¬ gendering with Night and Chaos. This power, although always represented as blind and unintelligent, was, however, worshipped as a goddess, bear¬ ing in her hand large iron nails, and wedges, and an¬ chors, and melted lead, as emblems of the inflexible seve¬ rity of her nature. In the city of Corinth she had a tem¬ ple, in which the goddess of Violence likewise resided, and into which no person was ever permitted to enter except the priest who officiated in sacris. Learned men have exercised their ingenuity in vain at¬ tempts to trace this portentous notion to its origin. Some, who wished to interpret it in a pious sense, have supposed that the gods who are subject to necessity were only those who were the ministers of the supreme numen ; and that by necessity itself nothing more was meant than divine providence. But this is not consistent with the generation of the gods according to Homer and Hesiod, nor with the epithets sceva necessitas, dura necessitas, by which this power was perpetually distinguished. Others, amongst whom may be mentioned Mosheim, have supposed that this monstrous fable was invented by the Pagan priests, and diligently inculcated upon the minds of the people, to excuse the villanies of the objects of their worship. NECHO, a king of Egypt, who began his reign 690 be¬ fore Christ, and was killed eight years afterwards by Saba- con king of Ethiopia. Psammeticus his son succeeded him, and was the father, as Herodotus informs us, of Necho II. who reigned about 616 before Christ. This Necho II. is celebrated in history for attempting, though in vain, to cut a canal from the Nile to the Arabian Gulf. He carried his arms as far as the Euphrates, and conquered the city of Carchemish. This prince is not only known in Scripture, but also in profane history, under the name of Necho. He had no sooner succeeded to the crown than he raised great armies, and fitted out vast fleets, as w'ell upon the Medi¬ terranean as upon the Red Sea ; he gave battle to the Sy¬ rians near the city of Migdol, and having routed them, made himself master of the city of Cadytis. The learned, how¬ ever, are not agreed respecting this city of Cadytis. Some conceive it to have been Cades in Arabia Petraea, others Jerusalem, and others the city of Cedes, or Kedesh, in Galilee, in the tribe of Naphtali. The Scriptures inform us of the expedition of Necho in all its particulars (2 Kings, xxiii. 29, &c.; and 2 Chronicles, xxxv. 20, 21, &c.). In the year of the world 3394, this prince having drawn out his army into the field in order to make war with the Assyrians or Babylonians, and to take the city of Carchemish, otherwise called Circusium, upon the Euphrates, Josiah king of Judah, who was a tri¬ butary to the king of Babylon, marched to oppose his pas¬ sage. Necho, who had no designs against Josiah, sent to remonstrate with him. “ What have I to do with you, king of Judah ? It is not against you that I am come forth, but against another people, against whom the Lord has commanded me to make war. Leave off, therefore, to set yourself against me, for fear the Lord should punish you for your resistance.” But Josiah would not hearken to the remonstrances of Necho, and gave him battle at Me- giddo, where he received the wound of which he died. The people of Jerusalem set up Jehoahaz as king of Judah, and Necho soon advanced, without making any longer stay in Judaea. But at his return from his expedition, which proved very successful, he halted at Iliblah in Syria; and send- 70 NEC NEC Necker. ing for Jehoahaz the king'of the Jews, he there deposed him, —-v'w loaded him with chains, and carried him into Egypt. Then marching to Jerusalem, he set up Eliakim, or Jehoiakim, in his stead, and exacted the payment of an hundred ta¬ lents of silver and one talent of gold from the country. Jeremiah (xlvi. 2) informs us that the city of Carchemish was taken from Necho, by Nebuchadnezzar king of Baby¬ lon, in the fourth year of Jehoiakim king of Judah ; and Josephus adds, that the king of Babylon, pursuing his vic¬ tory, brought under his dominion all the country which is situated between the Euphrates and Egypt, excepting Ju¬ daea. Thus Necho was again reduced within the limits of his own country. NECKER, James, a well-known statesman and finan¬ cier of France. He was born on the oOth of September 1732, at Geneva, being descended of a respectable family, originally from the north of Germany. At the age of fifteen he quitted Geneva, and proceeded to Paris with a view to push his fortune in that city. He entered first into the banking-house of Vernet, and afterwards into that of Thel- luson, of which he became the cashier, and at length a partner. On the death of Thelluson, he established a bank on his own account, by which he accumulated a very large fortune. After twenty years of unremitting attention to business, he married a Protestant lady of respectable fami¬ ly, but in reduced circumstances, the patrimonial estate having been lost in consequence of the revocation of the edict of Nantes. With this lady he appears to have en¬ joyed the highest degree of domestic happiness. A short time after his marriage, he was named minister of the re¬ public of Geneva at Paris. In accepting of this employ¬ ment he refused the emoluments which were attached to it, a degree of forbearance not very usual in public men, but in which he resolutely persisted during the whole course of his political life. Two works which he publish¬ ed, namely, an Eulogium on Colbert, and a treatise on the Legislation and Trade of Corn, greatly extended the le- putation of his political talents; and he had fortunately succeeded in adjusting some differences between the East India Company and the crown, in such a manner as to re¬ ceive the approbation of both parties, a circumstance vv hich added to the weight of his character. About this time the disorder in the state of the French finances had become so alarming, that it was found neces¬ sary to break through the routine of official promotion, and to choose able men for tbe public service wherever they could be found. These inducements so far outweighed the objections to M. Necker, as a foreigner and a Protest¬ ant, that, after some conversations with M. Maurepas, he was, in the year 1776, appointed director of the royal treasury, and, in the following year, director-general of the finances. The great object of M. Necker was to introduce order and economy in the public management. With this view he found himself compelled either to suppress use¬ less offices, or to diminish emoluments ; and his retrench¬ ments drew upon him the enmity of all those who suffered by his economical reforms. A party was formed against him, chiefly composed of rapacious courtiers; and though the repeal of several most oppressive imposts had conci¬ liated the general good will of the people, he was daily the object of malicious libels. His severe measures of economy had also excited the dislike of the minister M. Maurepas, although others ascribe his hostility to a different cause, namely, to his disappointment at not finding in Necker that subserviency which he expected from a person of his comparatively obscure origin, and a Protestant. What¬ ever was the reason, the minister was amongst the number of his enemies; and he is charged by Madame de Stael with secretly instigating those libellous attacks of which M. Necker now became the object. To enable him, ac¬ cording to Madame de Stael, the better to struggle with his opponents, he requested some signal mark of royal fa- ^ vour, such as a seat in the council, which was granted. This demand on the part of Necker gave rise to new and acrimonious discussions, in the course of which he tender¬ ed his resignation, after having been five years in office. Others give a different account of this transaction. Under the influence, it is said, of that passion for popular ap¬ plause, which proved the torment of his lire, he published, in 1781, the well-known piece on the state of the finances, entitled Le Compte Rendu au Roi, of which an immense number of copies were sold. Elated by this success, he made a demand for a seat in the council, but was ob¬ jected to on the ground of his religion. Being persuaded that this scruple would be abandoned, he persisted, and offered his resignation, which was accepted; and in this manner, as is alleged, he became the dupe of his own pie- sumption. The enemies of Necker reproached him with indulg¬ ing, during his short administration, his passion for popu¬ larity at the expense of the public interest. The great point which he laboured to establish in his Compte Rendu was, that there was no deficit in the public revenue, and that there was no necessity for additional taxes. In lieu of new impositions, he is charged with supplying the pub¬ lic necessities by the expedient of large loans; postponing, in this manner, the evil day, but accumulating on posterity an increasing load of debt, which, sooner or later, must be provided for by adequate taxes, and all this to procure a temporary popularity at the expense of his rivals. Not¬ withstanding these objections, he had numerous partisans, especially amongst the men of letters, who regarded his ele¬ vation to power as the triumph of philosophy and liberal principles over aristocratical prejudice. After his resignation, he retired to Switzerland, where he purchased the barony of Coppet. In 1784 he published an able work, further illustrating his financml policy, en¬ titled De VAdministration des Finances. This work, of which 80,000 copies were speedily sold, served to support the reputation of his plans, and also to keep together his adherents, whose numbers formed a counterpoise to the in¬ fluence of his enemies at court. In 1787 M. de Calonne convoked the Assembly of the Notables, and, in his opening speech to that body, im¬ peached the accuracy of the statements contained in the Compte Rendu. It was not to be supposed that M. Necker would quietly submit to this charge. He sent a memorial upon the subject to the king, with various other papers, for the purpose of proving the correctness of his calculations. His majesty having read these documents, requested that they might not be published, a proposition which by no means suited the views of M. Necker. His statements were accordingly printed, and for this offence he was ex¬ iled, by a lettre de cachet, forty leagues from Paris. M. de Calonne did not, however, remain long in power ; and the Archbishop of Toulouse, by whom he was succeed¬ ed, was also obliged to resign, and to make way for M. Necker, the favourite of the people, who was reinstated in his former post in August 1788. A new and remarkable era was now about to open in the history both of France and of the world. The writings of the French philoso¬ phers and men of letters had gradually given currency to notions of constitutional freedom. The people could no longer endure, like their forefathers, the bondage of feudal privileges, by which the few acquired the power of op¬ pressing the many. They had become jealous and discon¬ tented, and were deeply irritated at the insolence and op¬ pression of the aristocratical body ; and with those indig¬ nant feelings were mingled, in the minds of the popular leaders, the brilliant visions of speculative reform. But as long as the people wanted a legitimate organ through which their voice could be heard, it was clear that what- Neckff NEC NEC 71 ever might be their feelings, they could make little im¬ pression on the measures of the state. What was wanting in this respect wTas now about to be supplied ; and the po¬ pular voice, hitherto so little considered, was, through the representative body, to become the pre-eminent influence in the government. At this period the French government was assailed by a complication of difficulties, the chief of which was the impracticability of raising the necessary supplies, and the danger of an immediate bankruptcy. A great scarcity also prevailed at Paris, which rendered the populace unusually discontented and tumultuous. In this emergency various expedients were suggested; and the convocation of the states-general, which had long been talked of, was advised by M. Necker, as likely to give ge¬ neral satisfaction to the people. In assenting to this pro¬ position, it was the plan of the court that the different or¬ ders of the clergy, nobility, and commons, should vote in separate chambers, in order that the deputies of the com¬ mons might be controlled by the other two bodies. But the popular leaders were by far too penetrating to allow their influence to be annihilated by this device. They de¬ termined, from the beginning, that the three orders should sit and vote together; and it is well known that, after va¬ rious fruitless efforts to bring about this union, the com¬ mons resolved to form themselves into an assembly for the despatch of business, without regard to the other two chambers. This decisive step proved effectual, and the three chambers at length all met and voted in one house, by which the whole power was thrown into the hands of the commons. During these transactions, the king and his advisers pursued a weak and vacillating policy. They perceived, when it was too late, the error they had committed, or sup¬ posed themselves to have committed, in putting into the hands of the people the powerful weapon of a represen¬ tative body. But instead of yielding to the necessity of circumstances, and conciliating this new power, which could no longer be resisted, by conceding with a good grace every just demand of constitutional right, they en¬ deavoured to recover the ground which they had for ever lost, vainly struggling against the power of the commons, and meditating even the most violent measures for the re¬ covery of their authority. It was in pursuance of these views that troops were drawn from the most distant parts, and encamped around Paris; a measure, the only con¬ struction that could be put upon which was, that it was intended to overawe the deliberations of the assembly, or, perhaps, to dissolve it at once at the point of the bayonet. These violent courses M. Necker opposed, and he was ac¬ cordingly dismissed on the 11th of July 1789, and ordered to quit the kingdom in twenty-four hours. This order he obeyed with equal secrecy and despatch, and had arrived at Brussels before it was generally known in Paris that he was out of office. It is impossible to describe the consternation which prevailed in the capital when the dismission and exile of this favourite minister was made known. The person who first communicated the intelligence was considered as a madman, and with difficulty escaped some harsh treat¬ ment ; and the event was no sooner confirmed, than all the shops and places of amusement were shut up, and his bust, along with that of the Duke of Orleans, was paraded through the streets, dressed in mourning. These pro¬ ceedings were interrupted by a German regiment; the busts were broken in pieces ; and in the course of the tu¬ mult one man lost his life, whilst others were wounded. Fresh troops arriving, a serious conflict now ensued; and an old man being cut down in the Tuilleries by an officer of distinction, the populace were enraged to the highest pitch, and being joined by the French guards, who desert¬ ed their officers, they at last succeeded in overpowering the Germans. New outrages and tumults succeeded ; the Necker. Bastille was stormed; and the capital became the scene of bloody massacres, whilst the people’s minds were at the same time filled with dismay at the near approach of fo¬ reign troops, from whom they apprehended nothing less than the sack of the city. In the midst of these alarms, they beseeched the assembly to intercede with the king for the recall of their favourite minister. The necessity of complying with this demand was at length perceived by the king, and a letter was written to M. Necker, request¬ ing him to return. M. Necker was at Basle when he received this letter, with the request contained in which he resolved immedi¬ ately to comply. His progress to Paris was one continued triumph. He was cheered as he passed through the dif¬ ferent towns by the acclamations of multitudes, who hailed him as their deliverer. This popularity, however, was not of long duration. Being alarmed by the*excesses which had already taken place, M. Necker became desirous to support the authority of the sovereign ; and, without conci¬ liating the confidence of the king’s friends, he lost that of the popular party. By the royalists he was always hated ; he now became an object of suspicion to the more violent patriots, and was reproached as an aristocrat. Seeing his popularity on the decline, he resolved to retire ; and he ac¬ cordingly wrote a letter to the assembly, pleading the ne¬ cessity of repose for the restoration of his health. No no¬ tice was taken of this letter ; and his personal safety being now in danger from the violence of the people, he quitted Paris in the month of December 1790, having withdrawn in the most private manner possible. After the loss of his power and popularity, M. Necker seems to have sunk into the greatest dejection. “I could have wished,’’ says Mr Gibbon, who passed some days with him about this period, “ to have exhibited him as a warning to any aspiring youth possessed with the demon of ambition. With all the means of private happiness in his power, he is the most miserable of human beings; the past, the present, and the future, are equally odious to him. When I suggested some domestic amusements, he answered with a deep tone of despair, ‘ In the state in which I am, I can feel nothing but the blast which has overthrown me.’” But his mind was soon diverted from the disappoint¬ ments of ambition by domestic griefs of a more poignant nature; his wife, to whom he was deeply attached, dying after a long illness, in which he attended her with great affection. He had now recourse to writing to divert his melancholy; and several works, which he published, were the fruits of his labours. He died at Coppet, on the 9th of April 1804, after a short but painful illness. His pub¬ lic character is, of course, differently estimated, according to the political views of parties. In his private and do¬ mestic relations he was amiable and affectionate, and ap¬ pears to have been greatly beloved. His writings, besides those already mentioned, are the following : An Answer to the Memorial of the Abbe Mo- rellet, on the East India Company, 1769; Memorials on the Provincial Administrations, 1781; Answer to the Speech pronounced by M. de Calonne to the Assembly of Notables, 1787 ; New Explanations on the Compte Rendu, 1788 ; Of the Importance of Religious Opinions, 1788; Observations on the Introduction to the Red Book, 1790 ; On the Administration of M. Necker, by Himself, 1791; On the Executive Power in Great States, 1791; On the French Revolution, 1796; Course of Religious Morality, 1800; Last Views of Politics and Finance. (See Dic- tionnaire Universelle, article Necker ; Biographic Uni- Terselle, article Necker ; Memoires sur la Vie Privee de mon Pere, par Madame la Baronne de Stael-Holstein, suivis des Melanges de M. Necker.) 72 NEC NEC Necker Isles II Necro¬ mancy. Necker Isles, a group of small islands in the South Pacific Ocean, nine in number. They were discovered and so denominated by Perouse. The principal island is about 500 toises in length, and sixty in elevation. Long. 162. 32. W. Lat. 23. 31. N. ^ , . , . f NECROLIUM, a word used by some of the alchemist writers to express a remedy almost always capable of averting death, and continuing life to its utmost period. NECROLOGY (necrologium, formed of vixpoi, dead, and Xoyos, discourse'), a book anciently kept in churches and monasteries, in which were registered the benefactors of the same, the time of their deaths, and the days of their commemoration; as also the deaths of the priors, abbots, religious, canons, and other persons. This was likewise called calendar and obituary. _ NECROMANCY, the art of revealing or foretelling fu¬ ture events by a pretended communication with the dead. This most superstitious and impious imposture appears to have had its origin at an early period in Egypt, and to have been thence propagated in every nation ^lth manners of which history has made us acquainted. I he conquests of Sesostris might introduce it into India ; the Israelites would naturally borrow it from the people amongst whom they sojourned four hundred years ; and it would easily find its way into Phoenicia, from the vicinity of that country to the land of its nativity, brom the Egyptians and Phoenicians it was adopted, with the other rites* of paganism, by the Greeks ; and with Grecian lite¬ rature and Grecian manners it was imported into Rome. It was not, however, confined to the pagan nations of an¬ tiquity. It spread itself throughout all the modern nations of Europe, and took such deep root as to be long retained even after those nations had been converted to the Chris- Of its early antiquity we have complete evidence in the writings of Moses, where it is severely condemned as an abomination to the Lord ; and although it appears to have even then spread into Phoenicia, we might yet conclude that its birthplace had been Egypt, because, at their exod, the Israelites were corrupted only by Egyptian supersti¬ tions, and because necromancy seems to have been one of those whoredoms which the prophet Ezekiel represen ts his countrymen as having brought with them from Egypt, and continued to practise until they were carried as cap¬ tives into Babylon. If from sacred we proceed to consult profane authors, we shall find them not only affirming that Egypt had been the birthplace of necromancy, but in some degree account¬ ing for the origin of so impious a delusion. Irom Diodo¬ rus we learn that the Grecian fable of Charon the ferry¬ man of hell, of Styx, Cocytus, the Elysian Fields, Tarta¬ rus, the judgment of Minos and Rhadamanthus, &c. with the whole scenery of the infernal regions, were imported from Egypt into Greece. The ancient Egyptians, and in¬ deed all the people of the East, made use of caves as bury- ing-places ; which were ivell suited to the solemn sadness of&surviving friends, and proper receptacles for those who were never more to behold the light. In Egypt, many of these subterranean cavities being dug out of the natu¬ ral rock, still remain, and command the admiration of tra¬ vellers ; and near to the pyramids in particular there are some apartments of a wonderful fabric, which, though they extend in length upwards of four thousand feet, and are about thirty feet in depth, appear to have been, if not en¬ tirely dug, at least reduced to form, by the chisel or the pick-axe of the artist. From the practice of burying in such caverns sprung the opinion that the infernal mansions were situated some¬ where near the centre of the earth, which by the Egyp¬ tians was believed to be not very distant from its surface. In these dreary abodes, it was easy for such adepts as the priests of Egypt to fabricate Erebus, and lartarus, and the Elysian Fields, and all those scenes which were displayed before the initiated (see Mysteries), and by them de¬ scribed to the millions of the people. As it was in those dark abodes that necromancy was practised, it would be no difficult matter for such magicians as withstood Moses, to impose so far upon the credulous vulgar as to make them believe, that in consequence of their invocations they actually saw the ghosts of their friends ascend out of the earth. It appears from the book of Exodus, that the Israelitish women were, even in the wilderness, well ac¬ quainted with the use of the mirror, which was therefore undoubtedly known to the Egyptians. But a mirror of a particular form, and properly illuminated at the instant re¬ quired, might be easily made to reflect, in a cavern frotn which all other light was carefully excluded, the image of the deceased, when called upon by the necromancer; and we can also readily conceive, that with respect to the question to be proposed, a person might be concealed, pre¬ pared to give such ambiguous answers as would satisfy the inquirer, and at the same time to save the credit of the oracle. The terrified imaginations of the spectators would aid the delusion, and make a very slight resemblance pass for the ghost or ilhuKov of their departed friend; or the necromancer might assign plausible reasons why a spectre, after having dwelt for some time in the infernal regions, should lose something of its resemblance to the body which it animated. Such juggling tricks, though performed by artists less accomplished than Jannes and Jambres, have gained credit amongst people much more enlightened than the Egyptians can possibly have been when the science of necromancy was invented by their priests. That the Israelites, notwithstanding the prohibition of their legislator, continued to practise the rites of necro¬ mancy, is apparent from Sauls transaction with the witch of Endor. From the same transaction, it is likewise ap¬ parent that the witches of Israel, and therefore in all pro¬ bability the necromancers of Egypt, pretended to evoke the ghosts of the dead by a demon or familiar spirit, which they had at their command to employ upon every emer- gency. This demon was called ob ; and therefore Saul desires his servants to find him a woman who was mistress of an ob.1 It is probable that those wretched impostors had in their pay some persons who occasionally acted the part of the demon, and, when the execution of the plot re¬ quired their agency, emitted, by means of a cavity dug for that purpose, a low hollow voice from below the ground. Hence we find Isaiah, in his denunciations against Ariel, saying, “ Thou shalt be brought down, and shall speak out of the ground ; and thy speech shall be low out of the dust, and thy voice shall be as one that hath a familiar spirit Necro. mancy. r ir, TnK fvxxii ver. 19!, where Elihu compares his belly to new bottles, 1 The original or radical signification of this wo niade of leather, new bottles filled with wine and ready to burst, as which he calls oboth, the plural of ob. But as bottles were then n N , inferred that the original import of ob was Elihu describes them, would of course be of a for“ S therefore, from the Hebrew ob is derived the round or globular ; but b and p being labials, are often cha g the ear’th was worshipped. Upis was a name of Diana or the Greek ’ovf, oculus, ovropcu, video, and the Latin ops, a name undoubtedly the sun. Now the difference between upis moon : the father of one of the ^ this word was employed by the early idola- ters td’^Fevpl^tollenote'the'first'amfgreatest of Pa^an gods, the Sun. If so, those wretches who pretended be unstresses of ok were ettaSl} the same kind of tmpostors with the Pythonesses of the Greeks. NEC NEC 73 croman. (an ob), out of the ground, and thy speech shall whisper c7* out of the dust.” But although the Egyptian priests were undoubtedly the inventors of the whole mystery of necromancy, and al¬ though it was from them imported into Greece by the Selli or priests of Dodona, it does not appear that the Grecian necromancers pretended to be masters of obs or familiar spirits. Mopsus, Orpheus, Linus, Eumolpus, and others, who either travelled into Egypt in quest of knowledge, or were actually natives of that country, instructed the early Greeks in this occult science ; but whatever might be the practice of these apostles themselves, their disciples pro¬ fessed to do all the feats of magic by performing certain rites, by offering certain sacrifices, by muttering a certain form of words, and by charms, spells, and exorcisms. By these they pretended to evoke the dead as certainly as the Egyptians and Jews did by their familiar spirits. By a small display of critical learning this might easily be prov¬ ed from the popular story of Orpheus and Eurydice, which certainly was founded on one of these necromantic decep¬ tions exhibited in a cave near Dodona, where the priests had a hades or infernal mansion, in humble imitation of those with which the first of them were well acquainted in Egypt. It is indeed evident, without the aid of criti¬ cism ; no man of any letters can be ignorant, that whatever superstitions of this kind prevailed amongst the Romans were borrowed from the Greeks. But we all know that Virgil makes one of his shepherds, by means of certain herbs, poisons, and senseless charms, raise up ghosts from the bottoms of their graves ; and Lucian has fabricated a story of this kind, which may be considered as an exact parallel to that of the witch of Endor. Just before the battle of Pharsalia he makes young Pompey travel by night to a Thessalian sorceress, and anxiously inquire of her the issue of the war. This female necromancer, by a tedious process of charms and incantations, conjures up the ghost of a soldier who had been recently slain. The phantom, after a long preamble, denounces a prediction much of the same kind with that which the king of Israel received from Samuel at Endor; and though we have elsewhere shown, that nothing but the spirit of God could have foreseen the inevitable destruction of Saul, his sons, and his army, it was very easy for any man of tolerable sagacity to foresee the defeat of Pompey’s raw and undisciplined troops by the hardy veterans of the victorious Caesar. It would be endless to enumerate all the fallacious evo¬ cations of ghosts, and the ambiguous responses returned by those pretended spirits, of which we have received ac¬ counts from the poets and historians of the celebrated na¬ tions of antiquity. We shall therefore proceed to mention a few wdnch occur in the fabulous history of more modern nations, and then leave the subject to the meditation of our readers. In Mallet’s Northern Antiquities we have the following account of a necromantic exploit, between which and the descent of the ancient heroes into hell it is impossible not to remark a striking similitude. Odin, the sovereign of man, arises. He saddles his horse Sleipner; he mounts, and is conveyed to the subterra¬ nean abode of Hela. The dog which guards the gates of death meets him. His breast and his jaws are stained with blood. He opens his voracious mouth to bite, and barks a long time at the father of magic. Odin pursues his way; and the infernal cavern resounds and trembles under his horse’s hoofs. At length he reaches the deep abode of death, and stdps near the eastern gate, where stands the tomb of the prophetess. He sings with a voice adapted to call up the dead ; he looks towards the world; he engraves Runic characters upon her tomb; he utters mysterious words; and he demands an answer, until the prophetess is constrained to arise and utter the words of the dead. “ Who is this unknown that dares to disturb VOL. XVI. my repose, and drag me from the grave, in which I have Necropolis been dead so long, all covered with snow, and moistened II with the rain ?” Nectanum. The Gaelic druids pretended to be masters of the same ^ Y secret. This is evident from the name of a species of di¬ vination called taghairm, not uncommon amongst the Scotch Highlanders so recently as in the beginning of the eigh¬ teenth century. This word seems to be compounded of ta, which in some parts of the Highlands is still used to de¬ note a spirit or ghost, and ghairm, which signifies calling upon or invoking. Taghairm, therefore, in its original im¬ port, is necromancy in the most proper sense of that word. There were different kinds of taghairm, of which one was practised in Skye. The diviner covered himself with a cow’s hide, and repaired at night to some deep-sound¬ ing cave, whither the person who consulted him followed soon afterwards without any attendants. At the mouth of the cave he proposed aloud the questions of which he want¬ ed solutions; and the man within pronounced the respon¬ ses in a tone of voice similar to that with which the oes, or pretended demons of antiquity, gave from beneath the ground their oracular answers. That in the latter days of taghairm, the Gaelic diviners pretend to evoke ghosts, and from them to extort solutions of difficulties proposed, we have no positive evidence ; but that such was the original pretence there can be little doubt, when w7e reflect either upon the place where this species of divina¬ tion was practised, or upon the import of the word by which it was denominated. NECROPOLIS, a suburb of Alexandria, in Egypt. It signifies the City of the Dead, and was the place where temples, gardens, and superb mausoleums were erected. Here Cleopatra is said to have applied the asp to her breast, to prevent her being led in triumph by Augustus, who endeavoured to save her. NECROSIS, vBxeaff/s, in Medicine, a complete mortifica¬ tion of any part. It is also called sideratio and sphacelus. NECTANEBUS, or Nectanabis, a king of Egypt, who bravely defended his country against the Persians. His grandson of the same name formed an alliance with Age- silaus, king of Sparta, and with the assistance of that prince he quelled a rebellion of his subjects. Some time after¬ wards, he was joined by the Sidonians, Phoenicians, and in¬ habitants of Cyprus, who had revolted from the king of Persia. This powerful confederacy was soon attacked by Darius, the king of Persia, who marched at the head of his troops. Nectanebus, to defend his frontiers against so dangerous an enemy, levied twenty thousand mercenary soldiers in Greece, the same number in Libya, and sixty thousand were furnished in Egypt. But this numerous body was not equal to the Persian forces, and Nectanebus, being defeated in battle, gave up all hopes of resistance, and fled into Ethiopia, where he found a safe asylum. From that time the kingdom of Egypt became tributary to the king of Persia. NECTAR, amongst ancient poets, the drink of the fa¬ bulous deities of the heathens; in contradistinction to their solid food, which was called ambrosia. NECTARINE, a fruit differing in nothing from the common peach, of which it is a species, but in having a smoother rind and a firmer pulp. NECTARIUM, from nectar, the fabled drink of the gods, is defined by Linnaeus to be a part of the corolla, or appendage to the petals, appropriated for containing the honey, a species of vegetable salt under a fluid form, which oozes from the plant, and is the principal food of bees and other insects. But notwithstanding this definition, which seems to con¬ sider the nectarium as necessary a part of the corolla as the petals, it is certain that all flowers are not provided with this appendage, neither indeed is it essential to fructifica- K NEC Nectarium. tion. There is, besides, a manifest impropriety in terming the nectarium a partot the corolla. Linnaeus might, with equal propriety, have termed it a part or appendage of the stamina, calyx, or pointal, as the appearance in question is confined to no particular part of the flower, but is as va¬ rious in point of situation as of form. The truth is, the term nectarium is exceedingly vague, and, if any deter¬ minate meaning can be affixed to it, is expressive of all the singularities which are observed in the different parts ot flowers. > The tube or lower part of flowers with one petal Lin¬ naeus considers as a true nectarium, because it is generally found to contain the sweet liquor formerly mentioned. This liquor Pontedera compares to that called amnios in pregnant animals, which enters the fertile or impregnated seeds ; but that this is not at least its sole use, is evident from the circumstance, that the honey or liquor in ques¬ tion is to be found in flowers where there are either no seeds, or such as, from the want of male organs, can¬ not be impregnated. Thus the male flowers of nettle and willow, the female flowers of sea-side laurel and black bryony, the male and female flowers of clutia, kiggelaria, and butcher’s broom, all abound with the honey or nectai alluded to. Vaillant was of opinion that the nectarium formed an es¬ sential part of the corolla ; for which reason he distinguish¬ ed the singular appearances in fennel flower and colum¬ bine by the name of petals. Ihe coloured leaves which are now termed petals he denominated thejlower-cup. That the nectarium, however, is frequently distinct from the pe¬ tals, is evident both from the well-known examples just mentioned, and likewise from the flowers of monkshood, hellebore, isopyrum, fennel flower of Crete, barrenwort, grass of Parnassus, chocolate nut, cherleria, and sauva- gesia. . . These general observations being premised, we proceed to take a nearer and more particular view of the principal diversities, both in form and situation, of this striking ap¬ pendage of the flower. 1. In many flowers the nectarium is shaped like a spur or horn ; and that either in flowers of one petal, as valerian, water milfoil (utricularia), but- terwort, and calves-snout; or in such as have more than one, as larkspur, violet, fumitory, balsam, and orchis. 2. In the following plants, the nectarium is properly a part of the corolla, as lying within the substance of the petals : Ranunculus, lily, iris, crown imperial, water-leaf, mouse- tail, ananas or pine-apple, dog’s-tooth violet, piperidge bush, vallisneria, hermannia, uvularia, and swertia. 3. The nectarium is frequently placed in a series or row within the petals, though entirely unconnected with their substance. In this situation it often resembles a cup, as in narcissus. A nectarium of this kind is said by Lin¬ naeus to crown the corolla. The following are examples . Daffodil, sea daffodil, campion, viscous campion, swallow- wort, stapelia, cynanchum, nepenthes, cherleria, balsam- tree, African spiraea, witch-hazel, olax, and passion-flower. 4. In Indian cress, buckler, mustard, Barbadoes cheuy, and monotropa, the nectarium is situated upon or makes part of the calyx. 5. The nectarium in bastard flower- fence is seated upon the antherae or tops of the stamina; whence the name adenanthera, or glandular anthera, which has been given to this genus ol plants. In the following it is placed upon the filaments: Bean-caper, bay, fraxi- nella, marvel of Peru, bell-flower, lead-wort, roella, and commelina. 6. In hyacinth, flowering-rush, stock July flower, and rocket, the nectarium is placed upon the seed- bud. 7. In honey-flower, orpine, buck-wheat, collinsonia, lathrsea, navelwort, mercury, clutia, kiggelaria, sea-side laurel, and African spiraea, it is attached to the common receptacle. Lastly, In ginger, nettle, dyer’s weed, heart- seed, costus, turmeric, grewia, bastard orpine, vanelloe, NED shew-tree, and willow, the nectariurn is of a very singular Ne^ei construction, and cannot properly fall under any ot the foregoing heads. . „ In discriminating the genera, the nectarium often lur- nishes an essential character. Plants which have the nectarium distinct from the pe¬ tals, that is, not lodged within their substance, are affirmed by Linnaeus to be generally poisonous. The following are adduced as examples, viz. monkshood, hellebore, colum¬ bine, fennel-flower, grass of Parnassus, barren-wort, olean¬ der, marvel of Peru, bean-caper, succulent swallow-wort, fraxinella, and honey-flower. ... rp, NEDJED, a central province of Arabia, ihe name signifying high or elevated ground, is applied to this coun¬ try in opposition to Tehama, or “ low lands, which is ap¬ plied to the tracts of low land along the coast by which the border of high land in Arabia is encompassed. It is described by Burckhardt as an oblong tract, extending be¬ tween three and four days’ journey from west to east, and two journeys in breadth from south to north. ^ It is a cul¬ tivated territory, the most populous portion ot Arabia, irri¬ gated by many ancient wells lined with stone, wThich are ascribed by the inhabitants to a primeval race of giants. These wells are from twenty-five to thirty fathoms deep, being mostly the property of individuals, who exact a cer¬ tain contribution from the tribes whose cattle they supply with water. Within this province there are above twenty- six small towns or villages. The chief town is Bereyda, where the sheikh resides. Under the Wahabees Derayah became a place of note. Nedjed is celebrated thioughout Arabia for its excellent pastures, which, after rain, abound even in its deserts, and feed an excellent breed of camels, more numerous here than in any other of the Arabian pro¬ vinces of equal extent. It is called the mother of camels, and Arabs resort to it from all quarters for the supply of their own herds; it also furnishes a constant supply, not only to Hedjaz, but to Syria and Yemen. A camel in Ned¬ jed costs ten dollars. There is also an excellent breed ot horses in this country, so remarkable that the finest blood Arab horses are properly denoted Nedjed horses. But the temporary ascendency of the Wahabees caused a diminu¬ tion of the breed, as many of the Arabs sold their horses to foreign ports, lest they should be pressed into the ser¬ vice of the Wahabee chief, who frequently required cavalry. Nedjed is subject to scarcity, caused by the failure of rain, and consequently of herbage. T his soon affects the cattle of the Bedouins, who seldom expect in this country more than three or four successive years of plenty, though ab¬ solute famine does not occur above once in ten or fifteen years. It is generally accompanied by epidemical diseases, much like the plague, consisting of violent fevers, which prove fatal to great numbers. Nedjed is peopled by small tribes of Bedouins, who never leave it, and by settlers inter¬ married with them, and often travelling as merchants to Damascus, Bagdad, Medina, Mekka, and Yemen. Here the pure manners of the Arabs continue unaltered by conquest, and retain all their original simplicity ; nor have they been contaminated by an influx of strangers ; for if we except the caravans of pilgrims travelling from Bagdad to Mekka, no foreigners ever pass through Nedjed. “ For this rea¬ son,” says Burckhardt, “ I consider Nedjed and the moun¬ tains between Tayf and Sanaa as the most interesting por¬ tion of Arabia, affording more objects of inquiry to a tra¬ veller than any other part of the peninsula.” Those who are settled here as travelling merchants export camels and woollen cloaks, of which the best are manufactured at El Hasse ; and from Bagdad they receive rice, the produce of the banks of the Tigris, and articles of dress, especially the keffies or handkerchiefs, striped, green, and yellow, made of cotton, wool, or silk. The Bedouins wear these over their bonnets. From Mekka they obtain coffee, drugs, and per- NEE eedham. fumes, much used amongst them, particularly a perfume ' much valued which comes from Mocha. A spirit of com¬ merce prevails generally amongst the inhabitants of Ned- jed, where the merchants are wealthy, and of better repute for honesty than most of the eastern traders. The settlers are generally armed with matchlocks, and they constitut¬ ed, during the ascendency of the Wahabee power, the best portion of their infantry. They are generally successful in repelling the inroads of the other wandering Arabs on their pastures. Saltpetre being abundant, every family makes its own yearly provision of gunpowder. NEEDHAM, John Tuberville, was born at London on the 10th of September, in the year 1713. His parents were descended from ancient and noble families. His fa¬ ther, who had once possessed a considerable patrimony at Hilston, in the county of Monmouth, was of the younger and Catholic branch of the Needham family ; whilst the head of the elder and Protestant branch was Lord Kilmory, created viscount in the year 1625. The father of Mr Needham died young, and left but a small fortune to his four chil¬ dren. His eldest son, who is the subject of this article, prosecuted his studies under the secular clergy of the English college at Douay, where he took orders, taught rhetoric for several years, gave eminent proofs of sagacity and genius, and surpassed all the other professors of that seminary in the knowledge of experimental philosophy. In 1740, he was engaged by bis superiors in the service of the English mission, and was intrusted with the direction of the school erected at Twyford, near Winchester, for the education of the Roman Catholic youth. In 1744, he was appointed professor of philosophy in the English col¬ lege at Lisbon, where, on account of his bad health, he remained only fifteen months. After his return, he pass¬ ed at London and Paris several years, which were princi¬ pally employed in microscopical observations, and in other branches of experimental philosophy. The results of these observations and experiments were published in the Phi¬ losophical Transactions of the Royal Society of London in 1749, and at Paris in 1750 in one volume 12mo; and an account of them was also given by M. de Buffon, in the first volumes of his Natural History. An intimate con¬ nection existed between the illustrious French naturalist and Mr Needham; they made their experiments and ob¬ servations together, though the results and systems which they deduced from the same objects and operations were totally different. Mr Needham was admitted as a member of the Royal Society of London in the year 1747, and of the Antiquarian Society some time afterwards. From the year 1751 to 1767 he was chiefly employed in finishing the education of several English and Irish noblemen, by attending them as tutor in their travels through France, Italy, and other countries. He then retired from this wan¬ dering life to the English seminary at Paris, and, in 1768, was chosen by the Royal Academy of Sciences in that city a corresponding member. When the regency of the Austrian Netherlands, desirous to promote the revival of philosophy and literature in that country, formed the project of an imperial academy, which was preceded by the erection of a small literary society to prepare the way for its execution, Mr Needham was in¬ vited to Brussels by the Count de Cobentzel and the pre- sident Neny, and was successively appointed chief director ot both these foundations. He held this place, together wit i some ecclesiastical preferments he had obtained in the onl Co«ntr‘es, until his death, which happened on the i of December 1781. His piety, temperance, and purity ot manners, were eminent; his attachment to the doctrines and duties or Christianity was inviolable. His opposition to modern infidels was indefatigable, and even passionate ; ut his probity was untainted. He was incapable of every species of duplicity .; his beneficence was universal, and NEE 75 his unsuspecting candour rendered him often the dupe of Needham- perfidy. Market The papers of Mr Needham, inserted in the Philosophical II Transactions, are contained in vols. xlii. xliv. xlv. and li., v ee^ e' „ and treat, 1. of tubulous concretions; 2. of worms in smut¬ ty corn, observed with the microscope; 3. of some electri¬ cal experiments made at Paris ; 4. ot Buffbn’s burning mir¬ ror; 5. of the generation, composition, and decomposition of animal and vegetable substances ; and, 6. of the discovery of asbestos in France. Again, his works printed at Paris in French embrace, 1. New Microscopical Discoveries, 1745; 2. The same enlarged, 1750; 3. Observations on the Ge¬ neration of Organized Bodies, 1769. He had also a consi¬ derable share in the well-known controversy respecting the origin of the Chinese, and adopted the opinion of M. de Guignes, that that people are descended from the ancient Egyptians and Phoenicians. (See the article Hierogly¬ phics.) He arrived at this conclusion from comparing the characters upon the breast and forehead of a bust in the museum of 1 urin, supposed to be of Egyptian origin, with those of a Chinese dictionary in the Vatican, which had been printed at Pekin, and from perceiving a considerable resemblance between the characters on the one and con¬ tained in the other. The result of his investigation he published in a pamphlet, entitled De Inscriptione quadam jEgyptiaca Taurim inventa, et characteribus, JEgyptiis olim et Sinis communibus exarata, 1761, in 8vo. Nothing could be fairer or more candid than the manner in which Mr Needham proceeded in comparing the characters on the bust with those in the dictionary; but the theory dedu¬ ced from this comparison is nevertheless entirely ground¬ less and imaginary. In all forms of hieroglyphical writing, such casual coincidences may easily be detected, because picture-writing is the original basis of each ; and hence the existence of such resemblances affords no proof whatever of one nation being descended from, or in any way connected with, another. But there is scarcely any similarity between the Chinese characters and the Egyptian hieroglyphs. The former were originally mere rude delineations of external objects, which, in process of time, came to be variously' combined and modified, until they assumed the peculiar forms in which we now find them. The latter, however, were constructed on a far more complex and artificial principle, and of their aggregate number only a small por¬ tion can be referred to picture-writing. To seek resem¬ blances, therefore, amongst things so disparate, is rather to indulge the fancy than to prosecute rational inquiry. Needham-Market, a town of the county of Suffolk, in the parish of Barking, and hundred of Bosmere-cum- Claydon, seventy-four miles from London. It is well built, has a market on Wednesday, and had formerly some manufactures of cloth, which are now abandoned. The population amounted in 1801 to 1348, in 1811 to 1301, in 1821 to 1300, and in 1831 to 1466. NEEDLE, a very common little instrument, made of steel, pointed at one end, pieced at the other, and employ¬ ed in sewing, embroidery, tapestry, and the like. Needles form a very considerable article in commerce; and as there is scarcely any commodity cheaper, the con¬ sumption of them is almost incredible. The sizes vary from No. 1, the largest, to No. 25, the smallest. In the manufacture of needles, German and Hungarian steel is in general preferred. In making this article, the first thing is to pass the steel through a coal fire, and under a hammer, to bring it out of its square figure into a cylindrical one. This being done, it is di awn through a large hole of a wire-drawing iron, and returned into the fire, and drawn through a second hole of the iron smaller than the first; and thus successively from hole to hole, till it has acquired the degree of fine¬ ness required for that species of needles ; observing, every 76 NEE Needle, time it is drawn, that it be carefully greased over with lai d, 'to render it more manageable. Ihe steel, thus reduced to a fine wire, is cut in pieces of the length of the needles in¬ tended • and these pieces are flattened at one end on the anvil, in order to form the head and eye. They are then put into the fire to soften them farther, and thence taken out and pierced at each extreme of the flat part on the anvil, by force of a puncheon of well-tempered steel, and laid on a leaden block, to bring out, with another puncheon, the little piece of steel remaining in the eye. ^ ™r- ners are then filed off the square of the heads, and a little cavity is filed on each side of the flat of the head ; the point is then formed with a file, and the whole filed over. They are next laid to heat red hot on a long narrow ^on, crook¬ ed at one end, in a charcoal fire ; and when taken oj thence, they are thrown into a bason of cold water to ha den. On this operation a good deal depends; tQo much heat burns them, and too little leaves them soft; the me¬ dium is only learned by experience. When they are thus hardened, they are laid in an iron shovel, on aJire rnoje or less brisk, in proportion to the thickness of the need es^ taking care to move them from time to time. This serves to temper them, and take off their brittleness ; but great care must be taken as to the degree of heat applied. They are then straightened one after another with the hammer, the coldness of the water used in hardening them having twisted the greater part of them. <», . The next process is that of polishing them. To this, the workmen take twelve or fifteen thousand needles, and range them in little heaps against each other upon a piece of new buckram sprinkled with emery dust. The needles being thus disposed, emery dust is thrown over them which is again sprinkled with oil of olives; at last the whole is made up into a roll, well bound at both ends This roll is then laid on a polishing table, and over it a thick plank loaded with stones, which two men work back¬ wards1^ and forwards a day and a half, or two days succes¬ sively ; by which means the roll is continually agltated by the weight and motion of the plank over it, and the needle withinside being rubbed against each other with oil and emery are insensibly polished. After polishing, they are taken out, and the filth washed off them with hot water and soap ; they are then wiped in hot bran, a little mois¬ tened placed with the needles in a round box, suspended in the air by a chord, which is kept stirring till the bran and needles be dry. The needles being thus wiped in two or three different brans, are taken out and put m wooden vessels to have the good separated from those whose point or^yes have been broken either in polishing or w.pmg ; the points are then all turned the same way, and smoothed with an emery stone turned with a 'vl’e1e> ^ “Pf make finishes them, and there remains nothing but to make Sup ntojackets of 250 each. Needles were first made In England by a native of India, in 1545, but the art wa, lost at his death ; it was, however, recovered in 1560, by Christopher Greening, who settled with his three children at Long Crendon in Bucks, where the manufactory has been carried on from that time to the present day. Dipping-NEEBLE, or Inclinatory Needle, a magnetical needlef so hung that, instead of playing horizontally, and pointing out north and south, one end dips or inclines to the horizon, and the other points to a certain degree of elevation above it. See the article Magnetism. Mannetical Needle, in Navigation, a needle touched with a loadstone, and sustained on a pivot or centre, on which playing at liberty, it directs itse f to certain points in or under the horizon. See the article Magnetism. Needles, sharp pointed rocks north of the Lie of W^ht. They are situated at the western extremity of the island which is a point of high land from which they have been disjoined by the washing of the sea. There were former- N E G ly three of these lofty white rocks, the tallest of which, Needwoo* called Lots Wife, rose 120 feet above low-water mark, 1 ^ and in its shape resembled a needle; but being under- mined by the constant efforts of the waves, it was thrown down, and totally disappeared. _ , ,. , ^ .. NEED WOOD FOREST, in Staffordshire, between the Trent, Dove, and Blythe, and near Uttoxeter, is said to exceed all the forests in England in the excellence of its soil and the fineness of its turf. . f T * NEELAB, a town of Hindustan, in the province ot hore, situated on the east bank of the Indus, and t u y miles south-south-west from Attock. Long. 70. o3. E. Lat. 32 50. N. NEELAHCUND AH, a town of the Afghan territories, in the province of Lahore, on thTe Induf. for^-JeveLn ™ 32 south-south-east from Attock. Long. 71. 49. E. Lat. NEELGOUND, a fortress and district !out^ ^ India, province of Bejapoor, situated on the Malpur a River. It is now included in the British territories. NEELGUNGE, a town of Hindustan, in the province of Oude, in the vicinity of which indigo 18 P5oduc:ed *n abundance ; it is fourteen miles west by south from Luck- now. Long. 80. 42. E. Lat. 26. 47. N. . NE EXEAT REGNO, in English law, is a writ to re- strain a person from going out of the kingdom without the king’s license. . , „ NEFASTI DIES, in Roman antiquity, an appellation given to those days in which it was not allowed to adnn- nister justice, or to hold courts. They were so ca»ed be¬ cause non fari licebat, the prator was not aUowe l to p nounce the three solemn words or formulas of the law,*, dim, addim, I give, I appoint, I adjudge. These day were distinguished in the calendar by the letter N. tor ne fasti; or N§P. nefastusprimo, when the day was only ne- in the forenoon, or first part. The days of a mixed kind were called intercisi. NEGADA, more properly Anegada, the m®st ”0v; ' ern of the cluster of islands known by the name of the Vir¬ gin Islands, in the West Indies, and unhappily celebta^d for the number of shipwrecks, in many cases accompanie with a heavy loss of life, which it has occasioned. It was first permanently settled by individuals who hoped to reap considerable advantages by co lecting the spod of the ves¬ sels wrecked on its inhospitable shores. J , • the loose ground which covered it was capable of bearing provision crops, and even cotton; whilst the rearing of stock, and the sale of the underwood, whjchwaspiogres- sively cleared away, and, being very full of gum, had preference in the market of St Thomas, furnished a fur¬ ther resource. The great object, however, always has been the wreck of vessels ; and the indolence ot the inhabitants is only thoroughly roused by the cry of “ a vessel on the reefs.” The moment this is raised, all becomes activity and bustle. Boats and small craft of every description push off towards the scene of destruction, and both skill and intrepidity are exercised to the uttermost to get first on board. The surface of Anegada is the production of the tribe of litkophylce, based, it is presumed, on a subma¬ rine elevation. The appearance ot the island when ap proached is remarkable.1 First, single trees show them¬ selves on the horizon; then the most elevated pai t of the island, called Frank’s Landing, whicb q^^Tower eicrht miles off in clear weather ; and, last ot al, the lowe bid. Its greatest length is 10-07 English miles, and its greatest breadth, which is about the middle, 4-2o Enghs miles • but it afterwards diminishes towards both extrem - ties The reef by which it is surrounded approaches nearest on the north side of the island, where at.one.P"‘”t^ “fnl,^ with the shore. Generally speaking, the distance of the reef from the island is inconsiderable on the northern, u e N E G ■capatam ern, and partly on the southern side. To the eye Ane- II n-ada appears a dead flat, with only a turpentine or loblolly Negative tree overlooking the underwood. However, the ground Sign* rises gradually from north to south, about sixty feet. ' There is some rather productive soil on the island, and a great number of ponds, which, in long-continued dry wea¬ ther, produce considerable quantities of salt. There is abundance of fresh water ; and the surrounding sea abounds with good fish, as do also the ponds. There are some rare specimens of plants in Anegada. The feathered tribes are very numerous ; and there is an abundance of domestic animals. The population of Anegada consists at present of eleven white and twenty-one coloured and black fa- milies. . , , c NEGAPATAM, a considerable seaport in the south ot India, and province of Tanjore. It is well fortified, and has a regular citadel of a pentagonal form, with wet ditches. It has no considerable trade ; but is frequently touched at by ships for refreshments, which are plentiful. The town lies at the north side of the citadel, near which is the mouth of a small river, capable of receiving vessels which draw little water. At the mouth of the river there is a bar, over which the surf breaks with great violence in bad weather, and renders the entrance dangerous. The anchoring place is about three miles from the shore, opposite the town, where there is very little current; and to the south-east of the town, at the distance of five miles, there is a shoal above five miles in length, having from three to six fathoms water on it. It wyas originally a small village, but was for¬ tified and improved by the Portuguese. In 1660, it was taken from them by the Dutch, who strengthened its forti¬ fications, and made it the capital of their settlements on the Coromandel coast, where they established a mint. Un¬ der their rule it enjoyed a long period of tranquillity ; its trade increased, and it became a very flourishing city. In 1781 it was besieged and taken by the British with about 4000 troops, and wras finally ceded to them at the peace of 1783; since which period the fortifications have been ne¬ glected, and the trade has been transferred to other places. Long. 79. 55. E. Lat. 10. 43. N. NEGATION, in Logic, is an act of the mind affirming one thing to be different from another; as that the soul is not matter. See Logic. NEGATIVE, in general, something which implies a ne¬ gation. Thus we say negative quantities, negative powers, negative signs, and the like. Negative Sign. The use of the negative sign, in al¬ gebra, is attended with several consequences which at first are admitted with difficulty, and has sometimes given oc¬ casion to notions which appear to have no real foundation. This sign implies, that the real value of the quantity re¬ presented by the letter to which it is prefixed is to be sub¬ tracted ; and it serves, with the positive sign, to keep in view what elements or parts enter into the composition of quantities, and in what manner, whether as increments or decrements, that is, whether by addition or subtraction. It serves therefore to express a quantity of an opposite quality to the positive, as a line in a contrary position, a motion with an opposite direction, or a centrifugal force in opposition to gravity; and thus often saves the trouble of distinguishing and demonstrating separately the various cases of proportions, and preserves in view their analogy. But as the proportions of lines depend on their magnitude only, without regard to their position, and motions and forces are said to be equal or unequal, in any given ratio, without regard to their directions; and, in general, the proportion of quantity relates to their magnitude only, without determining whether they are to be considered as increments or decrements; so there is no ground to ima¬ gine any other proportion of — b and 4- « (or of — 1 and 1) than that of the real magnitude of the quantities repre- N E G 77 Negrais Isle. sented by b and a, whether these quantities are, in any par- Neginoth ticular case, to be added or subtracted. It is the same thing to subtract the decrement as to add an equal incre¬ ment, or to subtract — b from a — 5, as to add to it 4- 6. And because multiplying a quantity by a negative num¬ ber implies only a repeated subtraction of it, the multiply¬ ing — b by — « is subtracting — 5 as often as there are units in n ; and is therefore equivalent to adding 4- 5 so many times, or the same as adding 4- nb. But if we in¬ fer from this, that 1 is to — n as — 5 to nb, according to the rule, that unit is to one of the factors as the other fac¬ tor is to the product, there is no ground to imagine that there is any mystery in this, or any other meaning than that the real magnitudes represented by 1, n, b, and nb are proportional. For that rule relates only to the magni¬ tude of the factors and product, without determining whe¬ ther any factor, or the product, is to be addgd or subtract¬ ed. But this must likewise be determined in algebraic computations; and such is the proper use of the rules con¬ cerning the signs, without which the operation could not proceed. Because a quantity to be subtracted is never produced in composition by any repeated addition of a po¬ sitive, or repeated subtraction of a negative, a negative square number is never produced by composition from the root. Hence V — 1, or the square root of a negative, im¬ plies an imaginary quantity; and, in resolution, it is a mark or character of the impossible cases of a problem, unless it is compensated by another imaginary symbol or supposi¬ tion, when the whole expression may have a real signifi¬ cation. Thus 1 V — 1, and 1 — V — 1, taken sepa¬ rately, are imaginary, but their sum is 2; as the conditions that would separately render the solution of a problem im¬ possible, in some cases destroy each other’s effect when conjoined. In the pursuit of general conclusions, and of simple forms representing them, expressions of this kind must sometimes arise where the imaginary symbol is com¬ pensated in a manner that is not always so obvious. By proper substitutions, however, the expression may be transformed into another, in which each particular term may have a real signification as well as the whole expres¬ sion. The theorems which are sometimes briefly discover¬ ed by the use of this symbol may be demonstrated with¬ out it by the inverse operation, or in some other way; and though such symbols are of some use in the computations by the method of fluxions, their evidence cannot be said to depend upon arts of this kind. NEGINOTH. This term is found before some of the Psalms, as Psalm Ixvii. It signifies stringed instruments of music, to be played on by the fingers, or female musicians; and the titles of those Psalms where this word is found may be thus translated : “ A psalm of David to the mas¬ ter of music, who presides over the stringed instruments.” NEGOMBO, a large and populous village in the island of Ceylon, advantageously situated lor carrying on the in¬ land trade, particularly with Colombo, by a branch of the Mullivaddy River. It has a fort, erected by the Dutch, for the protection of the cinnamon cutters, which still remains; and there are, besides, three long ranges of buildings which serve for barracks and storehouses. The neighbouring county produces in abundance cinnamon and rice, and the gardens are well stocked with vegetables. This place was taken without opposition by the British in 1796. Long. 79. 49. E. Lat. 7. 19. N. NEGRAIS Isle, a small island situated at the western mouth of the Irrawaddy River, in the kingdom of Ava. It has an excellent harbour, without exception the most se¬ cure in the Bay of Bengal, as a ship launches at once into the open sea, and may work to the southward without any other impediment except what the monsoon opposes. Cape Negrais, the south-westernmost extremity of India beyond 78 N E G ■ Negro, the Ganges, is in long. 93. 15. E. and in lat. 16. N., and is ''•'-"'v''*-' known by a temple of Buddha erected on it. This island was occupied by the British in 1697, and it was supposed that it would entirely command the trade of Pegu, and form a secure harbour for the British ships during the monsoons. But these hopes proved fallacious, and the set¬ tlement was withdrawn. In the year 1757 the island was ceded to the British by Alompra, the Burman emperor, and the place was formally taken possession of in 1757. In 1759 some disputes having arisen between the Burman governor and the English resident, the place was suddenly attacked in the month of October, and all the British who could not effect their escape were suddenly put to death. Since this period the Burmans have been excessively jea¬ lous of any visits from Europeans, and will not permit any ships to pass up the Bassein branch of the river. NEGRO, homo pelle nigra, a name applied to a variety of the human species, entirely black, and found in the torrid zone, especially in that part of Africa which lies within the tropics. In the complexion of negroes we meet with many various shades ; but they likewise differ from other men in the features of their face. Round cheeks, high cheek-bones, a forehead somewhat elevated, a short, broad, fiat nose, thick lips, small ears, ugliness, and irregularity of shape, characterize their external appearance. The origin of the negroes, and the cause of their remark¬ able difference in colour from the rest of the human species, have much perplexed philosophical inquirers. Mr Boyle has observed, that it cannot be produced by the heat of the climate ; for although the heat of the sun may darken the colour of the skin, yet experience does not show that it is * sufficient to produce a new blackness like that of the ne¬ groes. In Africa itself, several nations of Ethiopia are not black; nor were there any blacks originally in the West Indies. In many parts of Asia under the same parallel with the African region inhabited by the blacks, the people are only tawny. Dr Barriere alleges that the gall of ne¬ groes is black, and, being mixed with their blood, is depo¬ sited between the skin and scarf-skin. Dr Mitchell of Vir¬ ginia, in the Philosophical Transactions, has endeavoured, by many learned arguments, to prove that the influence of the sun in hot countries, and the manner of life of their inhabitants, are the remote causes of the colour of the ne¬ groes, Indians, and other races. Lord Karnes, on the other hand, contends, along with many others, that no physical cause is sufficient to change the colour, and the regular features of white men, to the dark hue and the deformity of the negro. The arguments of these writers have been ex¬ amined with much acuteness and ingenuity by Dr Stan¬ hope Smith of New Jersey, Dr Hunter, and Professor Zim¬ merman, who have rendered it in a high degree probable that the action of the sun is the original and chief cause of the black colour, as well as of the distorted features, of the negro. In the article Man the reader will find opinions stated which have been advanced in regard to the varieties of the human race. The most serious charge brought against the poor ne¬ groes is, that of the vices which are said to be natural to them. If, indeed, they be such as their enemies represent them, treacherous, cruel, revengeful, and intemperate, by a necessity of nature, they must be of a different race from the whites ; for although all these vices abound in Europe, it is evident that they proceed not from nature, but from bad education, which gives to the youthful mind such deep im¬ pressions as no future exertions can completely eradicate. Let us inquire coolly if the vices of the negroes may not have a similar origin. In every part of Africa with which the nations of Europe have any commerce, slavery of the worst kind prevails. Three fourths of the people are slaves to the rest, and the children are born to no other inheritance. Most parts of N E G the coasts differ in their governments; some are absolute Negro, monarchies, whilst others approach to an aristocracy. In ^ v both the authority of the chief or chiefs is unlimited, ex¬ tending to life, and it is exercised as often as caprice dic¬ tates, unless death is commuted into slavery, in which case the offender is sold; but if the shipping will not buy the per¬ son condemned, he is immediately put to death. Fathers of free condition have power to sell their children, but this power is very seldom enforced. In Congo, however, a fa¬ ther will sell a son or daughter, or perhaps both, for a piece of cloth, a collar or girdle of coral or beads, and often for a bottle of wine or brandy. A husband may have as many wives as he pleases, and repudiate or even sell them, though with child, at his pleasure. The wives and concubines, though it be a capital crime for the former to break their conjugal faith, have a way of ridding themselves of their husbands, if they have set their affections upon a new gallant, by accusing them of some crime for which the punishment is death. In a word, the bulk of the people in every state of Africa are born slaves to great men, reared as such, held as property, and as property sold. There are indeed many circumstances by which a free man may become a slave, such as being in debt, and not able to pay; and in some of these cases, if the debt be large, not only the debtor, but his family likewise, become the slaves of his creditor, and may be sold. Adultery is commonly punished in the same manner, both the offending parties being sold, and the purchase-money paid to the injured husband. Obi, or pre¬ tended witchcraft, in which all the negroes firmly believe (see Witchcraft), is another, and a very common offence, for which slavery is adjudged as a suitable punishment; and it extends to all the family of the offender. There are various other crimes which subject the offender and his children to be sold ; and it is more than probable, that if there were no buyers, the poor wretches would be mur¬ dered without mercy. In such a state of society, what dispositions can be look¬ ed for in the people, but cruelty, treachery, and revenge ? Even in the civilized nations of Europe, blessed with the lights of law, science, and religion, some of the lower or¬ ders of the community consider it as a very trivial crime to defraud their superiors ; wdiilst almost all look up to them with stupid malevolence or rancorous envy. That a depressed people, wffien they get pow'er into their hands, become revengeful and cruel, the present age affords a dreadful proof in the conduct of the anarchists of a neigh¬ bouring nation ; and is it wonderful that the negroes of Africa, unacquainted with moral principles, blinded by the cruelest and most absurd superstitions, and whose customs tend to eradicate from the mind all natural affection, should sometimes display to their lordly masters of European ex¬ traction the same spirit which was so generally displayed by the lower orders of Frenchmen towards their ecclesiastics, their nobles, and the family of their murdered sovereign? When we consider that the majority of the negroes groan under the most cruel slavery, both in their own country, and in every other where they are to be found in considerable numbers, it cannot excite surprise that they are in general treacherous, cruel, and vindictive. Such are the caprices of their tyrants at home, that they could not preserve their own lives or the lives of their families for any length of time, except by a perpetual vigilance, which must necessa¬ rily degenerate, first into cunning, and afterwards into treachery ; and it is not conceivable that habits formed in Africa should be instantly thrown off in the West Indies, where they become the property of men whom some of them must consider as a different race of beings. But the truth is, that the bad qualities of the negroes have been greatly exaggerated. Mr Edwards, in his va¬ luable History of the West Indies, assures us that the Mandingo negroes display such gentleness of disposition N E G N E G 79 egro. and demeanour', as would seem the result of early educa- ’ tion and discipline, were it not that, generally speaking, they are more prone to theft than any of the African tribes. It has been supposed that this propensity, amongst other vices, is natural to a state of slavery, which degrades and corrupts the human mind in a deplorable manner; but why the Mandingos should have become more vicious in this respect than the rest of the natives of Africa in the same condition of life, is a question he cannot answer. “ The circumstances which,” according to the same au¬ thor, “ distinguish the Koromantyn or Gold Coast negroes from all others, are firmness both of body and mind ; a fe¬ rociousness of disposition ; but withal, activity, courage, and a stubbornness, or what an ancient Roman would have deemed an elevation of soul, which prompts them to fp- terprises of difficulty and danger, and enables them to meet death, in its most horrid shape, with fortitude or in¬ difference. They sometimes take to labour with great promptitude and alacrity, and have constitutions well adapt¬ ed for it; for many of them have undoubtedly been slaves in Africa. But as the Gold Coast is inhabited by various tribes, which are engaged in perpetual warfare and hosti¬ lity with each other, there cannot be a doubt that many of the captives taken in battle, and sold in the European settlements, were of free condition in their native coun¬ try, and perhaps the owners of slaves themselves. It is not wonderful that such men should endeavour, even by means the most desperate, to regain the freedom of which they have been deprived; nor do I conceive that any fur¬ ther circumstances are necessary to prompt them to ac¬ tion, than that of being sold into captivity in a distant country. One cannot surely but lament,” says our author, “ that a people thus naturally intrepid, should be sunk into so deplorable a state of barbarity and superstition; and that their spirits should ever be broken down by the yoke of slavery. Whatever may be alleged concerning their ferociousness and implacability in their present notions of right and wrong, I am persuaded that they possess quali¬ ties which are capable of, and well deserve, cultivation and improvement. “ Very different from the Koromantyns are the negroes imported from the Bight of Benin, and known in the West Indies by the name of Eboes. So great is their constitu¬ tional timidity and despondency of mind, as to occasion them very frequently to seek, in a voluntary death, a re¬ fuge from their own melancholy reflections. They require, therefore, the gentlest and mildest treatment to reconcile them to their situation ; but if their confidence be once obtained, they manifest as great fidelity, affection, and gratitude, as can reasonably be expected from men in a state of slavery. The females of this nation are better la¬ bourers than the men, probably from having been more hardly treated in Africa. “ The natives of Whidah, who in the West Indies are generally called Papaws, are unquestionably the most do¬ cile and best disposed slaves that are imported from any part of Africa. Without the fierce and savage manners of the Koromantyn negroes, they are also happily exempt from the timid and desponding temper of the Eboes. The cheerful acquiescence with which these people apply to the labours of the field, and their constitutional aptitude for such employment, arise, without doubt, from the great attention paid to agriculture in their native country. Bos- man speaks with rapture of the improved state of the soil, the number of villages, and the industry, riches, and obliging manners of the natives. He observes, however, Negropont that they are much greater thieves than those of the Gold II Coast, and very unlike them in another respect, namely, in the dread of pain, and the apprehension of death. They are, says he, so very apprehensive of death, that they are unwilling to hear it mentioned, for fear that alone should hasten their end ; and no man dares to speak of death in the presence of the king, or any great man, under the pe¬ nalty of suffering it himself, as a punishment for his pre¬ sumption. He relates further, that they are addicted to gaming beyond any people of Africa. All these propen¬ sities are observable in the character of the Papaws in a state of slavery in the West Indies. That punishment which excites the Koromantyn to rebel, and drives the Ebo negro to suicide, is received by the Papaws as the chastisement of legal authority, to which it is their duty to submit patiently. The case seems to be, that the generality of these people are in a state of absolute sla¬ very in Africa, and, having been habituated to a life of la¬ bour, they submit to a change of situation with little re¬ luctance,” In a word, as the colour,*and features, and moral quali¬ ties of the negroes may be accounted for by the influence of climate and the modes of savage life, so there is good reason to believe that their intellectual endowments may likewise be referred to circumstances, and that they are equal to those of the whites who have been found in the same hapless situation. NEGROLAND. See Nigritia. NEGROPONT, an island in the Mediterranean, the ancient Euboea, extending in north latitude from 37. 56. to 39. 8., and in east longitude from 22. 41. to 24. 33. It is connected with the mainland by a very long bridge, and is a mountainous country, inhabited by sixty thousand persons, two thirds of whom are Greeks. The capital is a city of the same name, being the ancient Chalcis, and is estimated to contain sixteen thousand inhabitants, most of whom are Turks. It is situated in long. 23. 34. E. and lat. 38. 31. N. NEGRO, Rio, a large river of Patagonia, in South America. The banks of this river, as well as the numerous islands with which it is in many parts studded, are cover¬ ed with low willows, from which cause it is sometimes call¬ ed the Rio Sauces. Its Indian name is Cusu-Leubu, signifying Rio Negro, or the Black River, from the dark hue of its waters.1 The results of the expedition alluded to in the note were important, although not so completely satisfactory as could have been wished, as the large affluent from the north, supposed to be Diamante, was not examin¬ ed. But the great point established was, that it is possible to navigate the main stream of the Rio Negro from its mouth, in the Southern Atlantic, to the very foot of the Cordillera of Chili, within fifty miles of Valdivia, upon the shores of the Pacific, a distance of about 525 miles without including the windings of the river. From its mouth in south latitude 41° 5', to the great island of Cho- leechel or Chuelechel, in latitude 39°, its general course tends to the north-north-west, although in some parts it is exceedingly tortuous. As far as this point, the bottom of the river is sand, and the country is described as an arid sandy level, destitute of vegetation, excepting some insu¬ lated patches along the shore, which being from time to time flooded, are covered with good pasturage. The island ol Choleechel, which constitutes so conspicuous a feature in the map of the river, is twenty-seven miles in length on't^aufhoritv i,!nPor,tant a feature„in the geography of that part of South America, has hitherto been laid down solely thp Rnvnl r 0 ty 0fuX Talkner s work upon Patagonia, published in this country in the year 1775. In the year 1830 however he Royal Geographical Society of London published a correct account and map of it, whicli were derived from / journal of an Ori’ for the pSs°e byTe^ 1Uo ^ in th* ^ ^782-17^ by bon BasiUo vX^noTTho /ad been employed I pose by the Spanish government. I o these we have had recourse in drawing up the above article. 1 ' 80 N E H Negros and nine in width ; but appears to produce nothing ex- II cept pasturage. From this island to Diamante, a distance Nehavend. miles, the course of the river is nearly due west; ^ its bottom is gravelly, with many pebbles, and the aspect of the country is for the most part desolate from want of vegetation. The Diamante, at its confluence with the Rio Negro, is nearly as large as the latter river; and as it appears to be the drainage of numerous streams which descend from the eastern side of the Cordillera, between the latitudes of 32° and 36°, its periodical floods must be formidable, and much greater than those of the Rio Ne- oro. It is much intersected by small islands overgrown with stunted willows. The low lands along the shoie are sterile, and all beyond a range of steep red cliffs, by which these are bounded, the country appeared totally destitute of herbage, not a tree being visible. From about the con¬ fluence of these two rivers, the Rio Negro takes a south- south-western direction, running between high precipi¬ tous banks, where in some parts the river was not more than five hundred yards across. After these are passed, the country becomes more level, and the stream widens. Another considerable tributary, called the Pichi Epicuntu, which descends from some of the snowy peaks ot the Cor¬ dillera, flows into the Negro in lat. 39° 35'S. farther onwards the river becomes intersected by innumerable islands, extremely shallow in some parts; and the bottom is strewed with rounded stones and boulders, which in¬ crease in size as the range of the Cordillera is approached. The windings of the river also become very large, and, from flowing in a main current nearly due south, it takes a westerly direction, and then bends to the north. Ihe farthest point reached by Villarmo was in lat. 39 40 ; and here within fifty miles of Valdivia, his course was check¬ ed b’v the Indians, who appear to have been apprehensive that his expedition had for its main object the stoppage ot a great pass near Choleechel, by which they were in the habit of making predatory excursions into the province ot Buenos Ayres. He, in fact, points out how these marauders might be effectually kept in check by establishing a fort at the point above mentioned; and, alter a lapse ot h ty vears, this suggestion has been carried into effect by the authorities of Buenos Ayres. In 1833 a military post was formed at the Choleechel, which will not only secure the southern parts of the republic from the hostile inroads ot the Indians, but will no doubt ultimately lead to our ob¬ taining much new and interesting information respecting a vast tract of country as yet unknown to us. The depth of the Rio Negro varies much, as well as the current, de¬ pending in some measure on the breadth ot the bed ot the river; and it is liable to great changes m the time ot the floods, which are periodical, and twice in the year, trom the rains in the winter, and the melting ot the snows in summer. With regard to its breadth, nothing satisfactory can be stated, as it varies exceedingly at all times, and widens and contracts at different seasons of the year. NEGROS, one of the Philippine Islands, in the East¬ ern Seas, situated due north of Luzon or Laconia,^ about the 123d degree of east longitude. It is about 145 miles in length by twenty-five in average breadth, and is fruit¬ ful in rice, for which the inhabitants pay tribute. Ihe island was so named by the Spaniards, trom the Papuan or oriental negroes, its original inhabitants, who still in¬ habit the mountains, being in a state of savage independ¬ ence, and continually at war with each other. Long. 122. 30. E. Lat. 10.10. N. . . , NEHAVEND, or Nehanud, a town of Persia, in the province of Irak, sixty miles south of Hamadan. It is ce¬ lebrated for a battle fought there between the Saracens and Persians in the year 638, when the Sassanian dynasty was overthrown, and the Saracens established themselves on the throne of Persia. N E H NEHEMIAH.or Nehemias.soo ofHachaliah, was born Nehemiat, at Babylon during the captivity (Nehem. i. 1, 2, et seq^). ^ v',4 He was, according to some, of the race of the priests ; but according to others, he was of the tribe of Judah and the royal family. Those who maintain the former opinion support it by a passage in Ezra (x. 10), where he is called a priest; but those who believe that he was of the race of the kings of Judah say that as Nehemiah for a considerable time governed the republic of the Jews, it is probable he was of that tribe to which the kings always belonged. Ne¬ hemiah mentions his brethren Hanani, and some, other Jews, who, having come to Babylon during the captivity, ac¬ quainted him with the sad condition of their country ; and the office of cup-bearer to the king of Persia, to which Nehemiah was promoted, is considered as a further proof that he was of an illustrious family. Lastly, he excuses himself from entering into the inner part of the temple, probably because he was only a layman (Nehem. vi. 11). “ Should such a man as I flee ? And who is there that, being as I am, would go into the temple to save his life ?” The Scripture (Ezra, ii. 63; Nehem. vii. 65) calls him tirshatha, or cup-bearer; no doubt because he held this employment at the court of Artaxerxes Longimanus. He had an exceeding great tenderness for the country of his fathers, although he had never seen it; and one day, when some Jews newly arrived from Jerusalem acquainted him with the miserable state of that city, that its walls were beaten down, its gates burned, and the Jews become a re¬ proach amongst all nations, he became so sensibly affected with this relation, that he fasted, prayed, and humbled him¬ self before the Lord, imploring him to be favourable to the design which he had then conceived of asking the king s permission to rebuild Jerusalem. In the course.of his attendance at court, he presented the cup to the king ac¬ cording to custom, but with a countenance sad and de¬ jected, which the king observing, entertained some suspi¬ cion that he had conceived some evil design ; but Nehe¬ miah disclosing the occasion of his disquiet, explained the cause of his grief, upon which Artaxerxes gave him per¬ mission to go to Jerusalem, and repair its w'alls and gates, upon this condition, however, that he should return to court at a time appointed. Letters were accordingly made out, directed to the governors beyond the Euphrates, with orders to furnish Nehemiah with the timbers necessary for covering the towers and gates of the city, and the house designed for Nehemiah himself^ who was now appointed governor of Judaea, in the year of the world 3350. . . Nehemiah having arrived at Jerusalem with the king s commission, went round the city, and having viewed the condition of the walls, assembled the chief of the people, produced his commission, and exhorted them to under¬ take the reparation of the gates and the walls of the city. Finding every person ready to obey him, he immediately began the work. The enemies of the Jews observing these works in such forwardness, employed all the means in their power to deter Nehemiah from this undertaking, and made several attempts to surprise him ; but finding that their designs had been discovered, and that the Jews were upon their guard, they had recourse to stratagem, endeavouring to draw him into an ambuscade in the fields, where they pretended they would finish the dispute at an amicable conference. But Nehemiah gave them to understand that the work he had begun required his personal attendance, and that therefore he could not meet them. He returned the same answer to four several messages that they sent, one after another, on the same subject. Sanballat, the chief of the enemies of the Jews, together with his associates, sent information of a report that the Jews were building the walls of Jerusalem solely with the design of renderinglt a place of strength, to support them in an intended revolt; and that Nehemiah had also suborned 11 dersel- ; ers. N E I ■ false prophets to favour his designs, and to encourage the people to choose him king; wherefore, in order to put a stop to these rumours, he advised Nehemiah to come to him, that they might confer together, and adopt such reso¬ lutions as should be found convenient. Nehemiah, how¬ ever, gave himself no trouble on this account, but returned for answer, that all these accusations were false, and had been made at random. About the same time he discovered that a false prophet called Shemaiah had been corrupted by his enemies, and that some of the chief men of the city were secretly in confederacy with them. Yet all this did not discourage him ; he went on with his work, and hap¬ pily completed it in fifty-two days after it had been com¬ menced. We read in the books of the Maccabees that Nehemiah sent to search for the holy fire, which before the captivity of Babylon the priests had hidden in a dry and deep pit; but not finding any fire there, and only a thick muddy water, he sprinkled this upon the altar; wdiereupon the wood which had been moistened with this water took fire as soon as the sun began to appear. When this miracle came to the knowledge of the king of Persia, he caused the place to be encompassed with walls where the fire had been hidden, and granted great favours and privileges to the priests. It is recorded in the same books, that Nehemiah erected a library, in which he placed whatever he could find, either of the books of the prophets, of King David, or of such princes as had made presents to the temple. Lastly, he returned to Babylon, according to the promise which he had made to king Artaxerxes, about the thirty-second year of that prince’s reign, and in the year of the world 3563; but he subsequently revisited Jerusalem, where he died in peace, about the year 3580, having governed the people of Judah for about thirty years. The book which, in the English Bible, as well as in the Hebrew, bears the name of Nehemiah, is in the Latin Bible called the book of Esdras ; and it must be confessed, that though this author speaks in the first person, and though at the first reading one would think that he had written it day by day as the transactions occurred, yet there are some things in the book which could not have been writ¬ ten by Nehemiah himself. For example, memorials are quoted, in which were registered the names of the priests in the time of Jonathan the son of Eliashib, and even down to the times of the high priest Jaddus, who went out to meet Alexander the Great, which must have been afterwards added. It may well be questioned whether this Nehemiah be the same that is mentioned in Ezra, ii. 2, and Nehem, vii. 7, as one who returned from the Babylonian captivity under Zerubbabel; since from the first year of Cyrus to the twentieth of Artaxerxes Longimanus, no less than ninety-two years intervene ; so that Nehemiah must at this time have been a very old man, at the lowest compu¬ tation an hundred, and consequently incapable of being the king’s cup-bearer, of taking a journey from Shushan to Jerusalem, and of behaving there with all the courage and activity which have been ascribed to him. We may therefore conclude that this was a different person, though of the same name, and that Tirshatha, the other name by which he is called (Ezra, ii. 63; and Nehem. vii. 65), de- notes the title of his office, and, both in the Persian and Chaldaic tongues, was the general name given to the king’s deputies and governors. NEIDERSELTERS, a town of the bailiwick of Id- stein, in the duchy of Nassau, in Germany, celebrated for the mineral spring which yields the water known through Europe by the name of Seltzer water. Besides , u-1 .usec* on .l^e sPot’ more than two millions and a halt of jugs of it are despatched to different countries, and produce a clear revenue of L.5000. The town is si- VOL. XVI. N E L 81 Nelson. tuated in a picturesque country, and contains about 900 Neisse resident inhabitants, but receives a great deal of company during the summer season. NEISSE, a city, the capital of a district of the same name, in Prussian Silesia. It stands at the junction of the river Biele with the Neisse, in a marshy situation, though at the height of 580 feet above the level of the sea. It is strongly fortified, especially with effective ditches, and con¬ tains an Episcopal palace, seven Catholic and two Lutheran churches. There is a Catholic college, with about 300 students, besides a large endowed grammar school. It con¬ tains 9440 inhabitants, amongst whom are extensive ma¬ nufacturers of linen goods; besides which, hosiery, hats, brandy, and other articles, are manufactured. Long. 17. 14. E. Lat. 51. 25. N. NEITRA, a circle of the province of the Lower Da¬ nube, in the Austrian kingdom of Hungary.* It extends over 2662 square miles, and contains a population of 348,500 persons, chiefly of the Sclavonian race; and it com¬ prises two cities, thirty-eight market towns, and 462 vil¬ lages and hamlets. The capital is a city of the same name, the seat of a bishop, containing 500 houses and 3958 inhabitants, whose chief trade is in wine. Long. 17. 58. 56. E. Lat. 48. 19. 10. N. NEJIN, a city of Russia, in the province of Tcherni- gow, in what was formerly distinguished as Little Russia. It stands on the river Oster. The streets are intermixed with large gardens, filled with fruit trees of various kinds. It contains 1000 houses, two convents, and sixteen churches, all built after the model of those in Moscow, and is reckon¬ ed the handsomest town to the south of that capital. The inhabitants are about 12,000, composed, besides Russians and Kossacks, of many Greek and Armenian families. The most distinguished building is the Gymnasium Bezborodko, founded by the count of that name. It is a large edifice, adorned by a colonnade of twelve Ionic pillars, and, being surrounded by high trees, it has a truly noble appear¬ ance. It was instituted for the education of young noble¬ men. NELSON, Horatio, Lord Viscount, the greatest na¬ val commander that any age or country has produced, was the son of Edmund and Catherine Nelson, and was born on the 29 th of September 1758, at the parsonage house of Burn¬ ham-Thorpe, a village in the county of Norfolk, of which his father was rector. The maiden name of his mother was Suckling; her grandmother was an elder sister of Sir Robert VValpole, and the subject of this notice was named after the first Earl of Orford. Mrs Nelson died in 1767, leaving eight out of eleven children. Upon this oc¬ casion her brother, Captain Maurice Suckling, of the navy, visited Mr Nelson, and promised to take care of one of the boys. Three years afterwards, when Horatio was only twelve years of age, being at home during the Christmas holidays, he read in the county newspaper that his uncle had been appointed to the Raisonnable of sixty-four guns, and immediately applied to his father for permission to go to sea with his uncle. The boy was then receiving his edu¬ cation at North Walsham ; and his constitution, which was naturally weak, had been much impaired by an attack of the ague, at that time one of the most common diseases in England. But his father’s circumstances were straitened, and he had no prospect of seeing them bettered; he knew that it was the wish of providing for himself by which Ho¬ ratio was chiefly actuated ; he also understood the boy’s character, and conceived that, in whatever station he might be placed, he would, if possible, climb to the top of the tree. The uncle was accordingly written to, and gave a reluc¬ tant consent to the proposal which had been made to him. “ What,” said he, in reply, “ has poor Horatio done, who is so weak, that he should be sent to rough it out at sea ? But let him come, and the first time we go into action a L / 82 nelson. Nelson. .rrWgajSSSSrr- assHSssss cmmfonhe dLdpule”es%cting the Falkland Islands ; but advantage of a rising fog, set out m rccrm:d":hi^tVM%rand°c^ Tr4i?,hS dered as too inactive a life for a boy, and Nelson a which they were only enabled to keep at fore sent a voyage to the West Indies in a merchan p, g aSci,asrn,;n the ice. Captain Lutwidge, seeing their commanded by a person who had served as mas er s ma 7 7 which had the desired effect of fright- Nelson, ] under his uncle in the Dreadnought. He returned a prac¬ tical seaman, but with no affection for the kings service, and was received by his uncle on board the^Tnumph, then lying at Chatham, in the month of July 1772. Not many months after his return, his inherent love ot enterprise was excited by hearing that two ships were fit¬ ting out for a voyage of discovery towards the North Pole. From the difficulties expected on such service, these ves¬ sels were to take out none but effective men, msteac. of the usual number of boys. This, however, did not deter Ne - son from soliciting to be received, and by his uncle s inte¬ rest he was admitted as cockswain under Captain Lutwidge, the second in command. The voyage was undertaken in con¬ sequence of an application from the Royal Society; and the Honourable Captain John C. Phipps, eldest son of Lord Mulgrave, volunteered his services to command the expe¬ dition. The Racehorse and Carcass, bombs, were selected as the strongest ships, and therefore best adapted for such a voyage; and they were taken into dock and further danger, fired a gun, which had the desired effect of fright¬ ening the beast; and, on their return to the ship, he sternly reprimanded young Nelson for conduct so unworthy of the office he filled. When asked what motive he could have had for leaving the ship to hunt a bear, he replied,‘‘ I wished to kill it, that I might carry the skin to my father. The ships were paid off shortly after their return, and the youth was then placed by his uncle with Captain Farmer in the Seahorse of twenty guns, which was about to sail for the East Indies in the squadron of Sir Edward Hughes. In this ship he was rated as a midshipman, and attracted attention by his general good conduct. But when he had been about eighteen months in India, he felt the effects o the climate of that country, so perilous to European con¬ stitutions, and became so enfeebled by disease that he lost for a time the use of his limbs, and was brought almost to the brink of the grave. He embarked for England in the Dolphin, Captain Pigot, with a body broken down by sic - ness, and spirits which had sunk with his strength. But a voyage; and they were taken into dock ana iu t ’ , , materially improved during the voyage, and his strengthened, to render them as secure as possible again s ^ speedily Repaired the injury it had sustained, the ice. Two masters of Greenlandmen [ 0n the 8th of Apnl 1777 he passed, with much credit to pilots for each ship; and tJieu]first1 lo.1'd.1of ,thev J’ himself his examination for a lieutenancy, and next day Lord Sandwich, with a iaudab'e solicitude^ to t^ of_ receive’d his commission as second lieutenant of the Lowes- that every thing had been provided to the wis thirtv-two nuns then fitting out for Jamaica. In fleers. The expedition sailed from the Nore on the 4th of it"11 Fre"ch June 1773, and in the course of thefollowng month came ^ ^ harassing our ,rade in in sight of Spitzbergen, whence they procee , , [j ^'est Indies; distinguished himself on various occasions Island, beyond which they 8d.—^‘eVe" ” by hTs 00!“; and enterprise; and formed a friendship with situated in the latitude ot 81. 21. north, mt aavanu g y iocker, 0f the Lowestoffe, which continued further in search ot an opening, the s "P® "'“e duriiJhis life. Having been warmly recommended to Sir ice, in which they became suddenly wedged, no fissure during ms me d j ,1 that gtati of any kind being visible; and m this critical situat on flag-ship, and soon after- they remained five days, “"8 "^iSilThav"^ wardXcaine firsUiemenant. OnBthe £th of December ^^di^eTcrhad^f Stated by k ^htest ^7^"^ and6the fee to^telfTegun loTrift toT westward! crew of the Glasgow when that ship was accidentally set the ships were at length got clear. The season was now so (11th of June 1799), far advanced that nothmg more could have been att^ p ^ ^ obtained the rank of post-captain, and with it the corn¬ ed, if indeed any iing vn,,raKiP. and they had care- mand of the Hinchinbrook of twenty-eight guns, an ene- summer had been unusually favourable, and t y mv’s merchantman sheathed with wood, which had been fully surveyed the vast wall of ice extending f« Ann ^Tn,^0Tvice ^ Count d'Esking, with a fleet twenty degrees between the latitude^ of 80 a 125 gail men of war and transports, and a reputed force out discovering the7f &siJ ]y of 25,000 men, now threatened Jamaica from St Domingo, expedition returned to England in October, y offered hig gervices tQ the admiral and the gover- afterwards the ships were paid ort. . . f Dallim? and was appointed to command the During this voyage Nelson gave several ind,cat,onsef ™Port^oy.l, the most import- that daring and fearless spirit which ever afteiwards s island. D’Estaing, however, attempted tinguished him. Having been appointed to command one P . formidable armament, and the British of the boats sent out to explore a passage into the open nothing with th s tormmabte arma e, ^ ^ had water, he was instrumental in saving a boat belonging to g inst the Spanish colonies. This project was to the Racehorse from a singular but imminen t danger. So o situated upon the river of that name, of the officers having fired at and struck a walrus the f^Xke Ntaragua into the Gulf of Mexi- wounded animal immediately dived, and having b™uS1 “P . k l i e|f master of the lake itself, and of the a number of its companions, they all joined ■" an attack “.• Leon. and thus t0 cut off the com- upon the boat. tha” die crew could munication between the northern and southern possessions ^Hherfr::^ ^sSTnlinr^e^ But a!,hough the gene- N E L son. ral’s plans were well formed, the nature of the country had v—not been studied so accurately as its geography. The diffi¬ culties which occurred in fitting out the expedition delayed it till the season was too far advanced ; and the men were thus sent to adventure themselves, not so much against an enemy whom they might have beaten, as against a cli¬ mate which would effectually do the enemy’s work. Early in 1780, five hundred men, destined for this service, were convoyed by Nelson from Port-Royal to Cape Gracias a Dios in Honduras; and, on the 24th of March, they reached the river San Juan, where Nelson’s services were to ter¬ minate. But not a man in the expedition had ever been up the river, or knew the distance of any fortification from its mouth. Nelson, however, not being one to turn his back when so much was to be done, resolved to carry up the soldiers, and, in spite of every difficulty, succeeded in conveying them a hundred miles up a river which none but Spaniards had navigated since the time of the bucca¬ neers. On the 9th of April they reached a small island, called St Bartolomeo, which the Spaniards had fortified as an outpost, to command the river, in a rapid and difficult part of the navigation. Nelson, at the head of a few seamen, leaped upon the beach, and being gallantly supported by Despard, then a captain in the army, advanced against the battery, which he at once stormed, or, in his own phrase, boarded, driving away the Spaniards, and capturing their guns. The castle of San Juan, situated sixteen miles higher up, was the next object of attack. Nelson advised that it should instantly be carried by assault; but he was not the commander, and it was thought proper to observe the for¬ malities of a siege. The attack commenced on the 13th, and the place surrendered on the 24th of April. But victory procured to the conquerors none of that relief which they had expected. No supplies of any kind were found; the castle itself proved worse than a prison; the huts which served as hospitals were surrounded with filth and putrid hides; sickness at length became general, leav¬ ing few men able to perform garrison duty; and the rains continued with scarcely any interval from April till Octo¬ ber, when this baleful conquest was abandoned. Of 1800 men who had been sent to different posts upon this wretch¬ ed expedition, not more than 380 ever returned. Nel¬ son himself was saved by a timely removal, though not until after he had been seized with the prevailing dysen¬ tery. Having been appointed to succeed Captain Glover in the Janus of forty-four guns, he sailed for Jamaica; but on reaching Port-Royal he found himself so greatly re¬ duced by the disorder, that he was compelled to ask leave to return to England, as the only means of recovery. He was taken home in the Lyon, by Captain, afterwards Admi¬ ral, Cornwallis, to whose care and kindness he believed him¬ self indebted for the preservation of his life. In three months, however, his health was so far re-esta¬ blished that he applied for employment; and being ap¬ pointed to the Albemarle of twenty-eight guns, he was sent to the North Seas, and kept there during the whole winter, a mode of conduct which he deeply resented, as equally cruel to the individual, and detrimental to the service. In this cruize, however, he gained a considerable knowledge of the Danish coast and its soundings. On his return he was ordered to Quebec, and in consequence sailed for Ca¬ nada, During this cruise, the Albemarle had a narrow escape from four French sail of the line and a frigate, which having come out of Boston, gave chase to her. Confiding in his own skill in pilotage, Nelson, perceiving that they gained on him, boldly ran amongst the numerous shoals of St George’s bank, and thus escaped. In October 1782, he sailed from Quebec with a convoy of transports for New \ ork, where he joined Lord Hood, who, with a detachment of Rodney s victorious fleet, was then at Sandy Hook. His professional merit was already so well known, that Lord 83 Hood, on introducing him to the Duke of Clarence, who was Nelson, at that time serving as a midshipman in the Barfleur, told 'v--—^ his royal highness that, if he wished to ask any questions in naval tactics, Captain Nelson could give him as much in¬ formation as any officer in the fleet. In November he ac¬ companied Lord Hood to the West Indies, and continued there in active employment till the peace of 1783, when the Albemarle returned to England, and was paid off. After his arrival in England, Nelson, finding it prudent to economise his half-pay during the peace, went to France, and took lodgings at St Omers, where he remained till the spring of the following year. In the interval he had lost his favourite sister, and formed an attachment for the daughter of an English clergyman, whom his straitened cir¬ cumstances alone prevented him from marrying. On his return he was appointed to the Boreas of twenty-eight guns, which had been ordered to the Leeward Islands as a cruiser on the peace establishment. Whilst on this station, where he found himself senior captain, and consequently second in command, he evinced the utmost zeal and activity in protecting British interests, and in causing the navigation act to be r’espected, especially by the Americans, who had attempted, under various pretences, to establish an indepen¬ dent commerce with the West India Islands ; a line of con¬ duct which involved him in much trouble, without procur¬ ing him reward or even acknowledgment, the thanks of the treasury having been transmitted to the commander- in-chief, who had thwarted instead of encouraging him in the discharge of an arduous and important duty. He had, however, something to console him amidst his perplexities. Having become acquainted with an amiable and accom¬ plished lady, the widow of Dr Nisbet, a physician, and then only in her eighteenth year, he made proposals of marriage, which were accepted, and they were married on the 11th of March 1787, the Duke of Clarence, who had gone out to the West Indies the preceding winter, being present, by his own desire, to give away the bride. During his ser¬ vice upon this station he had ample opportunities of observ¬ ing the scandalous practices of the contractors, prize-agents, and other persons in the West Indies connected with the naval service, and he did every thing in his power to check them, although, unhappily, without success. The Boreas returned to England in June, but was not paid off till the end of November, having been kept nearly five months at the Nore as a slop and receiving ship. Nelson was still in a very precarious state of health ; and this unworthy treat¬ ment, whether it proceeded from intention or neglect, ex¬ cited in his mind the strongest indignation. His resent¬ ment, however, was appeased by the favourable reception which he met with at court, when presented to his majesty by Lord Howe ; and having fully explained to that noble¬ man the grounds upon which he had acted, he retired to enjoy the pleasures of domestic happiness at the parsonage- house at Burnham-Thorpe, which his father had given him as a residence. But the vexatious affair of the American captures was not yet terminated. He was harassed with threats of prosecution, and, in his absence on some business, a writ or notification was served on his wife, upon the part of the American captains, who now laid their damages at L.20,000. When presented with this paper, his indigna¬ tion was excessive; and he immediately wrote to the trea¬ sury, that unless he was supported by government he would leave the country. “ If sixpence would save me from prosecution,” said he, “ I would not give it.” The answer he received, however, quieted his fears; he was told to be under no apprehension, for he would assuredly be supported ; and here his disquietude upon this subject seems to have ended. During the time which he spent in retirement, he re¬ peatedly requested the admiralty not to leave him to rust in indolence; but his various applications were unsuccess- S O N. 84 NELSON. Nelson. ful. At the commencement of the French war, however, it was judged expedient to employ him ; and, on the 30th of January 1793, he was appointed to the Agamemnon of sixty-four guns, and placed under the orders of Lord Hood, then appointed to the chief command in the Mediterra¬ nean. The limits prescribed to this article admit not of our entering into any details of his various achievements upon this station. The high opinion which Lord Hood entertained of his talents and ability, as well as courage, was manifested by the arduous services with the execution of which his lordship intrusted him. Being sent to Corsica with a small squadron to co-operate with Paoli and the party opposed to France, he undertook the siege of Bastia, and in a short time reduced it. The place capitulated on the 19th of May 1794. He next proceeded in the Aga¬ memnon to co-operate with General Sir Charles Stuait in the siege of Calvi. Here Nelson had less responsibility than at Bastia; he was acting with a man after his own heart, who slept every night in the advanced battery. But the service proved not less hard than that of the formei siege ; twenty-five pieces of heavy ordnance having been dragged to the different batteries, mounted, and, all but three, fought by seamen. Here Nelson received a serious injury. A shot having struck the ground near him, drove the sand and small gravel into one of his eyes. He spoke of it lightly at the time, and in fact suffered it to confine him only one day ; but the sight of the eye was neverthe¬ less lost. After the fall of Calvi his services were, by a strange omission, altogether overlooked, and his name was not even mentioned in the list of wounded. Nelson felt himself not only neglected, but wronged. “ They have not done me justice,” said he; “ but never mind, 111 have a gazette of my own.” And, on another occasion, the same second-sight of glory led him to predict that one day or other he would have a long gazette to himself. “ I feel,” said he, “ that such an opportunity will be given me. If I am in the field of glory, I cannot be kept out of sight.” , Lord Hood now returned to England, and the command devolved upon Admiral Hotham. At this time the affairs of the Mediterranean wore a gloomy aspect. Tuscany had concluded peace with France ; Corsica was in danger ; Genoa was threatened; and the French, who had not yet been taught to feel their inferiority upon the seas, openly braved us on that element. Having a superior fleet in the Mediterranean, they now sent it out with express orders to seek the English and engage them. In the action which followed between the English fleet under Admiral Hotham, and that which had come out from Toulon, Nelson greatly distinguished himself, manoeuvring and fighting his ship with equal ability and determination ; and when the action was renewed the following day, he had the honoui of hoisting the English colours on board of the Ca Iia and the Censeur, which both struck to him, and were the only ships of the enemy taken on that occasion.1 About this time Nelson was made colonel of marines, a mark of ap¬ probation which he had rather wished for than expected ; and soon afterwards the Agamemnon was ordered to Ge¬ noa to co-operate with the Austrian and Sardinian forces. This was indeed a new line of service, imposing multifari¬ ous duties, and involving great responsibility; yet it was also one for which Nelson had already evinced a singulai aptitude, and in which, had he been at all seconded by the land forces, his assistance would have led to important results. But there was no unity in the views of the allied powers, no cordiality in their co-operation, no energy in their councils. They acted upon no fixed principle, and their officers were distinguished only for their utter incapa¬ city. Through the gross misconduct of the Austrian general, Devins, the allies were completely defeated by an army of boys, and the French obtained possession of the Genoese coast from Savona to Voltri, thus intercepting the direct communication between the Austrian army and the bngiis fleet. After this disgraceful affair, the Agamemnon was recalled, and sailed for Leghorn to refit, being literally riddled with shot, and having all her masts and yards wounded. , , . Sir John Jervis having arrived to take the command in the Mediterranean, Nelson sailed from Leghorn m the Aga¬ memnon, which had now been repaired, and joined the ad¬ miral in Fiorenzo Bay. When the French took possession of Leghorn, he blockaded that port, and landed a force in the isle of Elba to secure Porto Ferrajo. Soon afterwards he took the island of Capraja; and the British cabinet hav¬ ing resolved to evacuate Corsica, he ably performed this humiliating service. He was then ordered to hoist his broad pendant on board of the Minerve frigate, Captain George Cockburn, and to proceed, with the Blanche, to Porto Ferrajo, and bring away the troops and stores left at that place. On his way thither he fell m with two Spa¬ nish frigates, the Sabina and Ceres, the former of which, after an action of three hours, during which the Spaniards lost 164 men, struck to the Minerve. The Ceres, how¬ ever, had got off from the Blanche; and as the prisoners had hardly been conveyed on board of the Minerve when another enemy’s frigate came up, Nelson was compelled to cast off the prize and go a second time into action. But after a short trial of strength, this new antagonist wore and hauled off; and as a Spanish squadron of two sail of the line and two frigates now came in sight, the commo¬ dore made all sail for Porto Ferrajo, whence he soon re¬ turned with a convoy to Gibraltar. Having completed this service, he immediately pro¬ ceeded to the westward in quest of the admiral, being ap¬ prehensive lest a general action should take place before he could join the fleet. Off the mouth of the Straits he fell in with the Spanish fleet, and, reaching the station off Cape St Vincent on the 13th of February 1797, he commu¬ nicated this intelligence to Sir John Jervis, by whom e was now directed to shift his broad pendant on board t e Captain, of seventy-four guns. Before sunset the signal was made to prepare for action, and to keep in close order during the night; and at day-break on the 14th the ene¬ my were in sight. The British force consisted of two ships^ of 100 guns, two of 98, two of 90, eight of 74, and one of 64, with four frigates, a sloop, and a cutter ; the Spaniards had one ship of 136 guns, six of 112 guns each, two of 84, and eighteen of 74, with ten frigates and a brig. The dispro¬ portion was no doubt great, but it was in a great measure neutralised by the superiority of the British crews, and the tactical ability displayed by the British admiral. Before the enemy could form a regular order of battle, Sir John Jer¬ vis, by carrying a press of sail, came up with them, passed through their fleet, then tacked, and thus cut off nine of their ships from the main body. These ships now attempt¬ ed to form on the larboard tack, either with a design of passing through the British line, or of running to leeward of it, and thus rejoining their friends. But only one of them succeeded, because, being covered with smoke, her intention was not discovered till she had reached the rear, the others were so warmly received that they put about, took to flight, and did not appear again in the action till Nelsot: 1 Nelson urged the admiral to pursue the enemy, and follow up his advantage to the utmost; but the latter rePh^T t'keiften contented • we^have done very well.” The captain of the Agamemnon did not understand such timid reasoning. Ha ” said hT“ and allowed the eleventh to escape when it had been possible to have got at her, I could never have called it well done.” He adds, that, if his advice had been followed, they would have had such a day as the annals of Lnglan never pro NELSON. ; elson. its close. The admiral being now at liberty to direct his dron at the blockade of Cadiz. During this service, his per- •'■'v'-'-''attention to the enemy’s main body, still superior in num- sonal courage was eminently signalized. In a night attack ber to his whole fleet, made signal to tack in succession, upon the Spanish gun-boats (3d of July 1797), his barge Nelson whose station was in the rear of the British line, was assailed by an armed launch, carrying twenty-six men, perceivino' that the Spaniards were bearing up before the whilst he had with him. only the usual complement of ten wind with an intention of forming line and joining their men and the cockswain, besides Captain Freemantle. After separated ships, or of avoiding an engagement, disobeyed a severe conflict, hand to hand, eighteen of the enemy the signal without a moment’s hesitation, and ordered his were killed, all the rest wounded, and the launch taken, ship to be wore. This at once brought him into action Twelve days after this rencontre, Nelson sailed at the head with seven of the enemy’s ships, four of which were first- of an expedition against Tenerilfe. It having been ascer- rates. But he was nobly supported by Troubridge in the tained that a homeward-bound Manilla ship had recently Culloden ; and the Blenheim also came to his assistance, put into Santa Cruz, the expedition was undertaken in the The Salvador del Mundo and San Isidro dropped astern, hope of capturing this rich prize. But it was not fitted out and were fired into with tremendous effect by the Excellent, upon the scale which Nelson had proposed ; no troops were Captain Collingwood, to whom the latter struck. At this embarked ; and although the attack was made with great moment the Captain was closely engaged with three first- intrepidity, the attempt failed. The boats of the squadron rates, the San Nicolas, an eighty-gun ship, and a seventy- being manned, a landing was effected early in the night, four ; the Blenheim was ahead, and the Culloden, crippled, and Santa Cruz taken and occupied for about seven hours ; had drifted astern. Disdaining the parade of taking posses- but the assailants, finding it impracticable to storm the ci- sion of beaten enemies, Collingwood immediately ranged up, tadel, were obliged to prepare for retreat, which they effect- passed within ten feet of the San Nicolas, giving her a tre- ed without molestation, agreeably to stipulations which had mendous broadside, and then pushed on for the Santissima been made with the Spanish governor by Captain Trou- Trinidad of 136 guns. The San Nicolas having luffed up, bridge, whose firmness and presence of mind were conspi- the San Joseph fell on board of her, and Nelson resumed his cuously displayed on this occasion. The total loss of the station abreast of them, and close alongside. The Captain English in killed, wounded, and drowned, amounted to 250. being now incapable of further service, either in the line or Nelson himself was amongst the wounded, having, in step- in cliase, Nelson directed the helm to be put a-starboard, and ping out of the boat to land, received a shot through the calling the boarders, ordered them to board. The San Nico- right elbow, which shattered the whole arm, and rendered las was carried after a short struggle, and the San Joseph amputation necessary. boarded from the San Nicolas, Nelson himself leading the Nelson was now obliged to return to England, where way, and exclaiming, “ Westminster Abbey or victory.” honours awaited him sufficient to cheer his mind amidst This was the work of an instant; but before Nelson could the sufferings occasioned by the loss of his arm. Letters reach the quarter-deck of the Spanish ship, an officer look- were addressed to him by the first lord of the admiralty ed over the rail, and said they surrendered. This daring and the Duke of Clarence; the freedom of the cities of achievement was effected with comparatively small loss, London and Bristol was transmitted to him; he was in- and Nelson himself received only a few bruises. The Cap- vested with the order of the Bath ; and he also received tain, however, had suffered severely in the action. She a pension of L.1000 a year.1 His sufferings from the lost had lost her fore-top-mast; not a sail, shroud, nor rope limb, however, were long and painful. A nerve had been was left; her wheel had been shot away; and a fourth part taken up in one of the ligatures at the time of the opera- of the loss sustained by the whole squadron had fallen upon tion, and besides, the ligature was of silk instead of waxed that single ship. thread; a circumstance which produced a constant irrita- The Spaniards had still eighteen or nineteen ships which tion and discharge, until at length, after three months of had suffered little or no injury; that part of the fleet which continual pain, it came away about the end of November, had been separated from the main body in the morning From that time the arm began to heal, and, as soon as he was now coming up; and Sir John Jervis made the signal found his health re-established, he sent to a neighbouring to bring to. The enemy, however, did not venture to re- church a form of devout thanksgiving to Almighty God new the combat; and, as soon as the action was disconti- for his recovery from a severe wound, nued, Nelson went on board the admiral’s ship. Sir John In April 1798, he hoisted his flag on board the Van- Jervis received him with open arms, and said he could not guard, and was ordered to rejoin Earl St Vincent. Im- sufliciently thank him. For this victory the commander- mediately on his arrival, he was despatched to the Medi- in-chief was rewarded with a peerage and the title of Earl terranean with a small squadron, to ascertain, if possible, St Vincent; whilst Nelson, who, before the action was the object of the great expedition which was then fitting known in England, had been advanced to the rank of rear- out at Toulon. He sailed from Gibraltar on the 9th of admiral, received the insignia of the Bath, and a gold medal May, with three seventy-fours, four frigates, and a sloop from his sovereign. of war. On the 19th the squadron reached the Gulf of In April 1797, Sir Horatio Nelson, having hoisted his Lyons, and on the 22d a violent storm inflicted serious flag as rear-admiral of the blue, was sent to bring away the injury on the Vanguard ; the main-top-mast went over the troops from Porto Ferrajo ; and having performed this ser- side, the mizen-top-mast soon afterwards gave way, the vice, he shifted his flag to the Theseus, a ship which had fore-mast went in three pieces, and the boltsprit was found taken part in the mutiny in England. Whilst in the The- to be sprung in as many places. Captain Ball in the seus, he was employed in the command of the inner squa- Alexander now took the disabled ship in tow in order The memorial which, as a matter of course, he was called upon to present on this occasion, exhibited an extraordinary catalogue o services performed during the war. It stated, that he had been in four actions with the fleets of the enemy, and in three ac- 10ns with ingates, in six engagements against batteries, in ten actions in boats employed in cutting vessels out of harbour or in es roying them, and in taking three towns; that he had served on shore with the army four months, and commanded the batteries a . le sieges of Bastia and Calvi; that he had assisted at the capture of seven sail of the line, six frigates, four corvettes, and eleven priya eers ot diflerent sizes; that he had taken and destroyed nearly fifty sail of merchant-vessels, and had actually been engaged agains the enemy upwards of one hundred and twenty times; in which services he had lost his right eye and right arm, and had been severely wounded and bruised in his body. This memorial, which is dated “ October 1797,’’ and addressed “ to the king’s most exce.lent majesty,” is perhaps without a parallel in our naval history ; yet what splendid additions were afterwards made by him to the catalogue of his services ! 86 NELSON. Nelson. to carry her into the harbour of St Pietro, in Sardinia. 'Nelson, apprehensive that the attempt might endanger both vessels, ordered him to cast her off; but that excel¬ lent officer replied that he was confident he could save the Vanguard, and, by God’s help, he would do it. Previously to this there had been a coolness between Sir Horatio and Captain Ball; but from this time the former became fully sensible of the great merit of the latter, and a sincere friendship subsisted between them during the remainder of their lives. By extraordinary exertions the Vanguard was refitted in four days ; the supply of water was also complet¬ ed ; and he received a reinforcement of ten ships of the line and one of fifty guns, which Lord St Vincent had sent to him under the command of Commodore Troubridge. lhat officer took with him to Nelson no instructions as to the course he was to steer, nor any certain account of the ene¬ my’s destination. Every thing was left to his own judg¬ ment. But, unfortunately, the frigates having been sepa¬ rated from him in the tempest, had not yet been able to rejoin; and he was obliged to sail without them. The first news of the enemy’s armament was that it had surprised Malta. Nelson now formed a plan for attacking it whilst at anchor at Gozo ; but on the 22d of June he received in¬ formation that the French had left the island on the 16th, the day after their arrival. Thinking it clear that their destination was eastward, he accordingly made all sail for Egypt, and arrived off Alexandria on the 28th; but the enemy were not there, neither could any account of them be obtained. He then shaped his course to the north¬ ward for Caramania, and steered along the southern side of Candia, carrying a press of sail night and day, with a contrary wind. The want of the frigates was now se¬ verely felt; they wrere the eyes of the fleet, and ii they had not been separated, he could scarcely have failed to fain information of the enemy. Baffled in the pursuit, however, he returned to Sicily, took in what stores he required at Syracuse, and on the 25th of July sailed for the Morea. The period of uncertainty was now approaching its term. On the 28th the squadron made the Gulf of Coron, and Troubridge having entered the port, return¬ ed with the intelligence that the French had been seen about a month before steering to the south-east from Can¬ dia. On receiving this information, Nelson determined to return immediately to Alexandria; and, accoidinglj, the British fleet, with every sail set, stood once more for the coast of Egypt. On the 1st of August they came in siand ^ of blood within his breast, that no human aid cou'd avad him, he insisted that the surgeon should eave hun and attend to those to whom “'^^“ftom in“ense with a gleam of joy as often as the , struck the Victory announced that an enemy s ship had struck. Wlth 1 ' i k h fivp nf the enemy’s van have tacked, anTsCt tlml for h-mg down on the V,ctrd “d..“ is: taking the hand ot fjs ,ete victory. He did not him on liavl"g gal^ ecnemy Ld struck, as it was impos- know how many or t ) fourteen or fifteen sible to perceive them distmc y ^ t d Nel. at ’^^t I had bartitd for twenty" Then, in a strong- son ; » bu I hadbargame^t ^ , anchorand again, er voice, he sa , anchor.”5 Next to his country, most earnestly, Do you aacn , « Xake care of Lady Hamilton occiipied hi^thoug^ of Lady my dear Lady Hamilto ’ P Jbefore he expired, he said S^X^^ember thaU leave Lady HamiLon The Stwolte waXr^ ssstassra‘3.1- - ’'^The'total ^oss of°the British In the battle of Trafalgar tori tn 1 587 Twenty of the enemy struck, and, of amounted to lob . y afterwards taken by Sir the ships which fleet did not anchor, heavy, gale cam driven on the shore, one ef- prizes went ’ p di others were destroyed, and fected its exertions, saved. Still, r Js hS: th^hav0! n^eTret “?Ssr^rrii— reXslo adS ha"all L honours which a grateful coun- “y6 could bestow were heaped on the memory of the man who had achieved this unequalled victory. In Lord Nelson’s professional character were united mind, ardent zeal, unbounded confidence in the «sources # of his own mind, and that intuitive decision . , . Nemesis. ffdifficuTt; and peril, which, afterall.is ^ distm^mshing attribute of great military or naval genius. S t men ivith confidence in him, as u'all as w.th conhdence in themselves. But the best character which can oe drawn of him is the history of his aclnevemenB, all stamp ed with the impression of h,s genius; and, that nothing mi«ht be wanting to the consummation of his renown, ne departed in a bright blaze of g'»7’leav,n8 *° '“ample a name which is her pride and boast, and an examp which will continue to be her shield and her strength, (b o .i >a r;f0 n/' Nelson, in two vols. I^mo, l^tje oy Clarke and McArthur, 8vo; Ekins’ Naval History, ito^and JTeMe"«S6W%! a place situated be- ,,, i pViUirc in Argohs ; but whether town, tween Cleome and f b'”8’ m A'8° h Xhere st0„d a district, or something else, is unc®na „ames • orove, in which the Argives celebrated the Nemean games and there happened all the fabulous circumstances ot the NeNEMEAN GAMES, so called from Nemea, a place si- tuamd“enGthe cities of Cleonm andJMhis, where SdToS"^ These games were instituted in memory of Opheltes or A ch’emorls the son of Enphe.es and Creusa nursed by Hyp- sinele who, leaving him in a meadow whilst she went t show ’the besiegers of Thebes af»u”‘ain, found him dead „n w return, and a serpent twined about his neck, ana hence the fountain, before called Langi* ™ a 7 onrl these games were instituted to comtoit Archemorus, ^ game iD8titution t0 HSiraftefhu ’victmy ov’erthe Nemean lion ; whilst others think that they were instituted first in honour o Arcbemorus, but intermitted, and afterwards revived again bv Hercules. The victors were crowned with parsley, a herb used at funerals, and fabled to have sprung from Ar- heib usea at A ivea presided at these games. C NEMEllANUS, a'eeu^ Olympius, a Latin poet who was born at Carthage, and flourished about the yea. 981 of our era, under the Emperor Cams, and Ins sons Cannus and Numerian, the last of whom was so fond o noetrv that he contested the glory with Nemesianus, who had written a poem upon fishing and maritime affairs. We have still remaining a poem of this author caHe ynege- timn and four eclogues, which were published by 1 aul Manutius in 1538, by Barthelet in 1613, and at Leyden in 1653 with the notes of Janus Vhtias. Giraldi has pi - served a fragment of Nemesianus, which was c.onj™11CJm; ed to him by Sannazarius, to whom we are indebted to this noet’s works, which, having been found written in Go¬ thic characTers, he caused to be converted into the Roman d tben gent to Paulus Manutius. Although this poen has Squired some reputation, it is greatly interior to ihnse of Oppian and Gratian upon the same subject, je Ihe stv e of Nemesianus is natural enough, and has even the sty e , e The world was so much pos¬ seted wkh an opinion of'his poem in the eigh th century, that it was read amongst the classics in the public schools, particularly in the time of Charlemagne, as appears from a letter of die celebrated Hincmar, bishop ot Rheims, hl NEMESIS, in pagan worship, the and Necessity, or, according to others, ot Oceanu >5. N E M nesius Nox, and who had the care of revenging the crimes which li . human justice left unpunished. She was also called Ad- '“rastaea, because Adrastus king of Argos was the first who 1 raised to her an altar ; and Rhamnusia, from her having a magnificent temple at Rhamnus in Attica. She had like¬ wise a temple in the Capitol at Rome. Nemesis is repre¬ sented with a stern countenance, holding a whip in one hand and a pair of scales in the other. NEMESIUS, a Greek philosopher who embraced Chris¬ tianity, and was made bishop of Emesa, in Phoenicia, his birthplace. He flourished in the beginning of the fifth century. There is a work of his extant, entitled De Na~ tura Hominis, in which he refutes the fatality of the Stoics, as well as the errors of the Manicheans, the Apolinarists, and the Eunomians; but he espouses the opinion of Ori- gen concerning the pre-existence of souls. This treatise was translated by Valla, and printed in the year 1535. Another version of it was afterwards made by Ellebodius, and printed in 1665; it is also inserted in the Bibliotheca Patrum, in Greek and in Latin. Lastly, an edition was pub¬ lished at Oxford in 1671, folio, with a learned preface, in which the editor endeavours to prove, from a passage in this book, that the circulation of the blood was known to Nemesius; an opinion, however, which has since been shown to be a mistake. (See Freind’s History of Physic.) NEMOURS, a town of France, in the department of the Seine and Marne, being situated on the river Loing, eleven miles south from Fontainbleau. It was erected into a duchy in the fourteenth century, and has been in the house of Or¬ leans since the time of Louis XIV. It has a considerable trade in corn, wane, and other articles. The population in 1837 amounted to 3839. Long. 41. E. Lat. 48.15. N. NENAGH, a market-town of Ireland, in the county of Tipperary and province of Munster, ninety-five miles south-west from Dublin. It is situated upon the Nenagh River, a little to the southward of its union with the Shan¬ non, before it reaches Lough Derg. The town enjoys a good general country trade, but has no manufactures pro¬ perly so called. Here are the ruins of an ancient castle, called Nenagh Round; also those of an hospital founded in the year 1200, for canons following the rule of St Au¬ gustin. There are four fairs held here in the course of the year. The population of the town amounts to 6335. NENIA, or N-Enia, in ancient Latin poetry, a kind of funeral song sung to the music of flutes at the obsequies of the dead. Authors represent the nasnia as sorry com¬ positions, sung by hired female mourners, called prceficce. The first rise of these nasnia are ascribed to the physicians. In the heathen antiquity, the goddess of tears and funerals was called Nenia, whom some suppose to have given that name to the funeral song, and others to have taken her name from it. NEOMENIA, or Noumenia, a festival of the ancient Gieeks, celebrated at the beginning of every lunar month. As the name imports, it was observed upon the day of the new moon, in honour of all the gods, but especially Apollo, who was called Neomenios, because the sun is the foun¬ tain of light; and whatever distinction of times and sea¬ sons may be made on account of other planets, yet they are a owing to him as the original of those borrowed rays by which they shine. The games and public entertainments at these festivals were provided by the rich, to whose tables ne poor flocked in great numbers. The Athenians at tnese times offered solemn prayers and sacrifices for the prosperity of their country during the ensuing month. ie Jews had also their neomenia, or feast of the new moon, on which peculiar sacrifices were appointed; on this oay also they had a sort of family entertainment and rejoicing. But the most celebrated neomenia was that at the beginning of the civil year, or first day of the month isn, on which no servile labour was performed; and the N E P 93 people then offered particular burnt sacrifices, sounding Neophytes the trumpets of the temple. The modern Jews keep the (I neomenia only as a feast of devotion, which any one may NePauh observe or not as he pleases. J y-—' NEOPHYTES, or new plants, a name given by the ancient Christians to those heathens who had newly em- braced the faith, such persons being considered as rege- nei ated, or born anew by baptism. The term neophytes has also been used for new priests, or those just admitted into orders ; and sometimes for the novices in monasteries or convents. It is still applied to the converts made by the missionaries amongst the infidels. NEOTS, St, a market-town of the county of Hunting¬ don, in the hundred of Toesland, fifty-six miles from Lon¬ don. It stands on the navigable river Ouse, over which there is a fine stone bridge. It is a well-built place, with a large maiket-place, and has a handsome church, with an elegant and lofty spire. It has a good market, which is held on Thursday. The population amounted in 1801 to 1752, in 1811 to 1998, in 1821 to 2272,* and in 1831 to 2617. Neots, St, a town of the county of Cornwall, in the hun¬ dred of West, distant 226 miles from London. It is said to have been built by a relation of King Alfred, who died here in 899, and was buried at the place of the same name in Huntingdonshire. The population amounted in 1801 to 906, in 1811 to 1041, in 1821 to 1255, and in 1831 to 1424. NEPAUL, an extensive country of Hindustan, long and narrow in its form, and, although somewhat curtailed in its dimensions by the progress of British conquest, still one of the largest and most compact independent king¬ doms in the country. To the north it is bounded by the great mountain wall of the Himalayas, which separates it from Ihibet; to the south the Nepaul territory reaches about twenty miles beyond the base of the mountains, into the plains, being bounded by the provinces of Delhi, Oude, Bahar, and Bengal, with the exception of about sixty miles of territory belonging to the nabob of Oude, which intervene; to the east the river Mitchee separates Nepaul from the British territories; and thence it is bounded by the principality of Sikkim, which extends to the Chinese frontier. Previously to the late war with Britain, the con¬ quests of the Ghoorkhas or Nepaulese extended to the banks of the Sutlege, the eastern river of the Punjab ; but the boundary is now the river Cali, or the western branch of the Goggra, which separates the Ghoorkha territory from the British province of Kumaon. The above limits, how¬ ever, include a territory much larger than that to which the peculiar name of Nepaul Proper belongs, and made up of conquests gained by the Ghoorkhas within the last sixty years from a variety of petty hill states. This extended dominion is mostly included between the twenty-seventh and thirty-first degrees of north latitude, and in extreme length may be estimated at 460 miles, by 115 miles in breadth. The following are the modern districts into which this territory is divided : 1. Nepaul Proper. 6. Khatang. f Country of the twenty-four rajahs. 7. Chayenpoor. 3. Country of the twenty-two rajahs. 8. Saptari. 4. Muckwanpoor. 9. Morung. 5. Kirauts. Nepaul comprehends the greater part, probably about Aspect of two thirds, of Northern Hindustan. It is accordingly ex- die coun- tremely diversified in its surface, the mountains whicht]T- form its northern boundary rising to the level of perpe¬ tual snow. Ihese high mountains generally decline into lower hills, from which they are separated by fine val¬ leys, which are still considerably above the level of the p ains, and the lowest belt of the Nepaul dominions forms part of the great plain of Hindustan. Immediately to t ie north of this flat country there is a region of nearly the same width, consisting of small hills, which rise gra- 94 N E P A U L. Nepaul. Climate. Produce. s S'? lulls are found t either for straightness or size, hornbeam Weymouth pine, and common spruce, to vatecWegion,0lco^sistmg^or one niountain^ieaped^uiionjin- °tl,er nsing covted with s„ow, ar,d it even falls nuts are tor a shoi t time frogt alg0 very 0ften sometimes in the valley be' • u occa8i„nany for reXforZnihXvere^ough to freeze the ta„h;and poolsof standing water, the riversarene^rfroM^ the mountatns are narrow valleys o . ^ yall of is nearly of an oval H u , S and west nine same climate as the southern counmes of EutoP • Lying near a region buried in snow, its cm ^ doubt be somewhat modified by^uc JJ1^iermometer rose patrick mentions that in sum his residence in the °n,f t\7d i usuaThe |ht about noon varied from eighty- valley ; and lts ^ad S At sun.rise it was commonly one to eighty-four degrees in the evening it between hfty and fifty-iour, ana a • t de whilst othersPyield only barley, millet, and similar S-arns. ’Phe mulberry grows luxuriantly all over the h i , they cut its young ffiZfoZfodd'er! kayes, a^ > 1,aviaS botl^nutritious and agreeable to the which is sa d o ^jKflh and devated cUmate, T Udi^l rains are not favourable for the ripening the pen everywhere abound, but never come to 0t -krtion the heat of the climate not being sufficient to peite * ’ nnturitv before the approach ot the rams. Peache^grow ^MonXybilli buZne side of them is ^ hv the damn, whilst the other side is green ; and Ihe Lnes Which grow without shelter from the rams, flways’ bad. Kirkpatrick, however, from the spoil- are a ^ d tions which he saw on the spot, namely. of England might with P™r« raised in the mountainous valleys ot ^CP , warmer valleys, the pine-apple is uncommonly « , ,f the orange, which npens m wmter. The abunda^^ ^ ^ they spod the fruits, are, h^^ tb laSnd can be levelled produce of grain , and adapted for trans- into terraces, however aarr^r Jbe vains have ceased. The planted rice, which ripens p.enerally cut into these least rocky faces of the hills are generally c ^ operation, and it is otte^ ^ ^ strip of ground. drain^to'tlZldgher cultivated ^^gj^^joZme^part^the rating them, to the^owerrange^iPields^nlusornay same land gives a wtnte P is „e„erally cultivated the land is too steep for terraces -US gen^ y oad_ after fallow -thf boe.^nd producer c of ^ cast, maize, cottOj^^H madderj wh^atj barley, and sugar- tard, manjeet ^ ,, pnera| cultivation in these cane. Tobacco is an article of general cmuvai hills, and it isconsidered as of a finequa^ y. I s ^ between Nepaul 11 optr a Various dry rices are exposed to tails ot sno , h . h d iest and i0(. in Bengal, “ b"d, but^nsh t^ ^ Lest spots. .. d several edible roots and herbs, ductions of this fertile soi sustenance of the which form a a spectes of yam, poorer inhabitants w(.„ as various other plants and a kind ot wild asparag , „ There are also agSSjSSSssiw cured from bitter or aim estimation, ly in the country, and which ate held mg ^ Thejeea is a very “"“^“‘ZnherrisZhich is a po- the potato, fhp npttle wild wormwood, rasp- the leaf of which answers the purpose oi eme y S=sjs.5S«s*? ln STme„f those extensive tracts which lie in the neigh- bourhood o/perpetual sao^* Zve fineZtol ^heriarger are Te ir" ,Tweera"countries, but are no, numerous. N E P A U L. paul Mi rals. Buffaloes are not reared by the natives, neither are hogs nor goats, though the country is admirably adapted for both. Horses are brought from Thibet, as none are bred south of the Himalaya; also the large ox of Thibet, or the bos grunniens, described by Turner, the beautiful tail of which forms one of the exports from Nepaul; and the goat which produces the shawl wool. The kustoora or musk-deer is a native of Lower Thibet, though it is not very abundant anywhere. It is usually caught by means of a snare made of a particular kind of mountain bamboo. It is difficult to obtain the musk pure, even at Catmandoo; and Colonel Kirkpatrick mentions, that it is even usual to adulterate it whilst it is yet in the bag on the body of the animal. In the great forest which skirts the Nepaul territories through¬ out their whole extent, from Serinagur to the Teesta, wild animals abound. Elephants are found here in great num¬ bers, and are a source of revenue to the Nepaul govern¬ ment. About 200 or 300 of these animals are caught an¬ nually ; but most of them being very young, and not being above seven feet and a half in height, they are not of great value. They are extremely mischievous, and two or three of them sometimes take possession of the road, and ob¬ struct the progress of travellers for a considerable time. A large herd of them assaulted the camp of the Nepaul deputies when they were on their way to Patna, and were with great difficulty driven away. They sometimes issue from the forest in droves, and overrun the cultivated country on its borders, penetrating sometimes a considerable space within the company’s territories. The rhinoceros, the tiger, the leopard, and other ferocious animals, find shelter in the depths of the forests. The animal known in Ben¬ gal by the name of the Nepaul dog is brought from Upper and Lower Thibet, of which it is a native. It is a fierce, surly creature, about the size of an English bull-dog, and covered with thick long hair. Several very fine birds are found in these mountainous countries, as the manal (me- leagris satyra), and the damphya (phasianus impeyanus). They are a species of pheasants, the damphya being of the golden, and the manal or moonal of the spotted sort. They are both extremely beautiful birds. The chakoor is well known to the Europeans of India under the name of the fire-eater. It is a species of partridge, and derives its name from its reputed power of swallowing fire. The fact is, that in the breeding season this bird is remarka¬ bly fond of red pepper, after eating two or three cap¬ sules of which, it will bite at a red coal if presented to it. The khaledge is met with in the thickets which overrun the gorges of the mountains near Noakote. The sarus, wild goose, wild duck, and several others of the feathered species common to Bengal and the rest of the countries to the southward of Nepaul, are occasionally seen in this and the adjacent valleys; w here, howrever, they merely ap¬ pear as birds of passage, making Nepaul only a stage in their flight from Hindustan to Thibet. The stones and ores collected in the country indicate the existence ol a variety ot minerals in the mountains of Nepaul, such as iron, lead, copper, &c. It was formerly a pievalent idea amongst the Hindus, from whom it was re¬ ceived by the British, that the country contained mines of gold. . I he only foundation for this notion appears to be, that in the course of commerce the gold of Thibet passed into Bengal and Bahar through Nepaul; or that a lew grains of gold were occasionally collected in the sands of the rivers, or found in the consecrated pebbles of Gun- duck ; or sometimes that specimens of gold ore have been sent to the governor-general by way of presents or curio¬ sities. Other accounts of gold mines may also be referred to the circumstance of scanty particles of gold being found in the beds of torrents from the mountains. With regard to silver, it is said that some veins of it have been disco¬ vered to the westward of Noakote. But Kirkpatrick, in 95 his account of Nepaul, suspects that it has no better foun- Nepaul. dation than that silver has lately been found in certain ores which were very rich in lead ; whilst others appeared to be a species of galena, well worth the working for the sake of the silver which they contained. Several attempts had been made to extract the silver, but by such an unskilful process, that most part of the baser metal was sacrificed, in consequence of which the return scarcely repaid the ex¬ pense. The copper is found quite near the surface of the earth, the ore being dug from trenches open above, so that the work is entirely interrupted by the rainy season. Those ores are found in several varieties, and are said to be lich and of an excellent kind. The mine is shared amongst certain families along with the rajah, who, there is every reason to believe, claims the lion’s share, and, as in all other parts of Hindustan, leaves the workmen a bare subsistence. Oude was formerly supplied with copper from Nepaul; but of late years it has been superseded by Euro¬ pean copper, owing to the difficulties and expense of trans¬ ferring it to the market through a mountainous country without navigable rivers. The iron ore is also found near the surface, and is not surpassed in excellence by that of any other country. Sulphur is likewise abundant, and pro¬ cured in great quantities. There is no good authority for believing that either the ores of antimony or mercury are found in the territories of Nepaul; but the western parts abound in arsenic and pyrites, though these sulphureous ores are no longer worked, on account of the deleterious ef¬ fects occasioned by the operation. Stone is found in abun¬ dance and variety, particularly jasper and marble ; but the houses are universally built of brick, because the use of stone, though abounding everywhere, is prevented by the expense of carriage in a country where the roads do not admit of wheel-carriages, and where there is no navigation. 1 lieie is said to be a considerable mass of rock crystal near Ghoorkha, and limestone as well as slate abounds every¬ where; yet there are no limekilns in the country, the only cement employed being mud, which, the natives pretend, answers better in their humid climate than mortar. The alpine region belonging to Nepaul is about the same Moun- breadth of thirty or forty miles from north to south. Scat-tains, tered peaks are here seen covered with perpetual snow, until, in advancing to the boundaries of Thibet, everlastino- winter reigns, ibis inhospitable region consists chiefly o^' immense rocks rising into sharp peaks and tremendous pre¬ cipices, covered with snow, and almost constantly involved in clouds. Some of these mountains are estimated to rise 19,960 feet above the valley of Nepaul. The rains here aie periodical, as in the plains of Hindustan, and fall in tie hottest season of the year. The snowy ridge of the Iimalaya Mountains, though it has a winding course, has ew interruptions, and is in most places impassable. Seve¬ ral rivers which take their rise in Thibet make their way through the mountainous ridges, but by such narrow cliasms, and amidst such enormous precipices, that these openings afford no practicable communication between the mountains and the plains. In the mountain passes no sort of baggage or merchandise is transportable, except on the shoulders of hill porters. The price of this carriage is re¬ gulated by the government. ihe numerous valleys which are interspersed through-Ponula- out the mountains of Nepaul are inhabited by a variety of lion, mixed races. I he aboriginal inhabitants appear, from their p lysiognomy, to have been of Tartar or of Chinese origin, ami to have had no resemblance to the Hindus either in features, religion, or manners. Before their arrival they had no idea of caste. The period when these mountainous regions were first invaded by the Hindus is uncertain ; but, according to the most authentic traditions, it is supposed to have taken place about the fourteenth century. The Hindus who now inhabit these mountains were about this 96 N E P A U L. Nepatfl. period driven from their country by the invasion of the Mahommedan sovereign of Delhi, who made proposals to marry a daughter of the rajah of Chitore, celebrated tor her beauty. This offer was refused, and the consequence was that his city was captured and destroyed ; and, to avoid the hated yoke of the conqueror, great numbers of the inhabi¬ tants fled to the mountains. Many of the chiefs amongst the mountain tribes, accordingly, claim descent from these Chitore princes, although on doubtful grounds. 1 here are a few raipoots whose claims to a pure descent from the Chi¬ tore family are allowed ; and the families of the mountain chiefs who have adopted the Hindu rules of purity, and some even who have neglected this, are now admitted to be rajpoots ; whilst, on the other hand, the purity ot the Chitore blood has been so often contaminated by alliances with the Tartar and Chinese races, that several ot the Chitore family have acquired the Tartar countenance, and some of the mountain tribes, by intermarriages with pure raipoots in a low station, have acquired the oval faces and high noses of that remarkable race. The original puruy of the raipoot blood having been thus lost by indiscrimi¬ nate alliances, all the hill chiefs, whether their descent from the Chitore family be real or pretended, are now call¬ ed raipoots, and hold the principal offices, civil and mili¬ tary, of the petty states in which the country was subdi¬ vided, until Nepaul was subdued by the reigning family of the Ghoorkhas. In the eastern parts of the country the abo¬ riginal tribes still remain ; and, until the predominance of the Ghoorkhas, they enjoyed unmolested their customs and religion. But west of the Cali the case is different, almost all the inhabitants claiming a descent from the Hindu co¬ lony. They accordingly consist principally of the two su¬ perior classes of Hindus, or brahmins and chetrees, wit their various subdivisions. East of the Cali the tribes which possessed the country were chiefly, 1. Magars, who occupied the lower hills in the western parts, and were very soon converted to the biahmin doctrine of abstaining from beef. They are at present enlist¬ ed bv the Ghoorkha sovereigns, and compose a great majo¬ rity of their troops. 2. The Gurungs, a pastoral tribe, shift their abode between the mountains and the valleys with the summer and the winter. They still adhere to the ama priesthood and the Buddhist religion. They cultivate with the hoe, are diligent miners and traders, and employ the nu¬ merous flocks which they possess in conveying their goods to market. 3. The Jariyas form a numerous trl ,be’an^3 bit the lower hilly region between the Cali and the Nepaul valley, and are now nearly all converted to the brahmimcal doctrines. 4*. The Newars are an industrious people, to - lowing agriculture and commerce, and are more advanced in the mechanical arts than the mountain tribes. ie Greater part of them adhere to the tenets of the Buddhists, though they have adopted the distinctions of caste, they do not acknowledge the lamas, and have a priesthood o their own. The more fertile part ot what is called jSepau Proper was chiefly occupied by the Newars, a race addict¬ ed to agriculture and commerce, and far more advanced in the arts than any other of the mountain tribes, ihen style of building, and most of their arts, appear to have b Jen introduced from Thibet. All the Newars burn their dead; they eat buffaloes, sheep, goats, fowls, and ducks, and are addicted to the immoderate use ot spirituous liquors. They live in towns or villages, in houses built of brick ce¬ mented with clay, and covered with tiles; these houses are three stories high, the ground-floor being allotted to the cattle and poultry, the second to the servants, and the third to the family of the owner. Their rooms are low, and have a mean and dirty appearance, and, besides, are infested with vermin, which, in addition to the filth, the oiials of t e shambles, and the blood of their sacrifices collected in the streets, give their towns an exceedingly offensive aspect to Europeans. The Newar women are never confined to Nepaui the house. At the early age of eight years they are car- ried to a temple, and married, with the usual ceremonies of the Hindus, to a fruit called ull; and when they arrive at puberty they are betrothed to a man of the same ca^te> and the parents give a dower to the husband, or rather her paramour, their manners being extremely licentious. Like the women amongst the Nairs, they may in fact have as many husbands as they choose, being at liberty to di¬ vorce them as often as they please, and upon the slightest pretences. The Newars are peaceable, industrious, and even ingenious; much attached to the superstition which they profess, and now reconciled to the chains imposed on them by their Ghoorkha conquerors. Their occupations are chiefly those of agriculture ; and they arc> besides, al¬ most exclusively employed in the arts and manufactures of the country. They are generally of the middle size, possessed of great corporeal strength, with broad shoulders and chest, very stout limbs, round and rather flat faces, small eyes, low and somewhat spreading noses, and open and cheerful countenances, with little or no resemblance, according to Kirkpatrick, to the Chinese countenance. Ihe complexion of the women is somewhat between a sallow and a copper colour. 5. The Dhenwars and Mhanjees are the husbandmen and fishers of the western districts. 6. The Bhootias. Though some families of this race are plant¬ ed in the lower lands, they occupy, generally speaking, such parts of the mountainous country as are included in the Nepaul territories. They shave their heads, and ob¬ serve many idolatrous rites and customs. 7. Ihe Bhanras are a sort of separatists from the Newars, and are suppos¬ ed to amount to 5000. They observe many of the customs of the Bhootias. To the eastward some districts of the Nepaul dominions are inhabited by tribes, such as the Lun- booas, Nuggerkootees, and others, of whom little more is known than the names. ... , With regard to the number of inhabitants within the bounds of Nepaul, we have no data to form any thing li e an accurate estimate. The wild and rugged nature of the country gives no ground to suppose that the population is considerable. It is in the valleys that the population is collected; and these, says Kirkpatrick, with the exception of Nepaul and two or three others, are little better than mountainous cavities. Even the Temani, or low belt of land which runs along the southern frontier, is but indif¬ ferently peopled, the villages being, according to the tia- veller already mentioned, very thinly scattered, and mean both4n their appearance and in their size. 1 he Nepaulese themselves give the most exaggerated account ot their numbers. They reckon their population by houses; and to Patan, their largest town, they assign 24,000 houses, to Bhatgong 22,000, and to Catmandoo 18,000. this would give a population of 640,000. I here are, besides, many large villages and towns scattered around ^irtee- poorf containing 12,000 houses; Theamee, Buneba, Phai- ping, Punonlee, Dhulkill, Chappagang, all containing from 6000 to 7000 houses; and, besides these, there are reck¬ oned between twenty and thirty smaller^ of from lOOO to 4000 houses, all within the valley of Nepaul. But th s Mves a population that sets probability at defiance, and i considered, both by Frazer and Kirkpatrick, as a glaring fallacy A loose estimate of the latter traveller lowers the population of Nepaul to half a million of souls. 1 The lands are held by various tenures. Those const! Sta tuting crown-lands, or the rajahs immediate estates, areP chiefly situated in the Ghoorkha territory, though there s hardly any portion of the Ghoorkha conquests in which the prince has not appropriated land to his own use. Some of these lands are cultivated by husbandmen, who recede a share of the produce; others are tilled by the neighbour- ing husbandmen, who are obliged to dedicate a certain N E P A U L. 97 paul, M i I'.ary ■,:br number of days in the year to this service. From such lands "'the rajah draws all the supplies necessary for the support of his household. The brahmins also possess lands, the title to which they receive by royal investiture. These lands are rent free, saleable, and hereditary ; but they may nevertheless be alienated for certain crimes. Their pro¬ prietors are bound to the reigning prince for nothing beyond his prayers, though they sometimes consider it as prudent to conciliate him by more substantial gifts. Another tenure by which land is possessed by the Newars, is the payment of a considerable fine when the original titles are con¬ firmed, which must be renewed on the accession of each prince. Other lands pay a rent to the crown, or to the jag- hiredar (proprietor), in proportion to their produce. The khyra and barilands are those which are destitute of springs or running water, and which, requiring consider¬ able labour, yield, after all, no very profitable return. These pay a rent according to their produce, which is es¬ timated by the number of spades or ploughs employed. Widows may cultivate as much of this land as they can, without paying any rent at all. The kaith or plantation- lands, which are well supplied with water, and, being situ¬ ated in the valleys, are fruitful, and yield all the superior kinds of grain, pay the half of their produce to the culti¬ vator, who in return defrays all the charges of tillage, with the exception of the seed. These lands are reckoned to yield from twenty to thirty fold; and they pay different rates to the proprietor, according to the value of their produce. The whole population of Nepaul are liable to military service in times of public danger, though they are not re¬ gularly trained to arms. But there is a standing army dispersed over the country, besides a large force always in the capital, amounting to 30,000 or 35,000 troops. These troops are regularly trained, disciplined, and officered after the manner of European troops ; and they likewise affect the European exercise, dress, and arms. The regular force of Nepaul has so long been accustomed to active service and to constant victory, that they have acquired all the qualities of veteran soldiers, a fearlessness of dan¬ ger, and a contempt of any foe opposed to them. “ They have,” says Frazer, “ much of the true and high spirit of a soldier, that setting of life at nought in comparison of the performance of duty, and that high sense of honour which forms his most attractive ornament, and raises his character to the highest.” These qualities were frequently displayed in the course of the campaign with the British, against whose overwhelming attacks fortresses were de¬ fended with a determined bravery, and a patient endu- lanceof famine and misery, that were truly exemplary. And when they at length surrendered a fort which w as no longer tenable, they deplored their hard fate, called them¬ selves wretched men that ought rather to have died, and refused to return to their native country ; whilst the courte¬ sy they showed to the British, and the reciprocal good offi¬ ces leceived and returned, resembled more the generous spirit of European warfare, than the cruel practices of the East. The expenses of the military establishment are most¬ ly defiayed by assignments of land, though in some in¬ stances the soldier receives his pay from the treasury, and occasionally from the public granary ; others are paid partly in money, and partly in land ; but the most usual mode, and the one most agreeable to the troops, is by putting them in possession of tracts of land, on which they generally settle theii lamilies, whom they can maintain better in this man¬ ner than by any pecuniary stipend. There seems no fixed rate of reward for different ranks, a good deal depending on t le interest of the parties, and other incidental circumstan- ces. One of the captains of the rajah’s company of guards informed Colonel Kirkpatrick, that the lands which he held yielded him 180 rupees a year, and that he received an ad¬ ditional sum in money of 280 rupees; but added, that he was VOL. XVI. better off when he belonged to a private company. It may Nepaul. be added, that government evinces great consideration for its military and public servants, being particularly indulgent to their widows, orphans, and other destitute branches of their families. The soldiers are in general stout, thick, and well-built men. They are very brave, and prefer close fighting, giving an onset with a loud shout. During the war with the British they attacked with great valour and impetuosity, advancing to the very muzzles of the cannon. They understand the use of the sabre ; and each man wears, besides, a fi cookree,” or long crooked heavy knife, which may be used in war, but is also of great use in all common operations where a knife or hatchet is required. The soldiers also carry a long sort of matchlocks or mus¬ kets. The officers, besides the sword and shield and “ cookree,’’ carry bows and arrows, which they use very dexterously. The sword which they use has the edge curved inwards like a reaping hook, but far more straight, and very heavy, particularly at the point, where it is very broad, and ends abruptly squace. A few small guns are used ; but they are confined to the walls of forts, and never carried into the field. The government of Nepaul is essentially a despotism, Govern, and is good or bad according to the character or temporary ment. views of the reigning prince. It is no doubt slightly ame¬ liorated by the authority of immemorial customs, and the influence of religion, which no prince, however despotic, can safely disregard ; as well as by the occasional opposi¬ tion of the aristocracy or chiefs. But the great body of the people derive little benefit from the struggle for powder between the prince and his nobles. They seem to possess no civil rights, and are at the mercy of their rulers for whatever treatment the latter think proper to give them. It was observed by Kirkpatrick, in the course of his jour¬ ney into the country, that the carriers were pressed, with¬ out ceremony, into the service of government, and com¬ pelled to work without any promise of pay; and in the war with the British, a detachment of troops, because they yielded a post to the enemy which they could no longer hold, were punished with extraordinary cruelty, being mu¬ tilated in their faces in the most shocking manner. In Eu¬ rope the progress of improvement has modified the rigour of the most absolute governments ; but in Nepaul, as in all the Asiatic states, despotism grows up to the most frightful maturity in the congenial soil of ignorance ; and although the arbitrary will of the prince may be opposed by the force of circumstances, yet there is no permanent security for life and property, such as is derived from the authority of fixed laws. The administration of public af¬ fairs is carried on by various officers. The first of these is the choutra or prime minister to the rajah, to whom he is invariably akin. His business is to receive and examine all written and verbal communications regarding public business, and to act as a sort of comptroller-general over the inferior departments of administration. He holds his office during the pleasure of the prince, to whom he sub¬ mits all his reports on matters of state ; and the former, if he see proper, refers them for further investigation to a court of inspection appointed for the purpose. He is paid by a commission or fine on every rice plantation, with the exception of those of the Thurgars or nobles and the mili¬ tary. Secondly, the kajees are four commissaries who superintend all civil and military affairs, and are employed in the collection of the revenue, and in the management ot the Jaghire lands. They are paid by a tax of one rupee on all taxable lands. Thirdly, the sirdars command the armies of the state, and likewise participate in the ma¬ nagement of civil business. Fourthly, the kurdars act as secretaries, preparing all communications from the rajah to foreign powers, or to the officers of state. Fifthly, the kup- perdar and the kuzanchee have the charge, the one of the 98 N E P A U L. Revenue. Nepaul. raiah’s private wardrobe, jewels, and kitcnen; and the “n other of the public wardrobe, from which honorary dresses are issued. All these officers are paid by a moderate duty upon all taxable lands. Sixthly, the ticksali or superin¬ tendent of the mint is paid by a commission on the im¬ port duties from*. Thibet, and on a tax payable by all na¬ tives of Nepaul who return to their country Irom Lehassa, Diegercheh, or other parts of Thibet. This tax is exact¬ ed with a good deal of rigour. Seventhly, the dhurma- udhikar is the chief criminal judge, who commissions all the inferior judges, excepting those who officiate in the iaime districts. The fees in this department are very great; and as most crimes are punishable by fine, the penalties constitute a large source of emolument, which does no by any means favour the pure administration ot justice. Civil questions regarding property are decided by ano¬ ther tribunal, the members of which are usually brahmins. Over this court the criminal judge sometimes presides. Intricate questions are occasionally referred to a supersti¬ tious ordeal, in which chance decides; and this barbarous process is a sure index to the manners of the people, and to the low state of their civil institutions. There is, be¬ sides, a superintendent of the police, a minister who is em¬ ployed in complimentary embassies to foreign powers, or in carrying orders to public officers. I he soubahs aie go¬ vernors of districts, or farmers, and government collectors, acting as officers of revenue, of justice, and of police ; and the omrahs are commanders of military posts. The public revenue is derived from land-rents, customs, fines of various sorts, and from mines. Annual presents are made by the soubahs, and by every one who approach¬ es the court; and a sort of arbitrary income-tax is besides levied from all ranks, even the sacredoorder, who possess free lands, not being exempted. An officer is often em¬ ployed for the express purpose of collecting this tax, which is rated according to the exigencies of the state, and which mounts up in many districts to more than the regulai re¬ venue. According to Colonel Kirkpatrick, who visited the country in 1792, and who derived his information irom good authority, the revenue actually remitted to Catman- doo never exceeded thirty lacs of rupees (L.35,000), but it sometimes fell to twenty-five lacs. The subsequent con¬ quests by the Ghoorkha sovereigns were not productive of a oreat increase of income ; and the reduction of temtory by5the late war would of course occasion a corresponding diminution. The export duties, and the profits on the sale of elephants, bring in from three to four lacs ot revenue. The import duties levied on the trade from Thibet,include under the mint, as the returns consist chiefly in silver bul¬ lion, amount to about seven or eight lacs. I he duties on salt, the profits on saltpetre, which appears to be a mono¬ poly, on copper and iron mines, and the produce of the land-tax, may be estimated at from fifteen to eighteen lacs. Formerly the inhabitants of Thibet were supplied with a silver currency from the mint of Nepaul, on which the treasury gained a profit of a lac of rupees. The trade of Nepaul is by no means so extensive as it might be if it were conducted under proper regulations ; being shackled by monopolies for the benefit ot govern¬ ment or of a few favoured merchants, who labour to pre¬ serve their privileges by the most invidious and corrupt means in their power, and by other injudicious restraints. But at the same time, the surplus produce ot so poor a country could scarcely afford the basis of an extensive trade; and it was accordingly rather the medium of com¬ munication between other countries, than remarkable for the extent of its own commerce, formerly merchants from Cashmere carried their manufactures to kutti and other towns in Thibet, and received in return the wool produced in these countries from the shawl goat. Such portions of these manufactures as are not used in Ihibet If Trade. were exported by the way of Teshoo Loomboo and Lassa, ^epaul. y to Siling or Sining on the frontiers of China, and partly -- sent to Catmandoo by way of Patna. The principal goods imported in return to answer the demand of Cashmere and Nepaul were teas and silks ; and from Patna, it is said, they exported otters’ skins to a great amount, procured from the neighbourhood of Dacca. The articles imported into Nepaul from Thibet are coarse woollen cloths, paper, horses, sheep, shawl goats, chowry bullocks, chowries or cow-tads, musk-deer, dogs, falcons, pheasants, sa t, sal-ammoniac, hurtal or yellow arsenic, borax, quicksilver from China, gold in grains and in small lumps, antimony, rugs or coarse blankets, munijheet or Indian madder, cherns or extract of hemp, besides various medicinal drugs anu preserved fruits, sucb as almonds, walnuts, raisins, dates. . t iesc articles, the greater part of the musk, chowries, hurtal, borax, and bullion still find their way to Patna; whence m return are sent north, buffaloes, goats, broad cloth, cutlery, glass ware, and other European commodities, Indian cotton manufactures, mother of pearl, pearls, coral, beads, spices, pepper, betel nut and leaf, camphor, tobacco, tin, lead, zinc, and phaioo, the red powder thrown by the Hindus during the hooly. Besides these articles, utensils in wrought cop¬ per, brass, bell-metal, and iron, are sold to the merchants ot Thibet. The borax and salt are said to be brought from a lake which is situated nearly north from Catmandoo, about fifteen days’ journey beyond the Brahmaputra. 1 he car¬ riers of these articles are a large kind ot sheep, with four horns, which appear to be the common beasts of burden in all countries towards the sources of the Inuus, Ganges, and Brahmaputra. Formerly the lamas ot Lassa and ie- shoo Loomboo sent a large sum in bullion to be coined at the mint of Catmandoo, on which an allowance oi loui per cent, was made for the coinage. But the rapacity of the raiah induced him to alloy the rupee to the amount of eight per cent., which had the effect of putting an entire stop to this source of revenue. . xT i tit i \ The Newars are almost the only artisans in Nepaul; Manuk and they appear to be acquainted with and to exercise ures- most of the handicraft occupations of their neighbours. The Newar women of all ranks, as well as the men, ot the hill-tribe of Mugar, weave two sorts of cotton cloth, partly for home use and partly for exportation. These cloths are the dresses of the middling and lower classes, although woollens would be much better fitted lor the cold climate of a Nepaul winter. Those, accordingly, who are not very poor, wear woollen blankets, which .are manufactured by the Bhooteas, who wear nothing else. The dress of the higher ranks is not manufactured at home, but is import¬ ed^ consisting of Chinese silks, shawls, low country mus¬ lins, and calicoes. European broad cloth is worn by the military alone. They work very well in iron, copper, brass, &c.; and in Lalita, Fatan, and Bhatgong, there are consi¬ derable manufactories of these articles, and also ot a spe¬ cies of bell-metal. One bell which was manufactured at that place measured five feet in diameter. The Thibet bells are superior to those of Nepaul, though a great many bell-metal vessels are made by the Newars, and exported to Thibet, along with those of brass and copper. They are likewise particularly ingenious in carpentry; but it is re¬ markable that they never use a saw, dividing their wood, of whatever size, by a chisel and mallet. They are skilful in gilding ; and they manufacture at Bhatgong, from the bark of a shrub, a very strong paper, remarkably well suited for packages. They distil spirits from rice and other grains, and also prepare a fermented liquor from wheat, munooa, rice, &c. which they call jhaur. It is made somewha i the manner of malt liquors, but is more intoxicating, ine Newar peasants use it in the same manner, and consider it as necessary for their comfort as the labouring people or Britain do porter. N E P A U L. 99 mil. The early history of Nepaul, like that of most of the eastern countries, is buried under a mass of fable. The in- habitants exhibit a list of princes for several thousand years back, which is given in Colonel Kirkpatrick’s work, but without any evidence of their authenticity. It is doubtful whether such persons ever existed. We know, however, that Nepaul was the scene of important revolutions, though it never was subjected to the Delhi emperors, or to any of the other great Asiatic powers. It is said to have been completely subdued in a. d. 1323, by Hurr Singh, one of the princes of Oude, who was driven out of his own pos¬ sessions by the Patans. But from that period there exists no accurate information respecting the dynasties which ruled during the interval, or the race of princes who go¬ verned Nepaul at the time of the Ghcorkha conquest. Run- jeet Mull was the last of the Surya Bansi race, or children of the sun, that reigned in Nepaul. He formed an alliance with Purthi Nirain, which ended in the loss of his domi¬ nions, of which he was stript by his ally in the Newar year 890 or 888, corresponding to A. d. 1768. He possessed great courage and insatiable ambition, and was indebted for his success in war to his introduction of firelocks and European discipline amongst his troops. It was in his reign that Captain Kinloch, with a British force, endeavoured to penetrate into Nepaul. But, from the sickness of the troops, and the difficulty of the country, the enterprise was aban¬ doned. Purthi Nirain died about three years after the final conquest of Nepaul, that is, in the year 1771. He left two sons, Singh Pertaub and Behadur Shah, the former of whom succeeded to the throne, and, conceiving a jealousy of his brother, threw him into prison, whence he was with difficulty released by the interference of one of the spiritual guides of the Ghoorkha family, on condition that he should live in exile. Singh Pertaub, after having extended his father’s conquests, died in 1775, leaving one son, who was an infant. Behadur Shah, on the death of his brother, re¬ turned from his exile to Catmandoo, and, having placed his nephew on the throne, assumed the office of regent. But the mother of the infant prince, Rajender Letchemi, con¬ trived to supplant Behadur Shah in his office, and even to secure the person of her rival. Through the mediation, however, of one of the priests, an accommodation took place, and Behadur Shah was thus enabled to seize and confine the ranee in his turn. Neglecting, however, to conciliate the chief men of the state, he was again driven into banish¬ ment, from which he did not return till the death of the princess, when he re-assumed the regency without opposi¬ tion. In the course of his administration, Palpa, and many other petty states to the westward, Bhote to the north, and Sikkim to the east, were compelled to submit to the rule of the Ghoorkhas. Towards the close of the administration of Mr Hastings in India the Ghoorkha sovereigns were involved in hostili¬ ties with Thibet, and finally with China. The Teshoo Lama of Thibet having proceeded to Pekin, died soon after his ariival in that city. His brother, Sumhur Lama, taking advantage of Ids absence, fled from Lassa to the rajah of Nepaul, carrying along with him a considerable quantity of treasure; and he made such representations to the Ne¬ paul government that their avarice was inflamed, and hav¬ ing marched a body of troops to Lassa, they extorted from tne lama a tribute of three lacs of rupees. In 1790 they detached to feshoo Loomboo, the residence of another sacrea lama, a second body of troops, amounting to 7000 men, who pillaged the place and the sacred temples, and succeeded m carrying off a large booty, though closely pur¬ sued by a Chinese army, and though, from the severity of the weather, they lost 2000 men in their retreat. The em¬ peror of China, as the terrestrial superior of the lamas, and their worshipper and protector, incensed by these unpro¬ voked aggressions, despatched an army of 70,000 men against the Nepaulese, who were overthrown in repeated battles ; and the Chinese army advanced to Noakote, within twenty-six miles of Catmandoo, and sixty of the British territory of Bengal. A peace was at last concluded, though on terms ignominious to the Nepaulese, who were com¬ pelled to become tributaries to the Chinese, and to refund the spoil which they had taken from the Thibet lamas. It does not appear, however, that this tribute was ever ex¬ acted. It was about this period that Lord Cornwallis at¬ tempted to conclude a treaty of commerce with the Ne¬ paulese ; but every proposition of this nature was frustrat¬ ed by their extreme jealousy. The queen-regent died in 1786, w hen the care of the young rajah devolved entirely on his uncle Bahadur Shah, who was accused of having, from disgraceful motives, en¬ couraged the rajah in his debaucheries, in hopes of bring¬ ing him into contempt, and of thus securing to himself the reins of authority. In this expectation, however, he was deceived, as the rajah, in 1795, when he had entered into his twentieth year, suddenly announced to his uncle that he had now resolved to assume the reins of government, and being supported by a large proportion of the nobles, Bahadur Shah, making a virtue of necessity, forbore all resistance, and received in return assurances of the most distinguished favour. The young rajah rendered himself extremely popular during the first year of his reign. But this fair prospect was speedily overcast, and the youth plun¬ ged into all the excesses of the most furious despotism and cruelty. His first act was to arrest his uncle, and, loading him with chains, to throw him into prison, where he was starved to death. He daily tortured and mutilated his subjects, and beheld their sufferings with savage joy. In his outrages he made no distinction of age or sex. Wo¬ men of all castes, even those belonging to the sacred or¬ ders, were seized, and subjected to abuse from the vilest characters. In 1797, he had a son by a brahmin widow, who being taken seriously ill next year, and finding her end approaching, reminded the rajah of the prediction of astrologers, that he would never complete his twenty-fourth year, and entreated that he would provide for the unpro¬ tected orphan they were about to leave. The rajah, rely¬ ing implicitly on the superstitious prophecy, immediately, and in the most solemn manner, before all the chiefs, ab¬ dicated the throne in favour of his son, though illegitimate, and an administration was then appointed, over which one of his ranees or queens was appointed to preside. The ab¬ dicated monarch now devoted his whole time to attendance on his favourite widow, who, notwithstanding all his atten¬ tion, and rich offerings at the different temples, soon after¬ wards expired. In his affliction he became quite frantic, and perpetrated atrocities, the bare mention of which causes the Nepaulese still to shudder, and which are too shocking to be narrated. Amongst various enormities, he directed the sacred temple of Bahvani to be demolished, and the golden idol, which was a venerated object of wor¬ ship, to be ground to dust; and when the soldiers to whom he had issued the orders demurred at such an act of sa¬ crilege, he commanded boiling oil to be poured on their naked bodies. Nor did any one escape his rage. Neither rank nor caste afforded any protection from his violence. Even the first members of the government were scourged without mercy, and otherwise tortured. A confederacy was at last formed against the tyrant, who finding himself abandoned, absconded during the night, and fled to Be¬ nares, which he reached in May 1800. A close connection with Nepaul had always been a fa¬ vourite object with the British rulers of India, and the flight of the rajah to Benares appeared to present a fair opportunity for bringing it about. A treaty of alliance was accordingly concluded between the two states, by Captain \v. D. Knox, who was appointed ambassador, Nepaul. 100 Nepaul. N E F A U L. and who proceeded to Catmandoo for the purpose in 1802. ' The terms of the treaty were considered as favourable to the British interests; the Nepaulese being anxious to secure the influence of such powerful neighbours against the tac¬ tion of the abdicated rajah, who still contended tor his re¬ storation. But whatever advantages were attained by this treaty, were ultimately rendered nugatory by the jealous op¬ position of the subordinate officers amongst the Nepaulese, who were probably instigated by their chiefs, the latter be¬ ing entirely unable to fulfil the obligations which they had entered into. , The residency at Catmandoo was accordingly withdrawn in the year 1804. About this time the abdicated monarch, Run- Bahadur, by the able management of his queen, whom he had always ill treated, was restored to his former au¬ thority. But as he continued to rule with his former bar¬ barity, his reign was of short duration; in 1805 a conspi¬ racy was formed against him, which terminated in his as¬ sassination. His death was succeeded by the most violent conflicts between the adverse parties in the state, and did not terminate until nearly the whole of the nobles at Cat¬ mandoo had perished. The surviving adherents of the late rajah having at length secured the person of his son, seized on the reins of government, putting to death such of the opposite party as still remained. . . . But during all these intestine commotions, it is remark¬ able that the Nepaulese still extended their conquests on every side. To the west of Catmandoo, and towards the Sutlege, the hill-chiefs were distracted by mutual jeal¬ ousies, and by no means in a condition to form a league for their mutual defence. They were accordingly subdued one after another by the armies of the Ghoorkhas, who very soon made themselves masters, without the aid of artil¬ lery, of every hill-fort, from the Ganges to the Sutlege. When their movements first attracted the notice of the British government, their chief was vigorously prosecuting the conquests of these states ; and as he advanced west¬ ward, he erected strong forts and stockades at convenient positions, namely, Almorah, Serinagur, and Malowa. 1 he Sikh frontier was also guarded by a strong line of fortified posts ; and thus the consolidation of the Ghoorkha empire proceeded with a slow but sure progress. The extensive tract which lies between Catmandoo and the Sutlege was held in firm subjection by a strong military force, whilst to the east the Sikkim rajah was deprived of half his territo¬ ries, and compelled to pay a tribute for the remainder. To the north the progress of conquest was restrained by the Chinese power, with which the Ghoorkha chiefs had al¬ ready found themselves unable to cope, and also by a lofty range of barren mountains. But the fertile and low situat¬ ed plains of the south presented a more alluring prospect, and greater probabilities of success in a contest with a new and untried power. The consequence was a series of en¬ croachments along the whole northern frontier of the Bri¬ tish possessions, especially in the district of Gorruckpoor and Sarun. The British remonstrated against these pro¬ ceedings, and an investigation into the respective claims of the two powers was commenced by commissioners joint¬ ly chosen, the result of which being entirely favourable to the British, a detachment of regulars was ordered to take possession of the debateable ground. But these being withdrawn during the rainy season, the chief police sta¬ tion upon the frontier was attacked by large bodies of Ne¬ paulese, and the officers were compelled to fly, with a loss of eighteen killed and six wounded. Shortly afterwards a se¬ cond attack was made on another police station, and several persons were killed, after which the whole body was with¬ drawn ; and, in 1814, the war commenced. A brief account of the operations of this war will be found under the article Hindustan ; and it is only necessary here to state gene¬ rally, that the invasion of the Nepaulese dominions was commenced on the western frontier, beyond the Jumna Nepaul. and near the Sutlege, the country there being considered' v- as of easier access than the mountainous barrier which bounds the Nepaulese dominions on the side of Bengal, but the British troops, in attempting to storm the stockades and hill-forts, were repeatedly driven back with severe loss, and suffered reverses to which they had been wholly unused in the wars of India. Here it was that the brave General Gillespie was slain, whilst he was encouraging Ins troops, who had been repulsed, to renew the attack. In 1815 Sir David Ochterlony assumed the chief command, and by a series of skilful operations, in which he dislodged the Ghoorkha troops from the fortified heights of Malowa, and ultimately so hemmed in their renowned commander Ameer Singh, and his son, that they were forced to sign a capitulation, by which they agreed, on being permitted to retreat with their remaining troops, to abandon the whole territory west of the Cali branch of the Goggra. In Ku- maon also the British troops succeeded m driving the ene¬ my before them ; and, in consequence of these successes, a definitive treaty of peace was signed on the 28th of Novem¬ ber 1815. But the signature of the rajah being withheld, it was determined to renew the war, and to strike a deci¬ sive blow directly at the capital of the country. Prepara¬ tions for this arduous enterprise were made on a great scale, a force being assembled at Sarun amounting to about 13,000 men, of whom 3000 were Europeans, besides a large body of irregulars, amounting in all to above 46,000 troops. This formidable force took the field in the end of January 1816, and advanced from the Bettiah district di¬ rectly on Catmandoo. The greatest difficulties weie en¬ countered, from the ruggedness of the country, in march¬ ing along the dry beds of torrents, through ravines, and in the face of precipices. But all these obstacles weie overcome by the patience of the troops, and the consum¬ mate skill and science of their commander. 1 he Ghoorklias made a brave resistance, but they were overthrown in several severe encounters; and the British force had now approached within three days’ march of their capital, Cat¬ mandoo. Deeming all further resistance vain, an ambassa¬ dor was sent to the British head-quarters, to sue for peace ; and the unratified treaty of the year 1815 was accordingly duly signed. By this treaty the Nepaulese renounced all claims to the territory in dispute. They also ceded all the conquests which they had made to the west of the Cali branch of the Goggra, and which, with the exception of Kumaon, the Deyrah Doon, and some other portions of ter¬ ritory annexed to the British dominions, were restored to the families of the chiefs who had reigned there prior to the Ghoorkha invasion, and who were now to rule as vassals of the British; it being understood, however, that the latter were not to interfere in the internal administration, but were merely to act as arbiters between rival chiefs. In the course of this contest with the British, the Ne¬ paulese had earnestly entreated the aid of the Chinese against the Europeans, whom their ambassadors represent¬ ed as desirous of acquiring Nepaul merely to serve as an intervening point in their progress to China. I hen app i- cation being transmitted by the grand lama to Pekin, an answer was received, in which the emperor expressed his conviction that the Ghoorkhas had themselves been the cause of the war by their unjust encroachments, and de¬ clined all interference. After peace was concluded, the Chinese emperor expressed deep offence against the rulers of Nepaul, who, being merely tributaries, had presumed to make war or peace with the British, without the sanction of their superior; and, to back those lofty pretensions, an army of 15,000 men, commanded by five generals, and at¬ tended by Chinese functionaries of superior rank, usually stationed at Lassa, actually advanced towards the Nepau¬ lese territories. At the request of the Nepaul ministers, ean J i aid N E P tlie British consented to act as mediators. But in the mean time they themselves despatched to the Chinese camp agents, who having reached it early in September 1816, ^succeeded in bringing about the restoration of peace, and of all the ancient relations between the two powers. In 1816, Ameer Singh Thappa, one of the most distinguished Ghoorkha commanders, who had so gallantly disputed the field with Sir David Ochterlony, died, at the age of sixty- eiglit. To the last day of his life he was endeavouring, by negotiation, and by every art, to excite amongst the different states a spirit of hostility against the British, as the com¬ mon enemies of Indian independence. Two of his widows devoted themselves to death along with him; one sacri¬ ficed herself on the spot, and the other was at the same time preparing for the fatal pile at the temple of Pushpoonath, within the valley of Catmandoo. In November 1816, the young rajah died of the small-pox, at the age of twenty- one years. One of his queens, and one of his concubines, together with five female attendants, devoted themselves to the funeral pile along with the corpse. He left one son, three years of age, named Rajindra Bickram Shah, who succeeded quietly to the throne, under the guardianship of the minister Bheem Singh Thappa ; a very unusual cir¬ cumstance in the annals of Nepaul. No interruption has occurred since this period to the peace happily concluded with the British ; nor, according to the latest accounts, has the internal tranquillity of the country been disturbed. NEPEAN Island, in the South Pacific Ocean, is about a quarter of a mile distant from Norfolk Island. The com¬ munication, however, is rendered difficult by the moun¬ tainous sea which runs between the two islands, and which, during the short period they have been occupied by British settlers, has occasioned numerous fatal accidents. It is uninhabited, and is employed as a place of transportation for refractory convicts, where they are employed in boil¬ ing salt. NEPEAN Point, a rocky promontory on the north coast of New Holland, and' the eastern point of entrance into Port Philip. Long. 144. 38. E. Lat. 38. 18. S. NEPOMUK, a town of the Austrian kingdom of Bo¬ hemia, in the circle of Klattau, adjoining to which are some extensive iron-works and mines, on the hill called the Gruneburg, belonging to Prince Colloredo. It is a place highly venerated, from having given birth to John Nepomuk, in the year 1320. That person is reported to have been confessor to the queen, whose chastity was suspected by her spouse. He demanded of the confessor the revelation of what had passed in the confession ; but Nepomuk refused to disclose it. For this he was bound hand and foot; and still refusing to discover the secrets, wras in that condition thrown into the Moldau and drown¬ ed. He was afterwards, for this conduct, canonized by the pope, and included in the catalogue of martyrs. He thus became the tutelar saint of the Bohemian Catholics. NEPOS, Cornelius, a Latin writer, who was the friend of Cicero, Atticus, and the poet Catullus, and flourished D. c. 40. It is uncertain where he was born, but Pliny (iii. 22, 2) calls him Padi accola; and his friendship with Ca¬ tullus makes it not improbable that Hostilia, near Verona, where that poet was born, was also his birthplace. We possess no information respecting his private life; but many of his works are cited by later writers. 1. His Chronicles or Annals, probably in three books, of which the fragments do not enable us to decide whether they were confined to the history of Rome, or included that of all nations. Some have asserted that this was a mere trans¬ lation of the work of Apollodorus on the same subject; but they have no sufficient grounds for so believing. 2. The Pxemplorum Libri, of which the fifth book is cited by Aulus Gellius (vii. 18), and which seems to have been a work containing remarkable transactions selected from N E P 101 history; but this may have been only another title for his Neptune, work. 3. The Lives of Illustrious Men, of which the six-" teenth book is cited, and the lives we now possess no doubt formed a part. 4. The Lives of Historians (Nep. Dion, iii.), which included both Greek and Latin. It seems not un¬ likely that the biographical sketch still remaining of Atti¬ cus, and the longer one of Porcius Cato, which he men¬ tions (Cato, iii.), belonged to this collection. 5. The Let¬ ters to Cicero, which must have been published, as some of them are quoted by Lactantius (Inst. iii. 15). It would appear that he had also made successful attempts in poetry (Phn. Ep. v. 3). We possess a work under the name of Nepos, Vita Excellentium Lnperatorum, which is not mentioned by any ancient writer under this title. It contains short biogra¬ phical sketches of twenty commanders, mostly Greek ; an essay, Be Regibus, which is little else than the mere names of Greek and Persian kings ; and the lives of Hamilcar and Hannibal. There are also two other biographical sketches of Atticus and Cato, which used to be separated from the rest, because they were not found in all the manuscripts, or, when found, were entitled Ex libro Corn. Nepotis de Latinis Historicis, whilst the others used to be considered as the work of a certain Aimilius Probus, whose name wras found in all the manuscripts. The following unpoetical lines were found to precede them : Vade liber noster, fato meliore memento, Cum legat hsec dominus, te sciat esse meum. Si roget auctorem, paullatim detege nostrum Tunc domino nomen, me sciet esse Probum. This JEmilius Probus was long considered as a contem¬ porary of Nepos; but he is now generally believed to be theprafectuspratorio to whom Ausonius addresses his six¬ teenth epistle, and is supposed to have lived in the reign of Iheodosius, a. d. 370. At first, however, this work ap¬ peared under the name of Probus, and was thus published 1471, and in the following editions till 1563. Gifanius in 1566 first directed the attention of the literary world to Nepos as the author; and subsequent investigation has nearly set the question at rest. Attempts have, however, been recently made by an Italian critic (in his Saggio di un Esame critico per restituire ad Emilio Probo il libro Be Vitis Excell. Imp. creduto communemente de Corn. Ne- pote, Venez. 1818, et Kohen; and in Considerazioni sul Saggio di un Esame del Sign. Rinck. Mediol. 1819) to revive the old opinion; and he founds his belief on the authority of the manuscripts and of the poetical address or dedica¬ tion, on the silence of ancient writers, to whom these lives seem to have been unknown, on several mistakes in his¬ tory and chronology which appear in the work, and on the language, which he considers as unworthy of the golden age of Roman literature. (See this question treated fully by Bardili, in his preface to his edition, Stuttgard, 1820; and by Diihne, Lips. 1827.) NEPTUNE, in pagan worship, the god of the sea, was the son of Saturn and Vesta or Ops, and the brother of Jupiter and Pluto. He assisted Jupiter in his expeditions, for which reason that god, when he attained the supreme power, assigned to him the sea and the islands as his empire. He was, however, expelled from heaven along with Apollo, for conspiring against Jupiter; and after this event both were employed by Laomedon, king of Phrygia, in building the walls of Troy; but that prince having dismissed Neptune without a reward, the latter in revenge sent a sea-monster to lay waste the country. He is said to have been the original inventor of horsemanship and chariot racing, on which ac¬ count Mithridates king of Pontus threw chariots drawn by four horses into the sea in honour of this god, and the Romans had horse-races in the circus during his festival, when all other horses left working, and the mules were adorned with wreaths of flowers. In a contest with ML y. -< vO 102 Neptune' Isles II Nereus N E R N E R 's nerva lie produced a horse by striking the earth with his trident; and on another occasion, in a trial of skill with Minerva and Vulcan, he produced a bull, for which reason that animal was sacrificed to him. His favourite wife was Amphytrite, whom he long courted in vain, till sending a dolphin to intercede for him, he met with success, and the dolphin was rewarded by being placed amongst the stais. Besides Amphytrite, he had two other wives; one oi whom was called Salasia, from the salt water, and the other Venilia, from the ebbing and flowing of the tides. He had likewise many concubines, by whom he had a great number of children. He is represented with black hair, and a gar¬ ment of an azure or sea-green, holding his trident in his hand, seated in a large shell drawn by sea-horses, and at¬ tended by the sea-gods Palemon, Glaucus, and 1 horcys, and the goddesses Thetis, Melita, and Panopsea, wit a long train of tritons and sea-nymphs. This deity was known in Egypt by the name of Canobus or Canopus, and was worshipped as the nnmen aquarum, or spirit of the Nile. NEPTUNE’S Isles, a cluster of low islands situated on the south coast of New Holland, at the entrance into Spen¬ cer’s Gulf. r NERAC, an arrondissement of the department ot the Lot and Garonne, in France, 443 square miles in extent. It contains seven cantons, divided into ninety-tvvo communes, and inhabited by 57,500 persons. The capital is the city ot the same name, situated on a fruitful plain, through which the river Blaise runs. In a castle now in ruins the kings ot Navarre held their court, and Henry IV. of France passed his youth in it. It contains 860 houses, with 58o0 inhabi¬ tants, who make cotton goods, druggets, and serges, leather and glass, and domestic articles of coppey ware ; and carry on considerable trade in corn, wine, and other productions of the soil. Long. 0. 13. E. Lat. 44. 10. N. NERBUDDAH, a large river of Hindustan, in the pro¬ vince of Gundwana, which, after a course of 750 miles, falls into the Gulf of Cambay. This river has its source at Omercuntuc, in the above province, close to that of the Soane. The Mahanuddv has also its source in the same mountain. A Hindu temple is found in the centre of the table-land at Omercuntuc; and here the Nerbuddah rises from a small well, and flows along in a smooth stream, un¬ til it is precipitated into the Mundlah. This is described as a great fall by the natives ; and the river at the foot of the table-land expands into a wide surface, and, being join¬ ed by other streams, assumes the appearance of a large river. From this point its course is due west, with the straightest course of any river perhaps in the world. It passes through Gundwana, Khandesh, Mulwah, and Guje- rat, and, after passing the city of Broach, falls into the Gulf of Cambay, and is navigable for boats to a consider¬ able distance. This river was in former times the boun¬ dary between Hindustan Proper and the Deccan or south- . ern peninsula. It is sometimes called the Reva. NEREIDS, in the pagan theology, sea-nymphs, daugh¬ ters of Nereus and Dorus. The Nereids were esteemed very handsome, insomuch that Cassiope, the wife of Ce- pheus, king of Ethiopia, having triumphed over all the beauties of the age, and dared to vie with the Nereids, they were so enraged that they sent a prodigious sea-mon¬ ster into the country ; and, to appease them, Cassiope was commanded by the oracle to expose her daughter Andro¬ meda, bound to a rock, to be devoured by the monster. In* ancient monuments, the Nereids are represented as riding upon sea-horses ; sometimes with an entire human form, and at other times with the tail of a fish. NEREUS, in fabulous history, a marine deity, was son of Oceanus and Thetis. He settled in the iEgean Sea, was considered as a prophet, had the power of assum- in°- whatever form he pleased, and married his sister Do¬ ris, by whom he had fifty daughters called the Neieids, who constantly attended on Neptune, and when he went abroad surrounded his chariot. NERO, Claudius Caesar, the sixth of the Caesars, was the fourth Roman emperor in succession from Augus¬ tus, and descended from a family which had taken an ac¬ tive part in all the important political transactions of their country. This family, however, had partaken of the de¬ generacy of the times, and the more immediate predeces¬ sors of Nero had been more distinguished for their follies and extravagancies than for the stern virtues of the eailiei ages. His grandfather, Cneius Domitius, was chiefly known for the cruelties he had allowed to be perpetrated in the gladiatorial exhibitions, which it was at last found neces¬ sary to put down by a public edict, the private remon¬ strances of AugustusHiaving been disregarded. Cneius Domitius was married to Antonia Major, the elder daugh¬ ter of Marc Antony by Octavia, sister to Augustus, and had by her L. Domitius, the father of Nero. L. Domitius attended C. Ciesar to the East, where he was dismissed with ignominy, because he had put to death his fieed- man for refusing to drink as much wine as he ordered. Towards the end of the reign of Tiberius, he was accused of a variety of enormities, and only escaped by the death of the emperor. He was married to Agrippina, the daugh¬ ter of Germanicus, and the sister of Caligula the emperor. Nero was born at Antium, in Latium, on thelSth of De¬ cember, a. d. 37, nine months after the muider of Tibe¬ rius, and in the first year of Caligula’s reign. On receiving the congratulations of his friends, his father said that it was no subject of joy, as he was certain that nothing good could spring from such parents as himself and Agrippina. Nero lost his father in his third year, and was at the same time deprived by Caligula of his patrimonial estate. Ihe young Nero took refuge in the house of his aunt, vEmiiia Lepida, till the accession of Claudius, a. d. 41, when the property of his father w'as restored, and he also became the heir of his step-father, Crispus Passienus, an old rich senator, whom his mother had in the meanwhile married. In his ele¬ venth year he was adopted by the Emperor Claudius, a. d. 48, who had been induced, by the wiles of his mother, to raise her to the imperial throne. He was now placed under the tuition of the philosopher Annaeus Seneca ; but the pernicious doctrines and example of a corrupt court were far more likely to make an impression upon the youthful mind of Nero than the stern doctrines of the philosopher. We must not therefore place the follies of the prince to the account of Seneca, nor conclude that he did not per¬ form his duty towards him. In his seventeenth year, A. n. 54, he married Octavia, the daughter of Claudius ; and the same year he ascended the throne (13th of Octobei), on the death of the emperor, who was supposed to have been poisoned by Agrippina. Nero began his reign with the usual professions of re¬ spect for the senate, and of an intention to take its opinion in all matters of importance. The administration of affairs was chiefly in the hands of Agrippina, of Burrus the pre¬ fect of the praetorian guard, and of Seneca the instructor ot the emperor. The two latter tried to moderate the furious proceedings of Agrippina, and to prevent her from taking any part in public affairs. Her quarrels with Nero soon ena¬ bled them to succeed in this object, as her imperious dispo¬ sition could endure no rival. Her friend Pallas, who had assisted her to get rid of Claudius, was ordered to retire from court; and Britannicus, the son of Claudius, whose cause Agrippina threatened to espouse, was removed by poison. In the meanwhile, Nero amused himself by night in traversing the streets of Rome in search of adventures: he used to attack people returning from supper, and even to break into shops and rob them, sometimes at the risk ot his life. The most innocent of his amusements was mu¬ sic, of which he is said to have been passionately fond. Nero. N E R N E R 103 10. His whole time was devoted to the cultivation of this taste, '''""'and, after he had delighted the ears of private parties with his vocal powers, he at last made his appearance upon the public stage, at Naples, a. d. 64, and was of course much applauded. It is said, that whilst he was performing, the theatre was shaken violently by an earthquake, but that he was so absorbed with the music that he did not perceive it. Agrippina made many attempts to regain her influence over her son, and some of these were of the most flagi¬ tious kind ; but Nero having become entirely devoted to Poppaea Sabina, was encouraged by her to get rid of Agrip¬ pina. After making several abortive attempts, he at last succeeded, a. d. 59; and, that he might be legally united to Poppasa, he ordered his wife Octavia to be put to death, a. n. 62. By Poppaea he had one daughter, who died in in¬ fancy ; and he is said to have soon got rid of this wroman by striking her with his heel on the stomach when she annoy¬ ed him by complaining of his being frequently absent from her. The dreadful conflagration which happened at Rome, a. n. 64, was generally believed at the time to have been caused by his orders; and it was even said, that at the mo¬ ment when it was raging most furiously, he appeared on the top of the palace of Maecenas, on the Esquiline Hill, and sung part of a tragedy entitled the Burning of Troy. It continued to rage during six days, and was only at last stopped by throwing down some of the houses, and thereby preventing the communication of the fire. The use which Nero afterwards made of the space thus cleared by the fire was a strong corroboration of the truth of the report. He appropriated the ground to himself, and erected a palace, called Aurea Domus from its magnificence, but which was still more remarkable for the beauty of the gardens and ground attached to it. They were laid out under the di¬ rection of Severus and Celer, two engineers, who proposed to him to cut a canal along the coast, from Lake Avernus to Ostia, a distance of 160 miles. What advantage he sup¬ posed likely to arise from such a project it is difficult to discover; but he actually commenced it in the vicinity of Cumae, and it is supposed that the Imqo di Licola is the remains of this foolish enterprise. Another work which he attempted had been projected by Caligula. This was to cut through the Isthmus of Corinth ; and so much interest did he take in the work, that he commenced it with his own hand, in order to encourage the workmen to proceed in it with zeal. The people were so firmly convinced that the con¬ flagration had been the work of incendiaries, that Nerofound it necessary to turn the public indignation in some other di¬ rection than himself. The Christians were at this time at- ti acting attention, and, like most new sects, were charged by their enemies with the most atrocious crimes. Nero ac¬ cused them of having set fire to the city, and many w ere in consequence put to the most cruel deaths. His conduct had now excited very general indignation against him ; and as no one felt secure of his life, a conspiracy was entered into by all the principal men in Rome, including Seneca, and Lucan the poet. It does not appear that Seneca had any thing farther to do with the conspiracy than that he was cognizant of it. The conspiracy, however, was disco- vered, a. m 65, and most of the conspirators were put to death. On the murder of Poppaea, Nero proposed to marry Antonia, daughter of Claudius ; but she preferred death to an union with such an inhuman monster. He married Steti- na M essaiina,by vvhom he had no children. The first circum¬ stance which excited his alarm was the revolt of Vindex, governor of Gaul, wdio published a manifesto against him, in which he gave the greatest annoyance to Nero by call- mg him a miserable and despicable musician. Nothing could have given Nero greater pain than such an assertion. A few days afterwards he received intelligence from Spain o the desertion of Galba, who was destined to be empe¬ ror } and he at once gave himself up for lost. He sent some Oi his most faithful freedmen to prepare some ships at Ostia Nertschink for flight, and in the meanwhile solicited some tribunes T II and centurions of the praetorian guard to accompany him; -^eiva- but on various pretexts they refused. He soon found him- ^ ^ v ” self completely abandoned by all except a few of his freed¬ men, one of whom, Phaon, offered to conceal him in his villa, about four miles from Rome, between the Via Salaria and Nomentana. But on his way thither he was recognised by a soldier, and though he reached his place of conceal¬ ment, he was soon discovered, and had only time to give himself a mortal wound when his enemies appeared. He died on the 9th of June, a. d. 68, in the thirty-second year of his age, and the anniversary day on which he had put his wife Octavia to death. He was succeeded by Galba, the last of the family of Augustus who ruled the Roman empire. (Suetonius’ Life of Nero; Dion. Cas- sius, in the Extracts of Zephilinus ; Tacitus’ Annals, books xiii.-xvi.) NElv ibCHIMv, a town of Asia, under the jurisdiction of Russia. It is situated on th*e Chinese frontier ; but its importance has much declined since the route of the Chi¬ nese caravans, which was formerly through this town, has been changed to the route of Selinginsk. A few merchants still remain, who carry on a small fur trade, particularly in sables. It was built in 1658, and was then merely a pali- sadoed fort; but in 1781 it was raised to the rank of a town. It contains two churches, and about 2000 inhabi¬ tants, including the military. The neighbouring moun¬ tains afford excellent pasturage, but the district is chiefly distinguished by the mines of lead and silver, which are worked by the crown ; and persons condemned to exile aie employed in this remote part of the empire. Long. 116. 44. E. Lat. 51. 56. N. & NERVA, M. Cocceius, the eleventh Roman emperor in succession from Augustus, was born a. d. 33, in the twentieth year of the reign of Tiberius. It is curious that his name is scarcely mentioned in history till he ascended the imperial throne, after he had passed his sixtieth year. He was piobably the relation of Cocceius Nerva, who is described by I acitus (Ann. vi. 26) as distinguished for his knowledge of law', and as having put himself to death ra¬ ther than survive his friends, who had fallen a sacrifice to the tyranny of Tiberius. We find him consul a. d. 71, being the second year of the reign of Vespasian, and a second time a. d. 90, in the tenth year of the reign of Domitian ; but history records nothing for which he was distinguish¬ ed. lowards the close of Domitian’s reign, he was in exile with many good men at Tarentum; and hearing of the bold defence made by Pliny the younger for the inha¬ bitants of Boetica against Bcebius Massa, he wrote to Pliny to congratulate him on the example he had given. (Plin. Ep. in. 33.) When the conspirators had resolved to put to death the Emperor Domitian, they found it no easy task to discover a person who would agree to be his successor, as every one suspected that it was a snare laid by Domi¬ tian himself to entrap them. Nerva, howrever, was per¬ suaded to i un the risk, an astrologer having some time be- foie piedicted that he would ascend the imperial throne. Domitian was murdered on the 18th of September a. d. 96, and Nerva was on the same day saluted emperor. The kind and benevolent disposition of Nerva must have been doubly felt from its strong contrast with the ferocious cruelty of his predecessor. One of his first acts was to release all those who had been accused of what was designated impiety, which consisted of the slightest neglect of respect to the emperor or his statues. This law was of so comprehen¬ sive a nature, that it was scarcely possible to escape, and the only chance seemed to be, by being active in the ac¬ cusation of others. Domitian had also passed a severe law against those who practised Jewish rites, by which profane writers no doubt meant the followers of the Christian reli- 104 Nerves II Nestor. N E S N E S gion; but Nerva refused to listen to any such accusations, ror spared Ins life, ami plac U er of C|ymcnus.' ^ Whatever property had been taken unjustly by Domitian Pylos. He mamed E J t|.e 5au hter 0,-- Alreup. .he restored to its lawful owners; and he at the same or, according to othe, - the fieia of battle, and time did every thing in his power to lessen the expenses He soon ^‘ingoished h.ms 1 pirith when a bloody of the state. He swore in the senate that no senator was present at the "uptml Cen[aur5 and the La. should be put to death by his orders; and even when a encounter took place ^ ^ ^ yIe8scniai |le led his subjects conspiracy was formed against him, he kept to his resolu- pith®. s mg > distinguished himself amongst tion. He used frequently to say that he had done nothing to the Trojan " et, "here he distm “ wisdom, to prevent him living in safety as a private citizen if he the Grecian chief, by h eloquence ^ re_ chose to laydown his authority. In nothing did he show enj d iJn ,hc bosom of his his sagacity and his anxiety to secure the happiness of the turne , .|]iiv wbich were necessary at empire more than by his adoption of M. Ulpms Nerva family the "‘^.nd the time of his death Trajanus to be his successor, although he was not without his advtmced age. The manner a tl]at many near relatives. He died, after a reign of sixteen are "en^rations of men. He had two daugh- months, on the 27th of January, a. D. 98, in the sixty-fifth ,ie °U p; ? p ‘ j Polvcaste; and seven sons, Perseus, year of his age. (Xiphilinus, Extracts from Dion Cassius.) *ars, P suhce a 1 ^ J Pisistratus, Antilochus, and NERVES, certain white glistening chords, proceeding btraticus, Aretus, I from the brain and spinal marrow, and dividing mtoJCT, a „ „hos£, secular name is not known, was a native of Russia, and the earliest historian of the north. He was born at the town of Bielozero in the \ear 10o6, and in the nineteenth year of his age he assumed the mo- nastic habit, in the convent of Petcherski, at Kiew, and took the name of Nestor. He there made considerable small branches, which are sent off throughout all parts of the body, and which form the organs of sensation and mo- NESA, a town of Khorasm, or Independent 1 artary which was taken and nearly destroyed by Genghis Khan in 1221, after a siege of fifteen days. It is situated near in 1221, after a siege of fifteen days, it is situated near look ^ j ^ but appears to have the Persian province of Khorassan, 100 miles norti of profici cy ^ manner rather from the study of the Meshed. ^ , NESHIN, a circle in the Russian province Ischerm- 20W, extending in north latitude from 50. 32. to 52. 26. and in east longitude from 21. 19. to 22. 43. It is one of the most extensive but poorest portions of the ancient Ukraine. The capital is a city of the same name, situated on the river Ostin, 822 miles from St Petersburg, and is the best built city, not only of the province, but of the country which was formerly known as Little Russia, it is surrounded with walls and defended by a citadel ; and it contains fifteen churches, 3000 houses, and 16,oOO in¬ dustrious inhabitants. There are several establishments of Greeks and Arminians, who have manufactories of silk goods, soap, leather, liqueurs, and especially of perfum- erv which is dispersed throughout the whole of Russia, and sent into Moldavia, Poland, Hungary, and even to Vienna. There are three great annual fairs, at which much business is transacted in wool, tobacco, honey, wax, salt, and manufactured goods. Public schools are main¬ tained for instruction in the classical languages, and in mo¬ dern Greek. It is situated in north latitude ol. ~. 4o. and east longitude 21. 44. 25. , , . ^ , NESSUS, in fabulous history, was a celebrated Centaur, the son of Ixion and a Cloud. He offered violence to Deja- nira, whom Hercules had intrusted to his care, with orders to carry her across the river Evenus. Hercules saw the distress of his wife from the opposite shore of the river, and immediately let fly one of his poisoned arrows, which struck the Centaur to the heart. Nessus, as he expired, Formed his style and manner rather from the study of the Byzantine historians, Cedrenus, Zonaras, and Svncellus, than from that of the ancient classics. The time of Nes¬ tor’s death has not been ascertained; but he is supposed to have lived to an advanced age, and to have died about the year 1115. His great work is his Chronicle, to which he has prefixed an introduction. In this work, after a short sketch of the early state of the world, taken from the Bvzantine writers, he gives a geographical description of Russia and the adjacent regions; with an account ot the Sclavonian nations, their manners, their emigrations from the banks of the Danube, their dispersion, and their settlement in the several countries in which their descen¬ dants are now established. He then enters upon a chro¬ nological series of the Russian annals, from the yea[ to about 1113. His style is simple and unadorned, being such as best suits a mere recorder of facts; and his chrot nological exactness, although it renders his narrative dry and tedious, has enabled him to fix the era and to deter¬ mine the authenticity of the events which he relates. NESTO RIANS, a sect of ancient Christians, who held that Mary was not the mother of God. They received their name from Nestorius, bishop of Constantinople, whose doctrines were spread with much zeal throughout Svna, Ecrypt, and Persia. One of the chief promoters of the Nes- torian cause was Barsumas, who appears to have been creat¬ ed Bishop of Nisibis in the year 435. Such were his zeal and success, that the Nestorians considered him alone as their parent and founder. By him Pherozes the Persian struck the Centaur to the heart. Nessus, as he expired t0 ex*pel those Christians who had ^^th^^^W-mhCS’^ ans^the^p^ce'-5and^to^pu^the^lattertn^os^ssiorToDhe sure, and this mournful present cause ie a sch0ol, from which proceeded those Nestonan doctors who cules. rwtor in thp him- in the fifth and sixth centuries spread their tenets through; and contains nofewer than seven other townships, v Great Neston had, in 1801, 1486 inhabitants; m 1811, 1332 ; in 1821, 1418; and in 1831, 1633. NESTOR, in fabulous history, was the son ot Neleus and Chloris, nephew to Pelias, and grandson to Neptune He had eleven brothers, who, with his father, were all kill- two persons in Jesus Christ, as well as that the \irgin was not his mother as God, but only as man. The abettors o this doctrine refuse the title Nestorians, alleging that it had been handed down from the earliest times of the Christian church. In the tenth century, the Nestorians in Chaldsea, whence they were sometimes called Chaldceans, extende thers, who, with his father, were all kill- wnence cney >ve.c \ ! * ~~'a ntrnduced and^prov'edtecause of ts" pTsenS^ Thelnque^ Se'cSan rel^on Into TaTtary properly so called, espe- N E S N onus, dally into the country bordering on the northern part of v“' China. The prince of that country, whom the Nestorians converted to the Christian faith, is said to have assumed, after his baptism, the name of John, to which, from a prin¬ ciple of modesty, he added the surname of presbyter; and hence it is said that his successors were each of them call¬ ed Prester John until the time of Ghengis Khan. But Mosheim observes, that the famous Prester John did not begin to reign in that part of Asia before the conclusion of the eleventh century. The Nestorians formed so consi¬ derable a body of Christians, that the missionaries of Rome were industrious in their endeavours to reduce them un¬ der the papal yoke; and for this purpose Innocent IV. in 1246, and Nicolas IV. in 1278, employed their utmost efforts, but without success. Till the time of Julius III. the Nestorians acknowledged but one patriarch, who resided first at Bagdad, and afterwards at Mosul; but a division having arisen amongst them, in the year 1551 the patriar¬ chate became divided, at least for a time, and Julius con¬ secrated a new patriarch, whose successors fixed their re¬ sidence in the city of Ormus, in the mountainous part of Persia, where they were distinguished by thename of Simeon. The great Nestorian pontiffs, who form the opposite party, and look with a hostile eye on this patriarch, have since the year 1559 been distinguished by the name of Elias, and reside constantly in the city of Mosul. Their spiritual dominion is very extensive, including a great part of Asia, and comprehending also within its circuit the Arabian Nes¬ torians, and the Christians of St Thomas, who dwell alonf the coast of Malabar. About the middle of the seven¬ teenth century, the Catholic missionaries gained over to the communion of Rome a small number of Nestorians, whom they formed into a congregation or church, the patriarchs or bishops of which resided in the city of Amida, or Diar- bekir, and all assumed the denomination of Joseph. But the Nestorians in general persevered in their refusal to enter into the communion of the Church of Rome. NES TORIES, from whom the sect of Nestorian Chris¬ tians derive their name, was born in Germanica, a city of Syria. He received his education at Antioch, where he was likewise baptized ; and soon afterwards he withdrew to a monastery in the suburbs of that city. Upoa bein» admitted into the order or priesthood, he acquired so great reputation, by the eloquence of his preaching, and the re¬ gularity of his life, that the Emperor Theodosius deemed him a fit person to fill the second see in the Christian church ; and he was accordingly consecrated Bishop of Con- stantmople m the year 429. In one of his first sermons after his promotion, he publicly declared his intention to make war upon heretics, and called upon the emperor to free the earth from heretics, promising to give him heaven as a reward for his zeal; and adding, “ Join with me in war against them, and I will assist you against the Persians.” Although the wiser and better part of his audience were amazed to see a man, before he had tasted the water of his city, as an historian expresses it, declare that he would persecute all who were not of his opinion, yet tile majority of the people approved of this discourse, and encouraged mm to execute his purpose. Accordingly, five days after ins consecration, he attempted to demolish the'church in which the Anans secretly held their assemblies; and he succeeded so far in his design, that these people, ren¬ dered desperate, set it on fire of their own accord, by ‘t was consumed, along with some of the in °U,nn^ ouses. This fire excited great commotions incendiary ’ ^ NeSt0nus was ever afterwards called an From the Anans he turned his persecution against the s^tinn ofntHbUt WaS Checked in his career by thf interpo- TnZ Cl hf- empf?r-. He then let loose his fury upon ™lCxyi ASia’-Lydia’ and Caria’ who celebrated NET 105 the feast of Easter upon the fourteenth day of the moon; and for this unimportant deviation from the Catholic practice,' these people were murdered by his agents, both at , Iiletum and isardis. One can scarcely regret that such a relentless persecutor should himself have been afterwards condemned as a heretic, for holding an opinion which no man out of the church of Rome will now venture to con- troyert. The obnoxious tenet which produced a schism in the church, and was condemned by a general council, consisted in maintaining that the Virgin Mary cannot with propriety be called the mother of God. The’people beinjr accustomed to hear this expression, were much inflamed against their bishop, imagining that he had revived the error of Paul of Samosata and Photinus, who taught that Jesus Christ was a mere man. The monks declared open- ly against him, and, along with some of the most consider¬ able men of Constantinople, separated themselves from his communion. Several bishops wrote to him, earnestly urg¬ ing him to acknowledge that Mary was the mother of God • and when he refused to comply,*they procured his condem¬ nation in the council of Ephesus, which deprived him of is see. He then withdrew to his former retreat at Anti¬ och, whence, four years afterwards, he was removed by the emperor s order, and in 435 banished to Tarsus ; and when that city was taken and destroyed bv the barbarians, he was transferred to Panopobs, a city of Thebais. But he w as not suffered to remain long there, and being compelled to wander from place to place, having received a severe bruise m one of his journeys, death soon relieved him from the rage of his persecutors. If we examine such of his writings as remain, we shall find that he was unjustly condemned. It appears that he rejected the errors of Ebion, Paul of Samosata, and Pho- tinus; that he maintained in express terms, that the Di¬ vine Uord was united to the human nature in Jesus Christ in the most strict and intimate sense possible; that these two natures, in this state of hypostatical union, make but one Christ and one person ; that the properties of the di¬ vine and human natures may both be attributed to this person; and that Jesus Christ may be said to have been born of a virgin, to have suffered and died. But he would never admit that God could be said to have been born, m have suffered, or to have died. NET, a device for catching fishes and fowls. The taking of fowls by means of nets is the readiest and most advan¬ tageous method, where numbers are to be caught. The making of the nets is very easy, and what every true sports¬ man ought to do for himself. All the necessary tools are, wooden needles, of which there should be several of diffe¬ rent sizes, some round, and others flat; a pair of round pointed and flat sassars; and a wheel to wind off the thread. The pack-thread should be of different strength and thickness, according to the sort of birds to be taken • and the general size of the meshes, if not for very small bu-ds should be two inches from point to point. The nets shou d neither be made too deep nor too long, for they are then difficult to manage; and they must be verged on each side with twisted thread. The natural colour of the thread is too bright and pale, and it should therefore in many cases be altered. The most usual colour is the rus¬ set, which is to be obtained by plunging the net, after it is made, into a tanner’s pit, and letting it lie there till it be sufficiently tinged. This is of a double service to the net, since it preserves the thread as well as alters the colour. I he green colour is given by chopping some green wheat and boiling it in water, and then soaking the net in this green tincture. The yellow colour is Sven in the same manner, with a decoction of celandine, which gives a pale straw-colour, like that of stubble in the harvest-time, ihe brown nets should be used on ploughed lands, the green on grass grounds, and the yellow on stubble lands. Net. 106 NETHERLANDS. Nether¬ lands. In the article Holland lias been 'traced the history of to be the chief theatre ^"'"^’^sest0 "p “ the revolt of the seventeen provinces ot the Netherlands “P P°''er f ’ wh() sti[j a[i|lcre,l to the Catho- " against the Spanish monarchy, and the subjugation ot the Amo ^ anxi0us to preserve it, without yielding greater part of ten provinces to that power m the year he faxth and were anxmus^to ^ 1578, whilst the remaining seven provinces, under the ^ , Argch(|tI the h&ead ofa powerful family, who Prince of Orange, maintained and ultimately secured their , .u ;’eaiousv of the aristocracy of Flanders independence in a republican form. Whilst this work has stT" ^faTaitt^ which the seven northern beetTio progress, a change has been effected- he Ne; th^ !„ order ,o therlands, terminating in a division which renders it c P , , tj t nower they resolved upon sending an cessary to introduce here an account of the new kingdom , Archduke Mathias, the brother of the Em- of Belgium; the name which has been assumed by he ln''‘tfi0,X,f Il a vouth uX twenty years of age, to southern par. of what was formerly the ktngdom ot the P^orfum A secretDmes. Netherlands. c T„„ dpsnatched to Vienna, and communicated with The decisive battle of Gemblours, on the 31st o . a - g vduke with tbe precipitation of youth, ardent- uary 1578, which terminated in favour of the Spaniards, a d 0ffer; withdrew privately from Vienna with- in the dispersion of the army of the states with the los of Ij acceded the otter .wit^ ^ P§ . and with great all its artillery, baggage, and stores, must be viewed as t celeri P and aiTived at Maestricht without pre¬ event by which the history of the Netherlands is - 1. . , Jh ino. ann0unced his resolution, which was scarce- ed from that of the seven united provinces, which were ;hat had inviied him, and quite collectively called Holland, after the first «f tiese s a es. ^ P ^ the ^rince 0f Orange and his friends. The archduke, better known by the name ’ T,P DrincJ with his usual coolness and prudence, ex¬ having gained this victory, was suddenly arrested by 1 d Peither surprise nor dissatisfaction at this unwar- hand of death whilst following up his success and h s Pinst his authority ; but, on the con- death has generally, but on insufficient evidence, bte became or appeared to become, anxious for adopt- tributed to the effects of poison. He was immediately - Y’ ’ wldch could do honour to Mathias, and ceeded by the Prince Alexander Farnese the son of the ^g the security of the country. He Duke of Parma and Piacenza, in Italy, by Marga e , rmtlineof the plan upon which his office was to Austria, a daughter of the Emperor Charles V., who had graT.ed to him, but so much formerly governed the Low Countnes under t J , cnvereia'ntv of the states general, as to of Philip king of Spain. On his accession to the command ™^ “ "o J e “l ugS ss yol but life empty title the provinces were in a most unsettled state. Don Juan 1“leh ^ 'dbeen femptedto make this wild excur- had feared to attack the partisans of the I mice ot 0rfig , y p j f 0range was appointed his lieutenant who held possession of Brussels; but he was ^ccessfu n mn.^ Frince of the govern. seizing upon Tirlemont, Louvain, Bovmes, Philippe ^ ^ Duke of Arschot was left, with little power and several other smaller but foi tiffed places. > i fl t0 brood over the disappointment of his cesses were, however, more than counterbalanced by the and^les^mfluence, to^D ^ ^ extent> loss of Amsterdam, where the inhabitants roseon th^ p^^ - ^ re . ned it with g00Pd humour; and the states, who nish garrison, and, having succeeded in d & , , adopted him in the hope of thereby obtaining troops, boldly declared in favour of the Prince of & • fore}o.n assistaP ce, when they found he was not supported The great strength of the Spanish party in the tc P ? brother or by the empire, accepted his resignation, vinces depended more on their union under one chief, by Ins Mother or^the en ^ of ^ for and on the discipline of the few regular Loops who Y . Af difficulty, Mathias was allowed had been able to collect, than on the number of soldiers ^vices Attei o y ^ dominions> and or the abundance of pecuniary resources. The people of by l^brother to ^ customed. Ihese constituted the chief reliant his death in 1619 His history belongs rather to that of s rr. ^» retat o=’ Tnh ^ of though there was a greater number of the populatio , < , Brabant who, in an assembly at Brussels, had a far greater power in warlike stores and in Plummy - d onfer on the then Duke of Alencon, afterwards sources, yet there were such party divisions and contests, ag A • the brother of the king of France, thedig- and such struggles folff P^f oa" the nity of Duke of Brabant, Lothier, Limbourg, and Guelders. much to weaken the effect.of their efforts, t< At- this neriod the Duke of Parma collected an army m Spaniards, or even to maintain against them ie p 1 i fhe city of Cambray ; but the siege, which he wLh they still held in Brussels, and m the commercml order mtake oppoJn’ arrival of and maritime cities. Animi at the head of a large army of French Although the Prince of Orange, by his talents and his «>o D k ^ A ^ Spaniilrds from before afteTthe independence o” the seven provinces had^ been Cambray, the^Duke h,habn ;r!ne *ftriSlsUTthetenap-^ were tant’s, mostly Protestants, made a powerful defence, «- Nether-- lands. NETHERLANDS. ther. :,nds. cited by the example of the Princess of Epinol, wife of the absent governor. This heroic lady, though wounded in the attack, fought in the breach, sword in hand ; and, when it was impossible to continue the resistance, she obtained an honourable capitulation, and marched out at the head of the garrison, with the appearance of a triumph rather than that of a defeat. The Duke of Anjou, after the delivery of Cambray, leav¬ ing his army on the frontiers of Flanders, repaired to Eng¬ land, in the hope of completing a treaty which had before been commenced for his marriage with Queen Elizabeth. That sovereign allowed him for some time to indulge hopes of succeeding in his suit; and, from political motives, when the offer was finally rejected, showed him every mark of feeling and regret, accompanied with such tokens of high respect as she supposed would lessen the mortification which he felt. His plan evidently was to unite on his own head the crowns of England and of Belgium. The duke, escorted by a powerful English fleet, repaired to Antwerp, where he was received by the Prince of Orange with the greatest splendour, and invested with the insignia of the dignities to which he had been invited, but of which he proved himself utterly unworthy. It is related of him, that when the Prince of Orange placed the ducal mantle on his shoulder, Anjou said to him, “ Fasten it so well, prince, that they may not be able to take it off again.” The king of Spain had about this period issued a paper full of invective, abuse, and falsehoods against the Prince of Orange, who was therein proscribed, and all persons in¬ vited “ to assail him in his fortune, person, and life, as an enemy to human nature and for the recompense of vir¬ tue and the punishment of vice, he promised, to any one who should deliver up William of Nassau, dead or alive, the sum of 25,000 golden ducats, in lands or money, at his choice ; to grant a free pardon to such person for all former offences, of whatever kind; and to invest hirn with letters-pa- tent of nobility. To this infamous paper William replied by that Apology which Voltaire has described as “ one of the noblest monuments of history,” in which he delivered a most splendid refutation of every charge against him, and a more terrible recrimination against the guilty tyrant. He thus stood before the whole public of Europe, not as a re¬ bellious subject, but as the accuser of a king, who had dis¬ graced his ancestors and his throne. The inauguration of the Duke of Anjou at Antwerp gave occasion to continued festivities, and the opportunity was seized in order to put in practice that which the de¬ claration of King Philip had intimated, and promised to reward. After a dinner on the Duke of Anjou’s birth-dav being the I8th of March, and as William was quitting the dining-room on the way to his private apartment, a young man stepped forward to offer what purported to be a pet£ tion. Whilst he read the paper, the treacherous suppliant discharged a pistol at his head; the ball struck him under the left ear, and passed out at the right cheek. As he tot¬ tered and fell, the assassin drew forth a poniard to com¬ plete his crime by suicide, but he was instantly put to death by the attendant guards. Papers found upon the assassin proved him to be a Spaniard a native of Bilboa, and clerk to a Spanish mer¬ chant of Antwerp. They showed that he had received the sacrament and confessed previous to the attempt, and that he was encouraged to the deed by prayers found amongst papers m the Spanish language, one of them addressed ™ i d. 3 tP .Gabne1’ lmploring his intercession with God < d the Virgin to aid him in the completion of his object. s young fanatic was shown afterwards to have been in- .t.gated to the crime by his master and a Dominican monk, who were t ^ and> before their execution, made a full thotX°T !heir cnminality- It is asserted by D’Ewes, the Jesuits, some years afterwards, solemnly gathered 107 the remains of the three pretended martyrs, and exhibited Nether- them as holy relics for public veneration. lands. Severe as was the wound inflicted on the prince, it did not prove fatal; but within three months he had so far re¬ covered as to be able to accompany the Duke of Anjou to Ghent, Bruges, and the other great towns of Flanders, in each of which the same ceremony of inauguration was per¬ formed. On each occasion he had taken the prescribed oaths to maintain and preserve to the states-general the several rights and privileges they had inherited from the succession of princes who had for a long period governed the country. 1 he duke soon began to compare the power he possessed with that held by the unlimited monarchs of the rest of Europe. He was found to be intemperate, in¬ constant, and utterly unprincipled ; and the French officers who suirounded him, and alone enjoyed his confidence, had no great difficulty, whilst nourishing his discontent at his limited power, in exciting him to take the most treacher¬ ous steps to extend his own authority, and to extinguish the liberties of the people which he had been invited to defend, and had sworn to maintain. Amongst these privileges, that of refusing to admit fo¬ reign troops to garrison the fortified towns was the one which those towns most zealously exercised. Though the smaller towns had overlooked slight infractions of tins pri- vdege, yet the larger ones, especially Antwerp, most se¬ dulously preserved it. Whilst a few of Anjou’s troops were admitted into some places, the main body was either en¬ camped or cantoned in quarters in the villages. He had secretly resolved on seizing on The towns, and sent orders to his officers to take possession in his name of Dunkirk, Bruges, Fermonde, and some other places, re¬ serving to himself the attempt to be made upon Antwerp. To prepare for the execution of his project, he had or¬ dered his numerous army, composed chiefly of French and Swiss, to approach the city, and form a camp very near to it. On the 1 /th of January 1583, having risen earlier than usual, under the pretext of going out afterwards to review us army in the camp, he set out at noon, accompanied by his guaid of 200 horse; and when he had reached the se¬ cond drawbridge, one of his officers gave the preconcerted signal for an attack on the blemish guard, by pretending that he had fallen and, broken his leg. The duke called out to his followers, “ Courage, courage; the town is ours.” The guard of Flemings at the gate was soon despatched ; and the French troops, which waited without to the number of 3000, rushed in furiously, shouting the war-cry, “ Town taken, town taken; kill, kill!” The astonished but in¬ trepid citizens, recovering from their confusion, instantly flew to arms. All differences in religion and politics were forgotten in the common danger to their freedom. Catho¬ lics and Protestants, men and women, rushed alike to the conflict. The ancient spirit of Flanders seemed to ani¬ mate all. W orkmen, armed only with the instruments of their various trades, started from their shops, and flung themselves on the enemy. Those who had fire-arms, after- expending their bullets, took from their pockets and pouches pieces of money, which they bent between their teeth, and used for charging their arquebuses. The French were driven successively from the streets and ramparts; and the cannons planted on the latter were immediately turned against the reinforcements which attempted to en- ter the town. The French were beaten everywhere; the Duke of Anjou saved himself by flight, and reached Ter- monde after the perilous exploit of passing through a large tract of inundated country. His loss in this atroci¬ ous enterprise amounted to 1500, whilst that of the citi¬ zens did not exceed eighty men. The attempts of the same kind simultaneously made at Dunkirk and at Termonde succeeded, but they failed in all the other places. Ihe consternation first, and soon afterwards the indig- 108 NETHERLANDS. Nether, nation, of the whole of Belgium, excited by this act of lands, treachery, is indescribable; but the Prince of Orange alone 'was cool and collected, and on the Duke of Anjou mak¬ ing abundance of professions of his repentance, of his sub¬ mission, and of future fidelity and obedience to the states, he was disposed to some kind of reconciliation, especially as his brother the king of France despatched a special en¬ voy to intercede for him. A treaty was then commenced, the tendency of which was to restore to Anjou the com¬ mand of the troops, with some new security against treach¬ ery on his part. He had in the mean time withdrawn to France to escape the general burst of indignation, and there his worthless existence was suddenly terminated, as some thought by poison, which in that day was com¬ monly supposed to be the cause of unexpected death. He had then scarcely attained his twenty-ninth year. The conduct of the Prince of Orange in trying to re¬ concile the states to the re-assumption of command by Aniou, although it could not arise from any selfish views, since he might himself have easily obtained the supreme power, was misunderstood by many of the Belgians, but more especially by the people of Antwerp. Unable to comprehend the greatness of his mind, they openly ac¬ cused him of having joined with the French for then; sub- iugation, and concealed a body of that detested nation in the citadel. The populace rushed to the place, and hav¬ ing minutely examined it, were convinced of their own folly and the prince’s innocence. He scorned to demand their punishment for such an outrageous calumny, but he was not the less afflicted at it. He took the resolution of quitting Flanders ; and he retired into Zealand, where he was better known, and consequently more trusted. The cities of Belgium which were free from the domi¬ nation of Spain were all more or less subject to the most violent political agitations, the bad effects of which were not lightened, but rather increased, by being mixed up with the prevailing religious differences of the times. Ihe evils of this state of public feeling displayed themselves more extensively, and during a longer period, in the city of Ghent, the capital of the province of West Handers, than in any other part of the Netherlands. Ihe persecu¬ tions of the Spaniards had driven the Flemings to a state of frenzy, which destroyed the exercise of reflection. Hatred to Spain begat hatred to that which Spain most cherished, the Catholic religion; and it is not to be won¬ dered that the lower classes in the cities should, from passion rather than from reason, have taken part wit i those more intelligent persons who had embraced the Fio- testant religion; and it must be added, that the persons who envied the property of the convents and churches, and who were anxious to seize upon that wealth and con¬ vert it to their own use, vastly augmented the adherents of the Protestant party. In Ghent, two men had taken advantage of these circumstances, and thereby gained an unbounded and most noxious ascendency over the public mind. John de Hembise is described by Vandervynkt as a man descended from a junior branch of a good family, educated, fluent and even eloquent, and well informed on every subject relating to his own country; but, on the other hand, a sceptic, destitute of morals, capable of assuming any character either sacred or profane, impa¬ tient of all control, and treating with contempt all who were in superior stations. Besides these qualities, his his¬ tory shows that he was bold, despotic, and imperious in prosperity, but did not exhibit the same courage m adver- sity The other, Francis de Kethule, lord of Ryhove, was also of a distinguished family, but of a character similar to Hembise, only much more violent and imprudent; but those qualities were somewhat checked by his adherence to the Prince of Orange, whose calm wisdom exercised at times some influence on his conduct. These two men, with all the qualifications necessary for Isetliei' demagogues, were allied with many of the respectable fami- Jands., lies of the city, amongst whom they gained some partisans; but their chief adherents were furnished in part by the burghers, and by almost all the mere populace. 1 hough afterwards they differed, at first they acted in concert; and as they most vehemently preached nothing but liberty, they were soon regarded by the populace as the heroes and the liberators of their country. The Duke of Arschot had been appointed governor of the city, with the appro¬ bation of the Prince of Orange ; and, though opposed by both the demagogues, he was seated in the dignity. He had drawn to him as a council the Bishops of Bruges and Ypres, the high bailiffs of Ghent and Courtray, and the governor of Oudenarde, and other eminent magistrates. Whi st they were assembled in council, the popular leaders collected a force of the lower classes, and, without even allowing him to dress himself, led him away to prison. They then seized the arsenal, armed the population, and soon had under their command a body of 20,000 well-armed and resolute men. The constitution of the city was changed, and the public treasury was seized upon, by the new rulers, who assumed the title of consuls; Ryhove being placed in the command of the military, and Hembise at the head of the civil power. The two consuls then nominated eighteen ot their own partisans, to whom was intrusted the supreme power of what they denominated the republic, ihe seve¬ ral guilds were ordered to elect officers, amongst whom the ranks of colonels, captains, and other grades, were distri¬ buted ; and the more wealthy and respectable inhabitants were excluded from any participation in power. The in¬ fluence of the other states of Belgium, headed by the Prince of Orange, was ineffectual in checking the violent pi o- ceedings of the city, further than in procuring the release of the imprisoned duke. The two heads of the democracy fortified the city, and thus gave employment to the poor, and extracted from the rich the means of paying them. The rich abbeys and other religious houses were plunder¬ ed, the occupiers turned out destitute, and the buildings converted into barracks for the troops and labourers. Whilst one of the consuls ruled in the city, the other issued forth with detachments of troops, laid waste the surrounding country, and subjected several of the towns in the vicinity to the horrid despotism exercised in the name of liberty. When any persons were known or sus¬ pected to be averse to the system of terror, if they were rich they were amerced in very heavy sums, or, if not able to furnish the requisitions, were, without trial, exiled, and in some instances put to death in secret. Ihese ca¬ lamities were so deeply felt that many of the gentry and burghers became voluntary exiles, and removed to fiance, to Holland, or to Brabant, so that when thus left only to the demagogues and the democrats, they found they put in movement a machine which they could neither di¬ rect nor stop. When the people became tired of anarchy, and sick of the sufferings they had caused and endured, the Prince of Orange determined to proceed to Ghent. Hembise did all in his power, by his harangues to the po¬ pulace, to prevent his admission ; but with the venality ot such assemblages his eloquence now failed. He was seiz¬ ed with a cowardly panic, and attempted to withdraw pri¬ vately by night. He had entered a boat to descend the river, when one of his partisans recognised him, and ex¬ claimed, “ Point de fuite ; tu nous as mene dans le bour- bier • il faut nous en tircr, ou perir avec nous. He then made him land from the boat, and followed him to the city, where he remained in private, employed with¬ out success in exciting tumults, whilst the prince was m WilHam of Orange reached Ghent in August and in a short time extinguished the spirit of democracy; hut NETHERLANDS. ether- though he restored the ancient constitution, and re-esta- iauds. bHshed some of the ancient magistracy, he could not re- store the wealth and the industry that had been destroj^ed or dissipated under the reign of democratic terror. Hem- bise retired from the city for four years; and, though it is an¬ ticipating the course of our narrative, it may be stated here, that, having again acquired a degree of influence, he made use of it to betray the city into the hands of the Spaniards, his mortal enmity to whom had been the original cause of his popularity. But he failed in his purpose. His de¬ signs were detected and exposed ; his partisans abandoned him ; and he was carried before the criminal tribunal, where, having defended himself very feebly, he was condemned to death. Hie sentence of decapitation was executed on the 4th of August 1584. His coadjutor Ryhove had before withdrawn from Flanders, and found an asylum in Hol¬ land, where, after a long illness, which terminated in fixed insanity, he died. 1 he transactions which have been noticed with regard to the Archduke Mathias, the Duke of Anjou, and the dema¬ gogues of Ghent, were the principal causes that led to the submission of the ten provinces of the Netherlands to the crown of Spain. Others, however, contributed in a greater or less degree to the same result. The differences be¬ tween the Catholics and their opponents pervaded every one of the towns; and as the respective parties prepon- deiated in any one place, they had no hesitation in per¬ secuting the others. It was of little avail that the states had issued a law called that of the peace of religion, by which, in places where there were a hundred families and upwards of either faith, they should be allowred the public exercise of their worship; and in the smaller places the majority should have the churches, but the minority might open others. This might have tended to peace, if not to union ; but, to the great mortification of the Prince of Orange, the clergy of both parties, by their influence over their followers, rendered the edict inoperative, and seem to “ave increased rather than abated the animosity. In Holland and in Zealand, however, there was a greater de¬ gree of religious tranquillity than in the southern pro¬ vinces. r Ihese troubles paved the way to the submission or con¬ quest of the greater part of the ten provinces. This was the more easily effected, because the people, wearied out with their sufferings, had learned that security to their persons and their property was of far greater benefit to iem than any of those kinds of liberty which the several adverse parties pretended to bestow on them. The assas¬ sination of the Prince of Orange in 1584, though not con¬ trived by the Prince of Parma, but at the court of Madrid, was communicated to that commander before its perpetra¬ tion, and he prepared the measures to be adopted when the iniquitous design should have been consummated. In the consternation produced by that event, those parts of Bel¬ gium which were free from the Spanish dominion sent tieir representatives to Antwerp, where they were ioined by others from the Dutch states. In this assembly it was resolved to offer the sovereignty of the whole to the king o Trance; and ambassadors were immediately despatched ^J>8: T‘1C \inS> Henry III., received them with great v- ■ 10n’ rut 118 affairs were so much embarrassed with der TnvrS 1*°^ ^ he found unable to ten- nation t0 the Norlands. On the termi- , 0t thls embassy, another was despatched to England zab«h asrilar,fenJde'; 0f fl,e s°™4nty to Queen” Eli- thus nffereH i ’1-' had a:iven birth. Spain herself was also much weakened 1 -v by her warlike unsuccessful operations at sea., and more especially by the revolution of Portugal, in consequence of which that kingdom gained its independence, and placed Don Juan IV. on the throne. From the want of resources on the part of Spain and her Belgian provinces, the war which affected the latter was carried on with but little vi¬ gour under the vice-regency of Mello, a Spanish general who had gained much fame by his defeat of the French army under De Guiche at Hannecourt, but lost it at the famous battle of Rocroy, where the French, who conquer¬ ed, were commanded by the great Conde, and nearly an¬ nihilated the Spanish and the Walloon infantry. In the midst of these extensive military struggles, which extended throughout the continent of Europe, and whilst England was contending for its king or its parliament, a treaty of peace was in course of negotiation by a congress of plenipotentiaries assembled at Munster and Osnaburg. Several years had already been occupied at these two places in projects and protocols. At that period all Europe wish¬ ed for peace, except perhaps Cardinal Mazarin, the prime minister of France under the regency of the queen mo- ther Anne of Austria, and Oxenstiern, the prime minister of Sweden in the minority of Queen Christina. The em¬ peror of Germany, the king of Spain, and the Dutch re¬ public, were the first to endeavour to bring about a gene¬ ral peace ; and the inferior states in a short time concurred with them. The first step was taken in 1641, when some preliminaries were agreed to and signed at Hamburg ; but several years passed before other places for assembling the general congresses could be fixed upon besides Hamburg and Cologne, which had been first intended. Some pro¬ posed Worms and Spires as the two most proper cities, from being near to each other; but at length the Swedes contended lor Munster and Osnaburg in Westphalia, which was then unanimously approved. The Catholic ambassa¬ dors met at the first of these cities, and the Protestant at the other. When the two parties had occasion to confer together, deputies from each met at Lengerich, a small town nearly equidistant from both. As the negotiation had been commenced by the media¬ tion of the pope and the republic of Venice, they both sent ambassadors to the congress. These envoys took up their residence at Munster; but Contarini, the envoy for Venice, a man highly reputed for his patience and his prudence, often repaired to Osnaburg, and by his wisdom succeeded in allaying the greatest discords. The ambassadors who composed these illustrious as¬ semblies were the representatives of the emperor of Ger¬ many, and of the kings of Spain, France, and Sweden, each of the ecclesiastical or secular electors of the empire ; the Archduke of Innspruck, the house of Brunswick, that of Mecklenburg, of Holstein, and of Baden; the Duke of Wir- temburg, Amelia Elizabeth of Hanau-Muntzenburg, the Dowager Landgravine of Hesse-Cassel, the Landgrave of Hesse-Darmstadt, those of the imperial cities, of the circle of Burgundy, and of the cities of the Hanseatic league. From Italy there appeared an envoy from the reigning Duchess of Savoy, from the Grand Duke of Tuscany, and fromnhe Marquises of Mantua and Montserrat. To these may be added the plenipotentiaries from the seven united and independent provinces of the Netherlands, who are noticed separately, because they treated only and distinctly for a separate peace with Spain. I he king of Portugal, Juan IV., who had just ascended the throne, but had not yet been acknowledged by Philip of Spain, sent to Westphalia his ambassador in company with the ambassador of France ; but the minister of Spain declared, as soon as he arrived, that if he were admitted to the congress, he had orders immediately to retire. The emperor had demanded the admission of the plenipoten- Nether- tiaries of the Duke of Lorraine, and the French opposed lands, it; and thus both the envoys of these powers were exclud- ed. The Duke of Lorraine afterwards settled his differ¬ ences with France, and was admitted at the final settlement of the treaty. The singularity of this meeting, and the important event with which it concluded, may excuse the notice of the component parts of the two bodies. Various delays, from discussions, some of a trifling'nature, some of importance, prevented even the commencement of the negotiations till 1643 or 1644; but from that time they proceeded regularly, and as rapidly as the nature of the various matters to be discussed would admit. The sepa¬ rate negotiation between the king of Spain and the states- general was of the most simple kind, its perplexities hav¬ ing been in a great degree unravelled by what had passed previous to the truce of 1609. It was, therefore, the first completed, and was signed by the plenipotentiaries of the two powers, at Munster, on the 30th of January 1648, and the ratifications were exchanged on the 15th of May fol¬ lowing. As this treaty proceeded on the principle of the uti possidetis, it was favourable to the states-general, as they were in possession of more extensive territories than at the signing of the truce of 1609. Though not immediately connected with the history of Belgium, we may here state, that the general treaty of Westphalia, by which peace was established in the whole of Europe, was definitively signed on the 24th of October 1648, to the satisfaction of all the powers except France, which complained of the Dutch having neglected to afford the stipulated support, and of the pope, who made a formal protest against the confiscation of the ecclesiastical pro¬ perty, and against the freedom granted to the Protestant princes to appropriate the revenues of the church to other than Catholic ecclesiastical purposes. The peace of Westphalia, important as it was to the whole of the contending powers, proved peculiarly so to the ease and improvement of Belgium, which being now merely an appendage to Spain, had the least apparent connection with the negotiations. During the former truce the archduke and archduchess had laboured to re¬ medy the abuses in the administration of the law which had grown up in the period of the troubles. They had sworn to maintain that compact long endeared to the Bel¬ gians by the name of the Joyeuse Entree. It was former¬ ly made to secure the states of Brabant and Limburg, including Antwerp, and to confer privileges upon other of the states; and an oath was taken at the inauguration of the duke, that if he should ever be tempted to infringe any of their privileges, none of the subjects should be bound to yield him obedience. The privileges of those states were so much valued, that it was customary for fe¬ males to repair to them previous to their confinement, that their children being born within them, might have the be¬ nefit of these privileges. They granted several new charters to provinces and towns, and the privileges of the people were placed upon a footing adapted to their wants. After the peace of Westphalia, the sufferings from the recurrence of the war under the prince-cardinal were soon ended, and the joy on account of the peace and at the amount of li¬ berty secured to them had a very beneficial effect. Anarchy gave place to regular government, persons and property were secure, the cry to arms was not heard calling the husbandman from the peaceful labours of the field, and the fertile soil was tilled with renewed industry and increased skill. I he re-establishment of the religious houses in their estates proved highly beneficial. They were mild landlords, and the peasantry that worked under them were instructed in the best means of culture. In the nunneries also in¬ dustry was introduced and flourished ; and the females in 120 NETHERLANDS. Nether- them were so improved, and acquired such a delicacy lands. 0f touch in their fingers, that they could spin flax to a degree of fineness unequalled in any other part of the world. This gave them a great value; the nuns’ thread, a kind of second-rate fineness, was sought after everywhere; and by constant practice the art of making very fine thread was carried so far, that some of that from Mechlin was sold in England as high as thirty-five pounds sterling for a pound weight, or acquired a value of more than ten times its weight in silver. Besides the fine thread which was sent to foreign countries, much of it was made into lace at home, both by nuns and by the females in private families in the towns as well as in the villages. The tame of Brussels lace was rivalled by that of Mechlin, and at a humble dis¬ tance imitated in Valenciennes, then a fort ot Flanders, and other towns. The soil was, and still is, admirably adapt¬ ed for the growth of the finest flax; and the thread spun from it was woven into those delicate cloths which receiv¬ ed the name of cambrics from the city where the mer¬ chants collected and bleached them, and where the trade still exists, though Cambray has since become one of the cities of France. The fine lawns of which the bishops ot all Europe had their roquelaures and sleeves made, were also a product of Belgium ; and, in spite of the laws which prohibited their importation in many countries, the diffu¬ sion of them could not be anywhere prevented. It must be obvious that these branches ot industry could not have flourished during the dreadful hostilities which had wasted the country ; but the rudiments of the arts were not destroyed, so that they began to spread immediately after the truce of 1609, and with greater celerity after the conclusion of the peace of Westphalia, in 1648. To show the progress which had been made in agriculture, it does not seem unnecessary to notice, that Cromwell, when he obtained the supreme rule in England, sent to Flanders for husbandmen to cultivate his pattern farm at Iheobolds, within ten years after the peace of Munster; and having introduced the practice of sowing clover and other grasses in the corn after the Flemish mode, became a great bene¬ factor to the husbandry of his country. With the revival of industry, both in agriculture and in manufactures, the fine arts also made their appealance. Painting was cherished, and the Flemings established that school which furnished works of their peculiar style, that rival the best productions of Italian art. The decoration of their religious edifices w7as the chief object of the art¬ ists ; but in the representations of country scenery, of ru¬ ral groups, of peasants, of cattle, and of domestic life, their skill has never been exceeded. Neither architecture, sta¬ tuary, nor music, seem to have made much progress ; and learning appears to have been almost kept out of sight, or to have passed the boundary, and taken up its residence amongst the Dutch, who in that age produced the most eminent scholars in antiquities and classics, as well as the most able cultivators of natural history and of medical science. Their theology was in a great measure confined to the dogmas ot the infallible church, and their moial science to the discussions of the schoolmen. Belgium, now fixed as a Spanish province, enjoyed a long course of tran¬ quillity. Whilst England and the Dutch, during the exist¬ ence of the commonwealth and under Charles II. were car¬ rying on hostilities, and fighting tremendous battles at sea, the provinces of the Netherlands were not in the least af¬ fected by the contest. In one instance, indeed, in the year 1672, when the united forces of France and of England were assailing the united states, the king of Spain gave or¬ ders to his governor of the Belgian provinces, Monterey, to collect an army of 10,000, and march to the relief of the Dutch. But before this force reached the scene of the war, the king of France was compelled, by the movements of a body of troops of Leopold, emperor of Germany, and by some demonstrations of the Elector of Brandenburg, Nether added to some checks he had received from the Prince of v ianils- Orange, to abandon with great rapidity the conquests he “ ^ had made ; and England, withdrawing from his alliance, concluded a treaty of peace w ith the Dutch. Spain, however, in alliance with the Dutch and the em¬ peror, continued the war with France. That power had an army in Brabant, with which William, prince of Orange, who had recently married the Princess Mary of England, and ultimately ascended the throne along with her, attacked the French under Conde, and in the battle of Senef first dis¬ played his military talents. This battle was fierce and bloody, but indecisive, and was chiefly remarkable as the last action of Conde and the first of William. In the following year the Dutch and Belgians made an attempt to take Maestricht, which, though conducted by William, proved unsuccessful. On the other frontier the French were fortunate, and took from Belgium the cities of Valenciennes, St Omer, and Cambray. William has¬ tened to the relief of those places, and having encounter¬ ed the French near Cassel, met with a most serious defeat. This led to negotiations for peace, and a treaty was con¬ cluded between the French and Dutch, at Nimwegen, in 1678, to which Spain also reluctantly acceded in the latter end of the same year. The increase of the prosperity of Belgium was little if at all checked by these hostilities. It had been but local¬ ly, and for a short period, the seat of war. Besides, that war was carried on with much more humanity than had been displayed in the long civil war; and as the allied troops of Holland and of Germany paid for what they con¬ sumed, it is not unlikely that the high prices paid to the Belgians for the produce of their soil proved more beneficial to them than the light additional taxes with which they were charged was detrimental. Belgium again enjoyed an interval of tranquillity, which was well employed in domestic improvement. It expe¬ rienced more alarm than evil by an irruption of the French, which the Spanish army was too weak to oppose ; but V il- liam of Orange agreed, in the name of the Dutch, to a truce with France for twenty years, to which the emperor of Germany and the king of Spain gladly acceded. The accession of William to the throne of England gave rise to a confederacy of several powers against the am¬ bition of Louis XIV.; and, at the congress of Utrecht, in the year 1690, that prince, at the same time uniting in his person the executive power in England and Holland, was named as the chief of the confederation. The war which followed was generally indecisive, as far as relates to Bel¬ gium ; Mons and Namur were captured by the French, and the fortress of Huy was taken by William. Marshal \ ille- roy with his army advanced to Brussels, and during three days kept up a furious bombardment, by which the town- house, fourteen churches, and 4000 dwellings, were redu¬ ced to ashes, but with no farther effect. The other events of this war, extensively as they were spread, have only a remote connection with Belgium. It was terminated in 1697, by the peace of Ryswick, where a treaty was framed very little differing from that concluded at Nimwegen nineteen years before. By the treaty Spain gained the re¬ storation of Luxembourg, Charleroy, Mons, Courtray, and all the towns and fortresses taken by the French in the province of Luxembourg, Namur, Brabant, Flanders, and Hainault, except eighty-two towns and villages claimed by them. The death of the king of Spain, in 1700, gave rise to a general war, which extended to almost every part of the world. He was a weak prince, without an heir to his do¬ minions, and thought himself empowered to appoint a suc¬ cessor. The leading powers of Europe, and France amongst the rest, had agreed amongst themselves so to settle the NETHERLANDS. 121 V^i her- succession as to balance the power, in conformity to the Jds- treaties then existing. The dying king, displeased with this distribution of his dominions, by his will bequeathed them to the Duke of Anjou, the grandson of Louis XIV. king of France, whose ambition had by his previous con¬ duct roused the jealousy of almost all the other states. Louis, who during the peace had kept up his armies to their full war establishment, was prepared to maintain, by force of arms, the disposition of the Spanish monarch. This gave rise to the Grand Alliance, usually considered as the master-stroke of policy of King William. About the same time King James died in France and William in England; upon which Louis acknowledged the son of the former as king of England and Scotland. As William had died with¬ out issue, Anne ascended the throne. The declaration of Louis operated to unite the parties in England, and to en¬ able the new queen to extract from her subjects extraor¬ dinary supplies for carrying on the war. The events of this war belong to the history of Europe, and not to that of the Netherlands peculiarly, though the latter country was one of the prominent scenes of its trans¬ actions. The parties to this alliance were at first only the emperor of Germany, the sovereign of England, and the states-general of the united provinces ; but other princes, both in Italy and in Germany, were subsequently included in it, either as allies or as auxiliaries. The Netherlands was a part of the countries contended for, and to a limited extent, and during limited periods, the theatre of bloody battles and sieges; but as the contending parties wished to occupy and not destroy the provinces, they suffered but little, and the contending armies expended so much money in the country, that the capital left behind was thought to be more beneficial than the injury sustained amounted to. The battering down the walls of some of the towns, the blowing up of forts, and even the casual trampling down of the growing crops, inflicted but tran¬ sient inconvenience; whilst the large sums expended by the numerous troops of English and Dutch, officered by some of the wealthiest and profuse men in Europe, and paying for the productions of the soil rates far beyond the cost to the cultivators, remained in the country, and form¬ ed a capital the influence of which was felt long after the operations of war had ceased. After various successes in some quarters, followed with reverses in other parts, France became exhausted, and was ready to make peace upon any terms; and the allies, too, were weakened and ready to enter into treaty. But the emperor and Holland wished to reduce Louis still more, when an intrigue in the English female 'cabinet led to a feeling in the government in favour of the pretensions of France, in opposition to the views of the allies. England resolved on peace, and entered into secret negotiations with France. Holland could hope for nothing from that power when thus left alone. The Emperor Leopold died about this time, and was succeeded by his brother Charles, who had been during the war a competitor with the Duke of Anjou for the throne of Spain. That kingdom thus be¬ came an object of less personal consequence to him than before. In these circumstances, the negotiations were commenced in January 1712, and terminated definitively by the peace of April 1713, usually denominated, from the place where it was signed, the peace of Utrecht. By this treaty, Spain, with her transmarine dominions, were se¬ cured to the Duke of Anjou, Gibraltar and Minorca to Eingland, whilst the ten provinces of Belgium were assign- i .Vhe emPeror °f Germany, and now assumed the name which it long bore of the Austrian Netherlands. These provinces were finally delivered up to the em¬ peror in 1716. From causes which the preceding narra¬ tive must render very natural, there was considerable dis¬ content amongst the people ; and it was only bv extreme VOL, XVI. severity, and almost overwhelming precautions, that a ge¬ neral revolt was prevented. After the first ebullitions of disgust had expended their force, as peace was restored, and prosperity followed, no difficulty seems to have been found in governing the country; and neither revolts nor punishments were spoken of during the fifteen years which passed before the accession of Maria Theresa to the impe¬ rial throne. Whatever may have been the early repug¬ nance of the Belgian people to the Austrian dominion, they became gradually reconciled to it; and the benevolent reign of their new duchess converted the Netherland po¬ pulation into faithful and devoted subjects to the house of Austria. Her government was just, mild, and firm ; her religious opinions and acts corresponded to their own, and she made no infringements on the Joyeuse Entree. The continuance of tranquillity afforded time for industry to develop its power; and agriculture, the chief industry of the country, was constantly improving, and enriching proprietors, cultivators, consumers, and, in short, every one of the classes which composed the nation. The foreign trade, however, which had in ancient times crowded to the cities of Antwerp, Ghent, and ’Bruges, was not renewed, as the closing of the Scheldt had been one of the condi¬ tions of the several treaties with the Hollanders ; and Os- tend and Nieuport, the other seaports, were of very little use to Belgium. The tranquillity of Belgium was interrupted by the war which broke out in 1743. The French, under Marshal Saxe, after he had gained the battle of Fontenoy in May 1744, invaded Belgium, took Brussels and several other towns, and thus placed the whole of the Austrian Nether¬ lands in the power of Louis XV. But the treaty of Aix-la- Chapelle in 1748 terminated hostilities, and Maria Theresa was again established in her Belgian possessions, as she had enjoyed them before the war. Though reduced to a state of widowhood by the death of her husband Francis I. who had been raised by her to the imperial dignity, she ruled singly her vast possessions, with so much mildness, united to firmness, that her name even to this day is cherished in Belgium, as amongst the dearest recollections of the people. Her good sense and good feeling preserved her from overstepping the hounds of the ancient laws. She had no temptation to abuse her power, nor had her sub¬ jects any cause for want of fidelity in their allegiance. Iteforms were necessary in many of the local, provincial, and commercial regulations; but in effecting them she violated no principles, wounded no opinion, shocked no prejudice, so that they were affected with but slight mur¬ murs, and no resistance. The rude burghers of Flanders abandoned their hereditary right to an independence of the more exaggerated kind. Faction itself yielded homage to the ascendency of justice, and social civilization made a rapid progress throughout the whole country. During the Seven Years’ War which terminated in 1763, the Bel¬ gian dominions of Austria bore their share of the pecuniary burdens and levies of men in the early part of the transac¬ tions ; but it suffered none of those inflictions which visit a country that is itself the seat of war. After the peace of Paris, the Austrian Belgian states continued to flourish. The government was indeed an absolute monarchy; but the municipal laws still retained a great portion of their popular character, and the political privileges of the people were considerable. This mixture of sovereign power with popular rights, or rather the prerogative of an aristocracy of nobles, clergy, and lawyers, worked well and gave ge¬ neral satisfaction during the whole reign of Maria Theresa. In November 1780 this princess was succeeded by her son Joseph II., whose own mind was somewhat tinctured with that infectious desire of organic changes which the contest between England and her North American colo¬ nies had spread throughout Europe. Nether¬ lands. Q 122 NETHERLANDS. Nether¬ lands. Joseph was inaugurated with the ancient formalities, and both he and the states swore mutually, he to preserve ' the ancient privileges, and they to yield obedience as long as he maintained them. This compact, already noticed under the name of the JoyeuseEntree, included the varying rights of the several states, those of the ecclesiastical bo¬ dies, and of the courts of law, and the privileged influence of the nobility. As Joseph examined more minutely into the interior affairs of his dominions, he saw with concern the extensive despotism exercised by the clergy, and in no part so much as in his Belgic provinces. He saw that re¬ ligious power had overstepped its boundaries, and infringed upon the power of sovereigns ; and he honestly felt it his duty to bring it within more beneficial limits. Had he done this by degrees, he might have gradually restored each branch to its due equilibrium ; but he was anxious for a speedy reform, and not sufficiently cautious to avoid con¬ flict with prevailing prejudices. He began by breaking the dependence in which the clerical body was united to the pope, and, by his decrees in 1781, soon after his ac¬ cession, commanded the clergy to grant dispensations foi marriage without any reference to the holy see. In the following year decrees were issued, commanding the cele¬ bration of marriages between Catholics and Protestants, in defiance of the canonical laws and customs then in force. Of the convents and other religious houses, which were very numerous, some were abolished, and in otheis the rules of the institutions were altered, if not reformed, by a simple proclamation. At length the episcopal seminaries which were under the direction and control of the prelates were abolished; and two universities were established, one at Louvain, the other at Luxembourg, which, though bet¬ ter adapted for the diffusion of knowledge than the old colleges, were looked upon by the priests, and also by the laity, who were under the influence of the priests, as a dangerous and even heretical innovation, and the more noxious, because they were under the sole jurisdiction of the emperor himself. The dispositions of Joseph towards his favourite pro¬ jects of reform were not restricted to the ecclesiastical bodies, but in a short time assailed the old-established and deeply-cherished administration of law, leaving to it only the ancient principles of the Roman jurisprudence. . The electoral colleges of the provincial states were abolished, as well as the courts and councils by which justice was dis¬ pensed, and the whole of the signioral and ecclesiastical jurisdictions. By these decrees the lawyers, next to the clergy the most influential body, were either injured or highly offended. Some were apprehensive of losing their professional practice, and others were removed to new situations ; for new courts had been erected upon a simple and uniform plan in each of the provinces, with a supreme court at Brussels controlling all the provincial courts. On this account it was deemed necessary to divide the whole territory into nine circles, by which the local powers of the magistracy were disturbed, and in many instances destroyed, without an efficient substitute being established in their stead. The privileges of the several municipal and other corporations were next violated by the appoint¬ ment of their officers in virtue of the sovereign authority alone. As discontents arose from these proceedings, the states of Flanders and Hainault at length declined to vote the usual subsidies; upon which a decree was issued, stat¬ ing, that in consequence of this refusal, the emperor held himself absolved from every obligation towards the states, and on that account declaring the abolition of the repre¬ sentation of those states. Without entering into the merits or demerits of the projects of Joseph, it is clear that the chief design of them was to benefit the people, by disse¬ minating amongst them more tolerant feelings in religion, and a better administration of justice, by virtue of the in¬ creased power of the executive government, and not by Netk any extension, or even intervention, of popular feeling and ^ lan^ co-operation. At the time when these new ordonnances were promulgated, the democratic spirit had arisen in France ; and though a similar tendency was not discovera¬ ble in Belgium, yet the growing discontent, caused by the introduction of measures of genuine liberality, produced an insensible bias towards republicanism, which had its effect on subsequent events. It was not till 1787 that the consequences of the rapid measures of the emperor had raised such a spirit of dissa¬ tisfaction as to lead to the apprehension of active opposition. But as the whole body was in a state of excitement, a spark was sufficient to cause an explosion. The syndics or chiefs of the corporation of Brussels, supported by those of Ant¬ werp and Bruges, presented memorials to the governor, Prince Albert of Saxe-Teschen, which in strong terms pointed out the danger of insurrection if the obnoxious decrees were persisted in and acted upon. The governor was alarmed, and suspended the execution of the decrees till the pleasure of the emperor could be known, and held out hopes of prevailing upon him to remedy some other com¬ plaints. These assurances diffused joy throughout the states, and the day upon which they were given, the 30th of May 1787, was ordered to be hereafter consecrated as an anniversary of rejoicing. All this joy was, however, premature. The resolution of the emperor had to be waited for ; and he was with his army carrying on the war with the Turks. On his return, two months afterwards, so far from ratifying the concessions made to his Belgian subjects, he despatched his mandates in an angry tone, declaring that he had never intended to subvert their con¬ stitution, but sought only to correct abuses and introduce salutary reforms. He required as a proof of obedience, that the states of each province should send deputies to Vienna, to lay their complaints at the foot of the throne. Fie professed to retain the sentiments of a father, and knew howto pardon the errors and temerity of his subjects, but threatened them with severe chastisement if they refused the mark of respect that he demanded. He also informed them, that he had called to the capital the governor of the provinces, and the commander of the army, that they might act as mediators between him and his subjects. This intelligence filled the provinces with consternation ; but it was nevertheless resolved that deputations should proceed to Vienna. Whilst on their road, accounts reach¬ ed them on all sides of the prodigious force which was on its march to the Netherlands, and of the consent of the several princes between that country and Austria having been given to the passage of troops through their dominions. But these rumours, instead of terrifying the Netherlanders, roused them to resistance. The most prominent leader of the party was Vandernoot, a lawyer of some eminence, who had been the most energetic orator; in the states. When others had been arrested, he made his escape, and found refuge in England. He now repaired to Breda, and there established a kind of committee, who conferred on him the title of agent plenipotentiary of the people of Bra¬ bant. He attempted to draw the Prussian, English, and Dutch governments into some negotiations, with a view to favour the cause of the dissatisfied Belgians; but though unsuccessful in these attempts, he succeeded in inflaming the passions of the people to a high degree of religious frenzy, a work in which he was zealously assisted by the powerful exhortations of the ecclesiastical body. The Ne¬ therlanders were in all ages a military people, and, when once roused to activity, capable of displaying great energy. Arms were seized by the populace, and a commander offered himself in the person of Van der Mersch, a soldier of fortune, who had risen from the ranks to the command of a regiment during the Seven Years’ War. A formal act NETHERLANDS. 123 ier- by an armed body under this commander declared that the .Is. Emperor Joseph had forfeited the sovereignty of Brabant; "■"■''and this was followed by the advance of the forces he had collected in the direction of that province. His conduct was cautious and considerate, and he diligently directed his efforts to introduce order into bodies of men inspired with a degree of fanatical confidence which it was difficult to restrain within the necessary bounds of discipline. The Austrian troops were few in number, and Van der Mersch approached them cautiously. Having by some feints and stratagems induced them to follow him into the narrow streets of the town of Turnhout, situated between Antwerp and Breda, a bloody contest took place, in which the impe¬ rialists were finally defeated, with a loss of lives far ex¬ ceeding that which the army of the insurgents had suf¬ fered. He immediately penetrated into the province of West Flanders, where he was received with open arms by the inhabitants, and speedily became master of Ghent, which was taken by assault, and of Bruges, Ypres, and Os- tend, which voluntarily surrendered. The imperial go¬ vernment now thought it prudent to withdraw from Brus¬ sels ; and upon this the states of Brabant and Flanders as¬ sembled, on the plan of the ancient constitution in that city. Soon afterwards Vandernoot and his associates ar¬ rived from Breda, and having made a triumphal entry with great solemnity and parade, were received with the most joyous acclamations by the enraptured inhabitants. The imperial forces being dispersed, and no fresh succours ar¬ riving, the states, in 1790, formed a treaty of union, which comprehended the seven provinces. Hitherto all had been done by the excitement of religious bigotry ; but there soon began to appear symptoms of a fanaticism of the very opposite character. Van der Mersch, the successful ge¬ neral, was accused of holding French principles; and Vonck, an advocate of Brussels, was inculpated in the same charge. In the violent squabbles of party it is difficult to ascertain the truth; how far these men had imbibed Ja¬ cobinical opinions, or whether they had imbibed them at all, it is difficult and needless to ascertain. It became, how¬ ever, the signal of disunion, of which the Catholics avail¬ ed themselves in order to excite general abhorrence of Van der Mersch, as a monster of impiety and treason. Van¬ dernoot, aided by an ecclesiastic of more talent than him¬ self, named Van Eupen, took the lead in the general as¬ sembly of the nation. Religious fury was carried to the greatest excess; and the excited populace, urged on by the clergy, proceeded to the most violent outrages against the opposite party. Vonck and his party fled to save their lives, and their houses were broken into and pillaged by the populace. Scenes of the most revolting nature were ex¬ hibited throughout the country. These wrere encouraged and even participated in by the priests, who, wdth the sword in one hand and the crucifix in the other, breathed out the most horrid imprecations against those whom they called infidels or heretics. During these proceedings the army became totally dis¬ organized and inefficient. An open rupture took place be¬ tween the commander of the forces and those who had the direction of public affairs. The troops abandoned their general, and adhered to the civil rulers, chiefly on account of their attachment to the Catholic religion. He left the aimy, accompanied with the curses of the populace, by whom Vandernoot and Van Eupen were almost deified. In Brussels, the people bent the knee when they gazed on the picture of the one, and uncovered their heads when they pronounced the name of the other. Whilst the Netherlands were unassailed by open hos¬ tilities on the part of their imperial sovereign, and the bigoted party were indulging their narrow-minded mea¬ sures of policy, the Emperor Joseph, who, with respect¬ able talents and the best intentions, had failed in every thing he undertook, was removed from this life. He died on the 20th of January 1791, accusing his Belgic subjects of having caused his death, and w as succeeded in his ex¬ tensive dominions by his brother Leopold. Leopold manifested much sagacity and moderation in the measures w'hich he adopted for the recovery of the re¬ volted provinces; but their internal disunion proved his best ally. The states-general occupied themselves almost exclusively in attempts to re-establish the monkish insti¬ tutions which Joseph had abolished; and having dismissed their able general on account of heresy, and thereby dis¬ organized the army, they had the temerity to reject with scorn the overtures which the new emperor addressed to them. The imperial forces had been collected on the frontier, and the command given to General Bender. These troops with their appointments were sufficient to overcome all opposition that could be offered by a country the govern¬ ment of which was compounded of ignorance, bigotry, and rashness. As the imperialists advanced into the provinces, town after town opened its gates ; Vandernoot and his as¬ sociates saved themselves by a rapid flight, and sunk into obscurity. A short campaign gave the emperor quiet pos¬ session of the whole of the provinces ; and, on the 10th of November 1791, he concluded a convention with England, Holland, and Russia, by which an amnesty was granted for all past offences, and assurances given to the people that their ancient constitution and privileges wamld be respect¬ ed. In conformity to this treaty a succession of edicts w ere issued, revoking all the offensive ordonnances of his pre¬ decessor, re-organizing the provincial councils, and re¬ establishing the form of government on the same popular footing on which it had existed during the reign of Maria Theresa. These arrangements were only completed a little before the death of Leopold, an event that happened sud¬ denly on the 1st of March 1792. His son Francis II. suc¬ ceeded to the throne, and under his reign the final sepa¬ ration of the Belgian provinces from the imperial family took place. The new emperor, soon after his accession, found him¬ self involved in a war wdth revolutionary France. His forces, conjointly with those of Prussia, invaded that coun- tryjand, after advancing to Champagne, were repulsed with tremendous loss. France then became the assailant of those powers and their allies, and one of her first great efforts was directed against the Belgian provinces of the house of Austria. The battle which decided their fate was fought at Jemmappes, near Mons, on the 6th of Novem¬ ber, and terminated in a decisive victory in favour of the French, commanded by General Dumouriez. The result of this action was to place the whole of Belgium at the mercy of the conquerors. The Austrians were driven out of the country. Dumouriez made his triumphal entry into Brus¬ sels on the 13th, and, immediately after the occupation of that city, the whole of Flanders, Brabant, and Hainault,with the other Belgic provinces, were subjected to France. Soon afterwards, several pretended deputies from the Belgian people hastened to Paris, and implored the convention to grant them a share of that liberty and equality which were to confer such inestimable blessings on France. Various de¬ crees were in consequence issued; and, after a variety of procedure, the incorporation of the Austrian Netherlands with the French republic was in due form decreed, at the commencement of the year 1793, whilst the scaffold was preparing for Louis XVI. But, even in the first moments of enthusiastic ex¬ citement, few of the Belgians wished for a junction w ith France; the spirit of nationality was still uppermost, ex¬ cept with those who were mercenary or fanatical. A number of individuals had formed themselves into what they called patriotic associations, in the several towns of Nether¬ lands. 124 NETHERLANDS. Nether- Belgium, and, being drilled into obedience by commis- Napoleon and the Archduke Charles of Austria, and con- lands, saries despatched from the French convention, sent their firmed by the treaty of Campo Formio, signed October 1797. laijB' ^ v ' emissaries to France to misrepresent the national feeling. From the occupation of Belgium, its history as a nation''"“''jr’ There were however in Belgium many men of cool judg- becomes a blank for nearly twenty years. It formed a part ment, respectable character, and large property, who saw of France, and shared the triumphs and defeats of that both injury and danger from the proposed annexation ; and country under the republic, the consulate, and the empire, they sent counter-deputations to explain the difficulties The ancient institutions, in the defence of which the people attending the proposal. Each of the deputies who asked had revolted against their former governments, were com- for the conjunction was honoured with the accolade by the pletely swept away; their religion was also stripped of its president of the convention, whilst each petition on the power, its decorations, and its ministers reduced to almost other side was received with indifference, and its reason- apostolical poverty. Iheir monastic and charitable insti- ing unheeded. The peaceable remonstrances were put down tutions were either abolished, or, by the confiscation of their by the clamour of the adherents of the French Jacobins, valuable property, reduced to the most depressed state. Dumouriez himself even wrote to the convention, that the The laws, and the courts of justice, which were endear- wishes expressed in Belgium for the junction with France ed to them by usage, were made to give place to a new sys- “ were forced from the people by strokes of the sabre.” In tem, administered by incompetent magistrates. They be- spite of the efforts to oppose them, however, the decrees came subject to a system of taxation, which, though equal for a union were issued, and preparations made for their in its distribution, was heavier than Austria had ever re- practical adoption. But they were for a time frustrated quired either in peace or in war. But the worst of the re- by the events of the war. The strong city of Maestricht quisitions was that for personal service in the armies of the still held out against the French. It was besieged with- conqueror, and which was so extended in its demands by out success, owing to the want of military skill on the part the conscription law, as to be deeply felt in every domes- of Miranda, a Spanish American, who had been transform- tic circle. Such were the evils which, if the Belgians ed into a general. This, with the circumstances arising durst not openly complain of them, they never ceased to from Dumouriez quarrelling with the convention, his una- lament; but it must be observed, that the property of in- vailing attempt to turn the army against them, and his ulti- dividuals w’as protected by the government; that agricul- mate flight, had greatly demoralized and disorganized the ture could be pursued, and any improvements the cultiva- French army ; and it was in this state when the campaign tors chose to adopt introduced; and that, both in France opened in March 1794. The Austrians had collected on and in Holland, they had good markets for their produce, the frontier towards Germany a large force under the Prince From political circumstances, the manufacturers were pro¬ of Saxe-Cobourg, which entered Belgium, and gained the tected against the rivalry of English woollen, and especially battle of Neerwinden, with many other less considerable cotton goods, which, as far as the fabrication of them ex¬ contests, owing to which the French were compelled to tended, became a beneficial employment of capital. The abandon all their conquests with a rapidity quite equal to mines of iron and of coal, chiefly in the province of Hain- that with which they had accomplished them. ault, w’ere beneficially worked ; and the hardware of Liege The Belgian provinces were thus once more restored to and its vicinity afforded occupation to a hardy race, and the house of Austria, and the emperor nominated his bro- such wages as enabled them to subsist in a state of mode- ther, the Archduke Charles, as his viceroy. His occupa- rate comfort. > tion of that post, however, was but of short duration. The At the commencement of Napoleon s government, he frontier provinces of Belgium became the seat of bloody had arranged and established an excellent system of local contests, in which were opposed to France armies compos- administration in the whole of his vast dominions ; but it ed of Austrians, Germans, English, and Dutch. Without was a system, like that of all arbitrary monarchs, which here entering into details, we may remark, that the ques- required the vigilant superintendence of the hand that had tion respecting the occupation of Belgium was determin- framed it. In the latter part of his reign the whole of his ed by the battle of Fleurus, fought on the 25th of May mind was absorbed in the single point of gaining that um- 1794. After that important victory, the French became versal dominion which had become his grand object. Ovv- masters of Belgium; and the representatives of the city ing to the absence of his vigilant attention, the system had of Brussels once more repaired to the national convention not been so strictly adhered to as it should have been; of France to solicit the incorporation of the two countries, and throughout the whole of France, but especially in This, however, was not finally pronounced till the 1st of Belgium, the local administration had become confused October 1795, by which time the rapacity of the French in its action, and of little benefit to the community, commissioners, and the violent measures enforced, had The roads, bridges, canals, and public edifices, except o-iven a tolerable sample of what might be expected from as they were connected with military purposes, had been an arbitrary government concealing its despotic tendencies neglected, and were gone to decay for want of early under the cloak of liberty. The discussion in the French reparation. Ihe greatest evil that arose from this negli- convention on the subject of the annexation of Belgium gent administration was felt in what r’elates to the educa- had occupied two days: and there were not wanting a few tion of the people. In Belgium, as well as in the majon- members who resolutely opposed the union, and spoke ty of the departments of France, amongst the inferior clas- boldly ao-ainst the injustice of the measure, founding on ses of society, the youth grew to maturity in a degree of the repugnance of the Belgians, as well as the dissimila- ignorance approaching to brutality. There existed every- ritv in pmnt of religion, manners,, and morals between the where something that resembled public schools; but they two countries. Reasoning, however, was of little avail were in a most deplorable state, dirty, dark, and without when opposed to the ambitious spirit which actuated the order; whilst the teaching was limited to tracing a few maiority of the convention, who already looked to the pe- words or letters, and to reading or reciting a few passages riod when, by the extension of their limits,the Rhine should without understanding the sense of them. Useful books form the eastern boundary of the republic. A new system were not provided, and the children were frequently ob- for a division of the Austrian Netherlands and of the bishop- served, from the want of better means, handing from one ric of Liege into nine departments was adopted, and they to the other an old almanac, a torn book of prayers, or were declared integral parts of the French republic. This the detached pages of some old newspaper. Ihe con new state of affairs was at length consolidated by the pre- tion of the instructors Avas commonly wretched, and t ie lirninaries of peace signed at Leoben, in Styria, between discipline practised was either harsh or indolent, or bot . NETHERLANDS. her- In Holland, a most valuable system of local administra- ds- tion had prevailed, which from ancient times had been ~ ^ found highly beneficial. When that country was added to France, the system had not yet given way to the gene¬ ral plan of the empire, and the roads, canals, and dikes, as well as the schools, had been left to the same direction and superintendence as formerly. Under the reign of Louis Bonaparte, they had been cherished and somewhat im¬ proved; and the consolidation of Holland with France had hitherto produced none of the evils which affected Belgium. To this circumstance may in some measure be attributed that difference of character between the two people, which will be found displayed in the subsequent events that come under our notice in the progress of this history. Except in one important respect, the country now called Belgium, when forming only a few departments of France, may be viewed as rather in a flourishing state. The de¬ mand for personal service, however, pressed heavily on it, as well as on all the other portions of that great empire, in¬ asmuch as it robbed the land of the labourers who were required for its cultivation, and left a large portion of the work to be performed by the females, or by the males who had not reached maturity, or had passed the age when the human frame is capable of severe labour. The evil of the conscription was, however, counterba¬ lanced by the freedom from actual warfare. The scenes of contest had been removed far from its boundaries, and, during the whole period of the union with France, its fields had been untrodden by armies. Two attempts had been made by England to invade Belgium. The first was the landing of a few troops intended to destroy the means of water communication. They disembarked at Ostend, and, after damaging some of the sluices, were under the neces¬ sity of yielding to a superior force. A grand attempt was made in the year 1809 to take Antwerp, and to create a diversion in favour of the allied powers, by operating from Belgium on the communications of Bonaparte’s army, then advancing towards the east of Europe. This, however, though the largest naval and military force that had ever been despatched from English ports, proved a total failure; and it never reached Belgium, its advance having-been re¬ tarded, and the design at length frustrated, by the siege of Flushing, and a most dreadful mortality amongst the troops on the island of Walcheren. The internal tranquillity of Belgium, whilst vast armies were collected in other parts of Europe, had considerable influence on the great pecuniary interests of that country. Its chief productions are those of the soil and of the first necessity. The consumption of the vast armies had raised the prices in every part of Europe, and none reaped greater benefit from the advance than those who cultivated the fertile fields of Belgium. The reverses experienced by the French armies during the invasion of Russia were followed by others of a similar kind in Germany, till the issue of the great battle under the walls of Leipzig, in October 1813, excited a general hope throughout Europe of being delivered from the mili- tary tyranny that had long oppressed it. This hope gave animation to the minds of the men of Germany, more espe¬ cially at first, and was from them rapidly communicated to other countries. Its effect was powerful in Holland ; but, if felt, it was scarcely perceptible in Belgium. The differ¬ ence in feeling between the two divisions of the Nether¬ lands may in part be accounted for from the longer dura- tmn of the union of Belgium with France, which had now reached its twentieth year; whereas Holland had been in¬ corporated with that empire but little more than three years when the battle at Leipzig decided the fate of Eu¬ rope. Belgium, under the character of a portion of France, had enjoyed a degree of prosperity in its agricultural in- 125 dustry; whilst Holland, mainly depending on foreign and Nether- colonial commerce, had been brought, not to the verge, but lands, into the very gulf, of ruin. The feeling of nationality had been weakened during twenty years in Belgium, whilst it had been strengthened in Holland by three years of suf¬ fering. The mode of action in the two countries at the crisis produced by the victory of Leipzig merits notice here, because upon the contrast between them depended the character of that series of transactions which subse¬ quently occurred. The intelligence of the defeat of the French had no sooner reached Holland, than a spirit began to show it¬ self which alarmed General Molitor, who commanded the forces of Napoleon in that country. His head-quarters were in Amsterdam; and fearing an insurrection in that populous city, he resolved not to be surprised in the nar¬ row streets, but, contrary to the opinion of Le Brun, duke of Plaisance, and of Count Celles the prefect, withdrew with his troops to the more defensible city of Utrecht. The whole of the French troops in Holland did not exceed 10,000 men, and a part of these were in garrison in the fortified places. The intolerant tyranny of the French government had made the whole population ripe and eager for revolt. This disposition was taken advantage of by a few able, influential, and patriotic men, the most prominent of whom were Count Gysbert Charles von Hogendorp, emi¬ nent as a diplomatist and statesman, and Count Van der Duyn de Maasdam, a man of enterprising genius and judg¬ ment On the 21st of November 1813, they made the first movement at the Hague, unsupported by any armed force, excepting a few of the old city guard, and a number of gentlemen with fowling-pieces, and solemnly proclaimed that the people of Holland had returned to their ancient state of independence and freedom. Amsterdam, at all former periods the most powerful city, and the focal point of the ancient union, was the first to renounce its prepon¬ derating superiority in the government, and, immediately after the movement of the Hague, proclaimed the Prince of Orange as the sovereign of the country. The decision of Amsterdam was communicated from city to city, and re¬ ceived an universal concurrence, plainly showing the spon¬ taneous wish of the whole Dutch nation. A provisional directory was immediately formed, consist¬ ing of six persons, who sent Messrs Fagel and Perponcher as envoys to England, to recall the Prince of Orange to his native country, from which he had been long banished by the foreign domination that had ruled it. The allied armies on the frontiers were made acquainted with the events which had transpired; and when some of their forces arrived, they found the insurrection had been so successful that no¬ thing was needed but a short space of time to consolidate the power gained by the arrival of the prince. During the events of the few days, the force under Molitor at Utrecht was kept inactive by the movements of General Bulow and his division of the Prussian army, which had arrived at Munster, and was advancing towards Arnhem. The Prince of Orange landed on the 30th of November, at Schevelling. and his arrival in his native country com¬ pleted the great work of its enfranchisement, and the es¬ tablishment of its political and civil freedom. The invita¬ tion had been spontaneous, and the government had been offered to him with no restrictions or conditions ; but he gave instant proof that he had no desire for arbitrary power, by issuing a proclamation, in which are the follow¬ ing words: “ Je me rends a vos vceux ; mais je 1’accepte uniquement a condition qu’elle soit suivie d’une constitu¬ tion qui garrantisse vos libertes, et les mette en surete centre toute atteinte.” On the 6th of December the prince assumed the sole executive authority, and brought to that task all the ac¬ tive industry, penetration, and regularity by which his 126 NETHERLANDS. Nether- whole reign has been distinguished. The fortresses were lands, mostly held by the soldiers of Napoleon. Many bodies of the allied armies were on the frontiers, but none felt more acutely than William that no country can be independ¬ ent in the presence of foreign armies, whether consisting of friends or foes. He wished that the same hands which had conquered the national freedom should defend and maintain the precious blessing; and that thus the allied powers might be enabled to unite their forces, and march on towards France, wdiere the decisive battle of liberty was to be fought. The first object, therefore, was the for¬ mation of an organized army; but this was attended with immense difficulties. The country was completely desti¬ tute of arms, ammunition, and every thing necessary roi the equipment of an army, so that it was impossible to clothe the new levies ; and the severity of that remarkab e season prevented the removal of stores from one part to another, and the arrival of the various necessary articles which were provided and despatched from England. Not¬ withstanding these difficulties, an army of 25,000 was en¬ rolled, armed, and equipped in the space of little more than three months, out of a population of 1,800,000 souls, in a country which had been previously drained of active men by the conscription, and some parts of which were still held by the enemy. In the month of March the prince was enabled to announce to the public that a force to that ex¬ tent was ready, and would soon be united on the frontier under the command of his eldest son, who had distinguish¬ ed himself whilst serving in Spain under the Duke of Wel¬ lington. The formation of a constitution proceeded simultaneous¬ ly with the creation of an army. Ihe first sketch of the constitution had been framed by Count Hogendorp. It w'as submitted to the consideration of fifteen persons of the most approved integrity and most enlightened judgment; and after their revision it was transmitted to the prince, who accepted it as the fundamental law of the state, as. being in harmony with the manners and the habits of the nation, and conformable to the wants and the spirit of the age The scheme, thus far approved, was then printed and distributed over the whole country, previous to the assem¬ bling of a meeting of Notables, who were to be selected for that purpose from all the provinces and towns, including persons of all religious persuasions, whether Jews or Chris¬ tians. Twelve hundred names were selected, of the most proper persons, being householders of various descriptions, but not including those in the service of others, those whp had, within the last six months, been relieved by the pub¬ lic charitable institutions, or those who were insolvent, in prisons, or under the surveillance of the police. The lists were ordered to be exposed during eight days, in each small district in which a justice of peace was established, that each householder might affix his approval or disappro¬ val of the individuals named in them. One half the num¬ ber, as determined by these votings, were to be excluded, and the remaining 600 were appointed to meet on the 24th of March. After a few hours spent in deliberation, the acceptance of the fundamental .law was decided by a majority of 458 votes against twenty-five. There were 117 absent, many of them kept away by unavoidable circum¬ stances, some by a feeling that they were not sufficiently authorized to give a decision on so important a subject, some from judging that the power of making peace and war was held by the prince alone, and a few from religious scruples. The more rigid Calvinists thought the Protes¬ tant religion would suffer by admitting persons of all per¬ suasions to public offices, anti some Catholics complained that there was not a sufficient provision made for the main¬ tenance of their clergy and their institutions. If the whole of the absent members had voted, as their opinions were well known, it was calculated that the measure submitted Nethe? to them would have been accepted by five sixths of the^hnds. number. Mr Chad, secretary of legation from the court of St James’s, who was then officially in Holland, says, “ Per¬ sons accustomed to the spectacle of the impetuosity and ardour of political discussions in England, would perhaps have been surprised at the calm moderation with which this transaction was accomplished in Holland.” But he adds, that from all the information he could in any way acquire, he never could learn that the government of the prince made the least attempt to control, or even to in¬ fluence, the public opinion. In consequence of thus organizing a form of govern¬ ment, the prince assumed the title of king, and his eldest son that of Prince of Orange. The state which had thus secured its own independence was immediately acknow¬ ledged as such by all the governments of Europe; not by the formality of any treaty, which would have weakened rather than strengthened the right, but as an assumed fact, evidenced by the mission of ministers to the court of king William from the sovereigns of the great powers of the ci¬ vilised world. We turn now to the conduct pursued by the Belgians in this crisis, not with the view of inculpating the people of that country by the contrast, but in order to place be¬ fore the reader a simple narrative of the occurrences. No effort was made, nor the slightest indication displayed, which could give encouragement to the cause of the allied powers against the common enemies of Europe. It is pro¬ bable that the Belgians saw, with great though silent sa¬ tisfaction, the progress of the allied armies. But the Bel¬ gian provinces were not, like those of Holland, situated at the extremity of Napoleon’s empire, and thus out of the reach of that immediate chastisement which a premature revolt would surely have brought down on them. It would have been difficult to create a central point round which to rally the scattered elements of insurrection ; nor had the Belgians a family or chief upon whom to fix the ge¬ neral hopes of the country, or fitted to secure the confi¬ dence of foreign powers. But, worse than all, they had no legitimate and acknowledged nationality that could inspire them. Their past recollection could only present to their minds the prospect of a subservient junction with some other country, such as had always been their fate ; and as they had no expectation of being left to their own choice in that junction, there was little to inspire them with the ardour of patriotism. No hostilities took place in Belgium, except an attack by bombardment on Antwerp by a united force of Eng¬ lish and Prussians, which was productive of no conse¬ quences, as the army of the latter was ordered to advance into the territory of France itself. The French troops abandoned Belgium as the allies ad¬ vanced, and in January 1814 the Duke of Saxe-\\ eimar, one of the allied generals, entered Brussels without any opposition. But his troops had merely a military occupa¬ tion of the country ; and the emperor of Austria, then ad¬ vancing towards Paris, despatched from Dijon Baron Vin¬ cent, who had been commissioned pro tempore to act as governor of Belgium. From the events in Holland and Belgium our attention must now be turned to Paris, where the allies, after driving away Napoleon and seating Louis XVIII. on the throne, had convened the ministers of the several powers, to re¬ store tranquillity and order in those parts of Europe which had been disorganized by the victories of the French em- pire. This august assembly, in the midst of the congratula¬ tions which the extraordinary scenes that had thus col¬ lected them produced, did not forget the perils they had NETHERLANDS. ier. 1 Is. • escaped, nor the danger which might still arise behind the glory of their triumphs. Bonaparte was indeed dethroned, ''and a Bourbon seated on his throne; but the spirit of fo¬ reign conquest and universal dominion was not extinct in France, with its millions of men still animated by the de¬ sire of domination, and smarting under the severe morti¬ fications which their vanity had recently suffered. The throne that had been restored was still in a tottering state, all the institutions which formerly supported it having been swept away; and, besides, the remains of the defeated armies would soon be joined by thousands of men who, having been made prisoners, would return filled with angry passions, and fully prepared to aid in any combinations which might have for their object the plunder of foreign countries, the subjugation of foreign potentates, and the superiority of the military over the civil authority through¬ out France itself, as well as over all Europe. Aware of the dangers lurking behind their success, the allies directed their attention to such measures of security as seemed most advisable, in case a re-action in France should again throw the power of that kingdom into the hands, first, of the populace, and then, as a necessary step, into that of some military leader. Belgium had, by the right of conquest, fallen into the power of the allied sovereigns. From its position it had been the battle-field of Europe in former periods ; and the possession of that country by France would be of vast im¬ portance as an advanced post, from which she might easily proceed to other conquests. The house of Austria, having always found the Belgian provinces a source of trouble and annoyance, was ready to abandon its claims; trusting there¬ by to secure some advantages nearer the centre of its power. The Netherlands, if united under one power', might be suf¬ ficiently strengthened to become a strong barrier against France, and the means of securing the continuance of that general peace which was then so much desired, and in¬ deed wanted. Belgium, and the other territories near it, the bishopric of Liege, and the duchy of Luxembourg, were considered merely as European objects, which were so to be disposed of as would best suit the purposes of the combined powers, particularly that of securing the tran¬ quillity of the great community of nations. It was not, then, from any peculiar favour to Holland, or from any per¬ sonal regard to King William, though his minister formed one of the assembly, that, in less than two months after the seizure of Paris, it was adopted as a principle by the representatives of all Europe, and promulgated to the world, “ that Holland, placed under the sovereignty of the house of Orange, should receive an increase of territory.” This declaration was made on the 30th of May, and at the time received with general approbation, although at a sub¬ sequent period it was one of the principal grievances set forth by the Belgians in their declaration of independence. I he principle thus announced received its final sanction by a treaty dated the 21st of July, in virtue of which Ba¬ ron Vincent was to deliver over to King William the pro¬ visional power he exercised in Belgium, upon the follow¬ ing conditions, viz. 1. That the two countries should form one state, governed by the constitution already established in Holland, to be modified by common consent: 2. That there should be no alteration in that part which assured to all religious sects an equal admissibility to public offices : 3. That the states should assemble in alternate years in a city of Holland and in one of Belgium : 4. That all the in¬ habitants of both parts should be alike in all commercial matters, without any restriction being imposed on one for the benefit of the other : 5. That the provinces and cities of Belgium should be admitted to the full enjoyment of commerce with the colonies: 6. That all expenses should be in common, and the debts of the two parts should be as¬ sumed by the treasury of the kingdom : 7. That the ex- 127 pense of maintaining and strengthening the fortresses should be defrayed from the common treasury : and, 8. lhat the cost of supporting the dikes should be furnished by the districts more immediately interested in them ; but in case of any great disaster, succours were to be supplied by the general government, in the same manner as had ormeily been practised in Holland. The king of England, by a separate treaty, on the 13th of August, agreed to give up to the newly-created king of the Netherlands all the conquests made from the Dutch during the war, with the exception of the Cape of Good Hope, and the settlements of Demerara, Essequibo, and Berbice, on the continent of South America. By the treaty of the 21st of July, the government of the Netherlands accepted, on the conditions therein stated, that sovereignty over the Belgian provinces which the allied powei s had offered, not from any peculiar feeling of regard to the interests of King William or of Holland, but as a European benefit, “ de pourvoir a 1 etablissement d’un etat d equilibre en Europe, et en vertu de leur droit de con- quete sur la Belgique. ’ The duchy of Luxembourg was not a portion of Belgium, but a part of Germany ; and that division was given up to the king of the Low Countries, by the German confederation, of which he was a member, not in his regal capacity, but in consequence of his trans¬ ferring to Prussia the sovereignties, hereditary in his fa- mily, of Nassau-Dittenburg, Siegen, Hademar, and Dietz. After the union of the two countries had been settled by tieaty, and the whole delivered up to the government of William, it was thought necessary to submit, not the union itself, but the fundamental law or constitution, to the acceptance of the people. That constitution had al¬ ready been accepted by an almost unanimous vote in the northern division, but it was deemed necessary to sub¬ mit it also to the southern division. An assembly of Notables was accordingly convened in Belgium, on the same plan as had before been pursued in Holland. The number of the members of this assembly was 1600, but not more than 1325 attended. Upon the vote being taken, there appeared to be 529 in favour of accepting the consti¬ tution, and 796 against it; and thus, as far as that assem¬ bly was concerned, the acceptance of the proposed consti- tution was negatived. The government, however, took a difierent view of the subject, founded upon the assumption, that the union being adopted must be considered as a fact not to be questioned; and that this was a question for the united kingdom, which must be determined by a majority of the whole. For this purpose, the statistical view given of the kingdom was thus represented. Ihe inhabitants of the northern division, or what was be¬ fore Holland, were 2 071 18L Ihose of the south part, or Belgium 3*411,082 In all. 5,482,263 The votes in favour of the acceptance were stated to be the whole of the northern part 2,071,181 Two fifths of the southern part, who voted by their 529 delegates 1,364,432 The majority of the Belgian representatives, who voted for three fifths of that part, amount¬ ed to. 3,435,613 .2,046,650 Thus giving in favour of the constitution, or ) , 000 n_0 fundamental law, a majority of. j 1,388,963 . We lia/e g‘ven an account of this proceeding, because it was subsequently made one of the grievances complain¬ ed of. Ihe assembly had been chosen fairly, and conse¬ quently under clerical influence, which was decidedly op- Nether- lands. 128 NETHERLANDS. Nether¬ lands. posed to the toleration of any other party than the Ca¬ tholic religion. This was proved by a kind of protest, ' issued under the title of “ Jugement Doctrinal des Eveques du Royaume des Pays-Bas, sur le serment prescrit par la Nouvelle Constitution.” In an authoritative style it con¬ demns the liberty given to appoint persons of any religious creed to offices of power and trust; and it reprobates the enactment that the Catholic church was to be submissive to the law of the state, that the other religious sects were to be protected in their worship, that the government wras to have the power to regulate all the seminaries of the kingdom, and that the liberty of the press was recog¬ nised. It concluded with these words : “ Mais des qu’une loi humaine est intrinsequement mauvaise, et opposee a la loi divine et aux lois de 1’eglise, on ne peut, sous aucun pretexte, s’engager d’y obeir.” This declaration was signed by all the prelates, viz. the Archbishop of Malines, and the Bishops of Ghent and of Tournay, and the vicar-ge¬ neral of the chapter of Liege. It is natural to suppose that such a declaration must have had great influence with people so ignorant and superstitious as the lower classes of the Belgian population are universally allowed to be, and averse as they had ever been to a connec¬ tion with the Dutch, who were represented to them as a combination of heretics. The nobles are also said to have been more attached to the ancient Austrian government; but the middle classes were supposed to have more sym¬ pathy with the French than with the German nation, and to be peculiarly jealous of the Dutch. Whatever may have been the common sentiment, of which it is always difficult to judge, not the least appear¬ ance of discontent was displayed at the promulgation of the constitution, or the public entry made by the king and his family into Brussels. His first efforts there, as they had been in Holland, were directed to the means of de¬ fence ; and all due exertions were employed for the pur¬ pose of raising an effective and numerous army. In this much progress had been made when the intelligence ar¬ rived that Bonaparte had escaped from Elba, advanced in a sort of triumphal procession through France, and again assumed the imperial title, and all the power connected with it. . . The alarm and terror created by this event had the effect of, in a great measure, disarming the power of the ecclesiastical fulminations, and uniting all classes with the new government in preparing for the contest which was evidently about to take place on the frontiers of the king¬ dom. The time spent by Bonaparte in Paris in organiz¬ ing his recovered army, and in conciliating the several parties in his capital, was most actively employed by the king in strengthening his means of defence ; and a great advance had been made in his military affairs, when it be¬ came evident that the first inroad of the French would be on the side of Belgium. An army composed of Dutchmen and Belgians, but chiefly officered by the former, was collected and led to¬ wards the frontiers by the Prince of Orange. When the French entered Belgium, these troops formed the advance of the allied army. It encountered the French at Quatre- Bras, and, aided by the British, resisted during the whole day (the 16th of June) the attacks of the left division of the French army, commanded by Marshal Ney. The loss of lives on both sides was great; but that action had a powerful influence on the issue of the battle of the 18th, as it gave time to bring up the whole of the allied forces, and place them on the field of Waterloo, where the deci¬ sive conflict took place which decided the fate of the French empire, and gave a long peace to Europe. During the whole of that day the troops of the Netherlands sustained the character for courage which past centuries had estab ing terror, and some solitary examples of disaffection, aris- Nether.; ing from past associations with the French; but the great knds. principle of public duty pervuded the Netherlands army, m v**1 as was proved by the loss which they sustained in the bat¬ tle. The victory was cemented by the blood of the Prince of Orange, who stood at the head of his troops through¬ out the whole of that arduous day, encouraging them by his cool and determined conduct. On one occasion he made a desperate charge on the enemy, and advanced so far that he was actually in the midst of the French, and in the greatest danger, when a Belgian battalion rushed forward, repulsed the enemy, and, after a desperate strug¬ gle, disengaged the prince. From the impulse of his gra¬ titude, and his admiration of the bravery displayed, he tore from his breast one of the decorations gained by his conduct in some^preceding action, and flung it amongst the battalion, calling out, “ Take it, my lads ; you have all earned it.” This decoration was eagerly grappled for, and tied to the regimental standard amidst loud shouts of “ Long live the Prince,” and vows to defend the trophy, in the utterance of which many a brave man received the stroke of death. A short time afterwards, towards the close of the battle, the prince was hit by a musket-ball on the left shoulder. He was carried from the field, and conveyed to Brussels the same evening in a cart, accompanied by two of his aides-de-camp, one of whom, like himselt, was badly wounded; displaying to those near him as much in¬ difference to pain as he had previously shown contempt of danger. The battle of Waterloo appeared at the moment to have consolidated the establishment of the kingdom of the Ne¬ therlands. It seemed to have attached the militaiy part of the Belgians to the prince who had been wounded at their head, and who had led them to that victory which they so mainly ascribed to their own exertions, as almost to tbrget that the troops of any other nation had contri¬ buted to it. Advantage was taken ot this feeling to com¬ mence the working ot the new constitution, which had been accepted, as before noticed, by a majority of the whole kingdom, though rejected by a majority of the Bel¬ gian portion. The solemn inauguration was held a few weeks after the battle, and much interest was excited by the appearance of the Prince of Orange, on the occasion, still wearing his wounded arm in a scarf, and w ith the palid countenance of an invalid. The constitution was then declared to have been ac¬ cepted by the people, and no allusion was made to the ir¬ regularity of the decision, as the objections once urged had arisen from repugnance to religious toleration ; those who had urged them being sensible that any allusions to the subject would have been unavailing amidst the pre¬ vailing military enthusiasm. None was made, but such were certainly nourished, to be brought forward at some moment more favourable for making the desired impres- No murmurs were heard, and Belgium became, or sion appeared to have become, reconciled to the arrangement which had been made by the allied powers. The speedy concentration ot the two divisions was a spectacle viewed with astonishment, whilst a thousand channels were opened for the egress of national industry, capital, and enterprise. Every obstacle seemed to have vanished, asperities were softened down or concealed, fac¬ tion seemed dead or paralysed, and a quiet enjoyment of the present formed the only public manifestation. The people of Belgium appropriated to themselves the glormus victory of which their country had been the theatre. The king, by his love of peace, and by his activity in whatever could improve the institutions and the condition ot the country, at first gained a high opinion amongst those Bel¬ gians who were able to endure the religious toleration he lished. Th^rewe^probabTya^wlnstmlcesrfoverpower- latablished, and amongst others his persona! virtues, his NETHERLANDS. ier- domestic habits, and his unwearied industry, as favourable 's' a view was taken of his character as could be formed of one who had the misfortune to be a heretic. This last party was soothed, if not reconciled, by the exertions which he made to recover and restore to their churches those pictures and other objects of value which had been pillaged by the French and carried to Paris. The naval transaction of the following year, when a squadron of Netherlands ships joined the fleet under Lord Exmouth in the attack on Algiers, was another circum¬ stance favourable to the consolidation of the new kingdom ; for although the battle was gallantly fought by Dutchmen, yet the Belgians took care, in the exercise of their vanity, not to allude to the Hollanders; and as they had forgotten the English at Waterloo, so they now gladly assumed to themselves the glory of the united victory. The pros¬ perity of Belgium made it the chosen residence of many respectable foreigners, as well as the place of refuge of others of the most opposite descriptions. The king busied himself less in projects to secure popularity, than in efforts to benefit the country ; and it may here be proper to no¬ tice the institutions which were either established or ame¬ liorated, and the beneficial consequences they produced. Under the rule of France, Belgium, like the other parts of the Continent, had suffered severely from the operation of the conscription laws, which had deprived the country of those active labourers who were necessary to cultivate the fields. Although peace could not restore the great num¬ bers who had perished, yet it stopped the farther progress of the evil in the Netherlands, by the establishment of a voluntary enrolment for a small regular army, and of a militia, whose service was required only for one month in the year. The mines felt the benefit of this regulation. The minerals of Belgium consist of coal, iron, and calamine. As soon as the union had been formed, and labourers became less scarce, a great impetus was communicated to this branch of industry ; and companies were formed, who were most liberally repaid by the profit of their investments in this branch of industry, which was augmented from year to year as long as Belgium and Holland constituted one king¬ dom. By the excitement communicated to mining, the pro¬ vinces of Liege and Hainault, and a part of Namur, were greatly enriched; and a company formed to explore the mines of Luxembourg were amply rewarded in their la¬ bours and their profits, till interrupted by internal commo¬ tions. The various branches of manufacturing industry re¬ ceived a similar impulse, though at first they were checked by the peace. The continental system of Bonaparte had given a factitious encouragement to some articles of ma¬ nufacture, which ceased with the return of peace; and, till the formation of the kingdom of the Netherlands, many branches were depressed by the rivalry of foreign goods in the markets to which they had access. But as soon as the junction was completed, a stimulus was given to the manufacturers, by opening to their goods the markets of the East and West Indies, and those of all countries with which the Hollanders had traded. The iron manufactures of Liege advanced rapidly in prosperity; the woollen ma¬ nufactures of Verviers felt most powerfully a similar im¬ pulsion ; and many large establishments were formed at Ghent and other places, where cotton goods were fabricated w rivalled those of England, and so far surpassed those of t rance, that much of the goods were sold by the contra¬ band trade in that kingdom. The opening of the Scheldt was the necessary effect of the formation of the united king¬ dom. Merchants from various countries formed establish¬ ments with large capitals at Antwerp; its docks became crowded with ships from all countries ; its warehouses were oaded with colonial and other produce ; and it advanced rapidly to a rivalry with Amsterdam, Rotterdam, and Ham¬ burg, in the transit trade to the interior of Germany. The VOL. xvi. J 129 king directed his best efforts to the state of the roads, the greater part of which had suffered dilapidation, whilst the cross roads, so important in a country chiefly agricultural, were in many places scarcely passable. The management of the former was under the general government, whilst that of the latter was superintended by the local authori¬ ties ; but in the first few years of the union the whole were repaired and placed in the most excellent state. The in¬ terests of internal navigation were sedulously watched over by the king. The old canals were repaired, the shallow parts of the rivers were deepened, and new and important water communications were formed. The chief of these, the Canal Guillaume, which extends from Maestricht to Bois-le-Duc, was an expensive but highly beneficial work ; whilst that of Antoing in Hainault, that of Charleroy in the province of Namur, and that of Ternuse in Flanders, have been found in a very high degree beneficial. Though no longer of any importance to Belgium, it may not be quite out of place to remark, that the spirit of improvement which spread throughout the whole kingdom was to be seen in Holland in the Grand Canal of North Holland, which opens to Amsterdam a way for ships of the largest size to the ocean by way of the Helder, without incurring the risks arising from the shoals of the Zuyder Zee. Some other plans of this kind had been decided on, when the disturbances broke out which ended in this disjunction of Belgium from Holland. One of these was to make the river Sambre navigable; the other was to form a canal from the Meuse to the Moselle, by means of which the prospe¬ rity of the duchy of Luxembourg would have been greatly advanced. The state of education, from the schools for primary instruction up to the universities, was in a wretched state when the king ascended the throne. In Holland it had ever been an object of the greatest consideration; and it had received from Louis Bonaparte, during his short reign, a degree of perfection which fitted it for reception in Bel¬ gium. Normal schools for the instruction of teachers were early founded; and as soon as any were found qualified, they were fixed with moderate stipends in the rural districts where they could be most beneficially placed. To such an extent was this plan of organizing primary schools car¬ ried during the first ten years of the reign of William, that their number in 1826 was 3329, in which the pupils were taught reading, writing, arithmetic, and the system of weights and measures. The numbers of pupils in the several schools of Belgium were 156,075 boys and 116,761 girls; in Luxembourg the numbers were 19,925 boys and 14,819 girls. The schools for higher instruction were improved, and the number of students in them yearly increased. In ten years they had risen from 3400 to 7048. These were in general the institutions in which the youth were prepared for the universities. The king founded a new university at Liege, in addition to the two previously existing at Lou¬ vain and at Ghent. Great care was taken to procure the most able men in every branch of science ; and as the coun¬ try was rather deficient in such as possessed eminent qua¬ lifications, it was found necessary to repair to foreign lands for help. Several were invited from Germany, and others from F'rance and Italy. No one establishment for educa¬ tion in Europe could boast of more distinguished names than those of the individuals who filled some of the profes¬ sors’ chairs, both in Liege and Ghent. Whilst in the united kingdom the surface appeared smooth, and the vessel of the state seemed to be making a rapid progress, an under-current was perceived to be mak¬ ing its way in a direction not favourable to permanent tran¬ quillity. At first William gained the highest applause from his Belgian subjects. The whole kingdom exhibited a show of bustling activity, if not of prosperity. Amongst the re- Nether¬ lands. 130 NETHERLANDS. Nether¬ lands. fusees from other countries, the king and people were spoken of as models of public and domestic happiness; the ' diplomatists joined in the flattery, and prided themselves on the skill with which they had accomplished the tran¬ quillity of Europe, by founding the kingdom of the Ne¬ therlands ; and all united in the assertion that the king was much too good for his Belgian subjects. . For several years this favourable or flattering state ot at- fairs continued, though thoughtful people soon discerned, from events unnoticed by superficial observers, the prog¬ nostics of future disunion. At the earliest meeting ot the representative house, the different languages spoken by the members caused some difficulties ; a Belgian in t le iscus sions speaking in French, and a Hollander replying in Dutch. Too many of the questions brought forward might be of a local nature ; and in these, as the whole of the H landers voted on one side, and the whole of the Belgians on the other, the decision was often dependent on the ac¬ cidental absence of an individual on the one side 01 the other. The equality of numbers between the Dutch and Belgians made it difficult to come to a settlement on such subjects as affected the interests of the two countries in a different or opposite way. This was first exhibited on t subject of a free trade in corn. The Dutch provinces had never produced sufficient corn for their consumption, but a free trade in it had always furnished them with a suf¬ ficient supply. The Belgian provinces grew more corn than they consumed. As in the other parts of Europe during the last years of the war, the prices of corn had risen to an enormous rate, and the Belgian proprietors of land had in¬ creased their rents in due proportion. With the return of tranquillity the prices of grain and the rents of land were much reduced; and the Belgian members of the assembly desired to impose restrictions on the importation ot grain. This was naturally opposed by the Dutch members, whose interest was engaged in favour of low prices, both as re¬ garded the subsistence of the inhabitants, and the trade of the distilleries. The question was finally decided in fa¬ vour of the freedom of the trade; but the contest gave rise to the formation of two parties, so equally balanced as to make the decision of many legislative questions depen¬ dent on accident. xj ,, j As the royal authority had been established in Holland the greater part of a year before the union with Belgium, it had been organized without reference to that event. Holland had been a shorter period under French power; and during the prevalence of that influence when King Louis filled the throne, its government had been carried on upon the principle of nationality ; the fittest men filled the offices in the different departments, and many of them remained unchanged when Holland became a French department. It was natural that King William should continue such men in their offices, and that in selecting officers for the new branches which were to be created, a preference should be given to natives, of whom there were numbers whose edu¬ cation, habits, and patriotism had well fitted them for the public service. At the union of Belgium and Holland the whole administration was in the hands of French func¬ tionaries, who speedily disappeared. Few men in Belgium had been brought up in such a way as to form them for official duties, and those who had sufficient information and capacity had been nominated to employments in the dis¬ tant provinces of France. Under these circumstances, the greater number of officers was necessarily appointed from the northern division of the kingdom. Another cause of many offices in Belgium being filled by Dutchmen was, that some of those Belgians to whom offers were made declin¬ ed to serve, on account of the influence of the priests, which prevented them from taking the oath to a constitution, one of the first stipulations of which was an equal freedom to all religions. A complaint was brought forward, that in the appoint- ^ eth ment of officers in the army an undue preference had been shown in favour of the natives of Holland ; and as Mr Nlor- thomb, an opponent of the house of Orange, m his work entitled Essai Historique et Politique sur la Revolution Relqe, has placed the numbers in a statistical point of view, this matter is entitled to examination. According to his statement, in 1830 the officers of the army of the king¬ dom of the Netherlands is thus shown . Hank. Whole Num. her of Officers. Generals Lieutenant-generals Major-generals Colonels Lieutenant-colonels, Majors Captains Lieutenants Sub-lieutenants..... 5 21 50 48 48 137 211 808 639 Belgians. Belgians set tied in Holland. 0 2 5 8 9 19 38 115 82 1967 278 0 10 This great disproportion is in some measure lessened, from the circumstance that many of the oflicers were Ger¬ mans, some were Swiss, and some were natives of other countries. With this allowance, the exact number of which is unascertained, the contrast between the whole and the Belgians is very striking. Baron de Keverburg, a parti¬ san of King William, gives a different account, making the whole number of Belgians in the army to be 536 instead of 278. In his work entitled Du Royaume des Pays Bas, he asserts of his catalogue that it is “ d’apres des ren- seignemens puises a des sources authentiques ; but, even on^this showing, the more numerous population supplied but one fourth of the officers. This is accounted for, if not justified, by the baron, on various grounds. When Louis Bonaparte became king of Holland, he se¬ dulously attended to the formation of his army ; and when he abandoned the throne the armed force was so well trained, equipped, and officered, that, on the annexation of Holland to France in 1810, it formed a military body equal to any other of the empire in its adaptation to the purposes of war. When that army was transferred to France, the different grades of officers retained their Dutch rank, and their former course of promotion. But when the people of Holland rose against France, and raised W il¬ liam to the throne, the Dutch resigned their posts in the French service, and repaired to their own country, where they were gladly received, and reinstated in the rank which they had attained during their service in France. It will be seen by the list of Mr Northomb that all the ge¬ nerals were Dutchmen ; but that rank had been acquired in the French service, where, by their military talents, they had gained high reputation, and had been honoured and trusted by the French emperor. The names ot the Dutch officers thus appointed generals by William are well known. Tindal had been raised by Bonaparte to the rank of general, and commanded a regiment of his body guard. Jansens had been distinguished as governor of Batavia, and in the army of the French emperor on the Ardennes frontier. Daendels was one of those Dutchmen who had been always placed in posts of the greatest danger, and had displayed the highest skill and valour. Dumonceau. though a Belgian by birth, had by his long service m the northern provinces become a Dutchman, and was big i y esteemed in the French army. Chasse, an old officer ot NETHERLANDS. her- Holland when he was transferred to the French service, ls- became known by the familiar title of General Bdionnette, ^'"■''and afterwards distinguished himself by his gallant defence of the citadel of Antwerp. When men like these returned to their liberated coun¬ try, and at a moment when their services were wanted, there were no rivals to compete with them in Holland, and they were necessarily placed at the head of their pro¬ fession. Those of the successive ranks who also returned, as almost the whole did, were retained in those ranks in the army, formed first in Holland, and afterwards strength¬ ened by the addition of Belgians. The Belgian officers serving in the French army had not been kept apart, but mixed up with the Frenchmen. They had formed a part of the general conscription; few had raised themselves to the rank of officers ; and of these only three had attained the grade of colonel, no one having risen higher. Being thus insulated, they had nourished little or no national feel¬ ing ; some few tardily returned to their native country after the occupation of Paris; but many of them remained in the service, and fought against their country at Waterloo. The king, in the hasty organization of an army, natu¬ rally availed himself of the materials within his reach, and adapted them to the emergency. When after the battle of Waterloo peace was established, it would have been highly unjust to the brave men who had assisted there not to have confirmed them in their ranks, or to have placed others over them merely because they were born in Bel¬ gium. But for these, and even for such as had fought against their country, and repaired to it after the victory, the provision made was the best that could be effected at the time; and they were subsequently placed in new corps, retaining their former rank and seniority. The utmost economy was practised respecting the army; and from the number of good officers in the highest classes’ and their seniority, there was no prospect of rapid promo¬ tion. Thus the gentry of Belgium had but little induce¬ ment to enter the military service, so that, without at¬ tributing to the king any great partiality, the facts here stated sufficiently account for the greater number of offi¬ cers belonging to one division of the kingdom. The other charge of partiality on the part of the king, which ultimately became one of the grievances, was, that, in the legislative body, the number of deputies was as great from the northern as from the southern division of the kingdom, although the number of inhabitants in the latter was so much greater. The foundation of this settlement o. . e re*ative numbers was based upon the principle of giving legislative power according to the rate of revenue to be extracted from each division, rather than according o t e number of the population. The proportion of re¬ venue raised in Holland was nearly equal to that raised in lielgmm; indeed it w'as shown, at a subsequent pe- rio , to be as fifteen to sixteen. The rate of revenue per head in Holland was sixteen florins, and in Belgium ten florins. Whether the rate of revenue or the number oi inhabitants be the proper scale for regulating the pro- this 'pla ° e§1Slat0rS’ *S n°^ a su^jec*: be discussed in In the distribution of the higher civil offices of the go- wpr;T.ent’ complaints were urged and magnified into statemJnS^f ^ ^ BelSians- °n this subject the de Keverburg> when confirmed by the official part of L Almanack Royal, are as follow: before the ^ COn*ls,teti of s,x members. It was formed wholly of Hnl1°n ? t le tvvo countries, and was composed two of the I ?ders; b,Ut after the junctlon of Belgium, mitted in theiV ^tead^Thrfi ^ £W0 .Be!gia"s, were ad' general simil*,. t tt firSt chamber of the states- fhe kTn- Z hf °Ur °USe °f Peers’ but nominated by the king foi hfe, contained fifty-six members, of whom 131 thirty were Belgians, and twenty-six Hollanders. The Conseil d Etat, or privy council, was composed of twelve Dutch and eleven Belgian members. The Prince of Orange and his brother Prince Frederick presided over the two divisions into which it was formed ; one for the direction of the army, the other for that of the naval force. The Chambre des Comptes, or treasury, consisted of sixteen persons, taken equally from the two divisions of the king¬ dom. The judicial authority of the provinces and com¬ munes was in general intrusted to persons chosen in the division in which they were to execute their duties. There were a few exceptions to this rule, for two Dutchmen ex¬ ercised these functions in Belgium; but two also, natives of Belgium, filled the same offices in Holland. Thus far there was an equality; but in North Brabant the judicial office was filled by a Belgian, which gave a trifling superio¬ rity to the southern division. It may fairly be presumed, that in the appointment of officers in the several civil departments, the king had been mainly influenced by his view of the capacity of the per¬ sons selected to discharge the netessary duties; for at a subsequent period, when the most scrutinizing activity was exercised to discover grounds of complaint, no accu¬ sations were made of any other fault in the appointments than that which related to the portion of the kingdom to which the functionaries belonged. The king himself was active and regular; and being in a great degree his own prime minister, he must have been peculiarly anxious that the persons under him should be adapted to their several stations, and certainly under no government was more in¬ dustry exercised or more regularity preserved. Many of the important institutions of the country had, by the constitution, been left to the will of the king as to their local establishment. The seat of the states-general had been fixed by that law to be alternately in Belgium and in Holland, but not the place for the king’s residence oi the council of state; yet these also, though with some personal and political inconvenience, were made change¬ able, business being transacted six months of each year at Brussels and six months at the Hague. But the supreme court of justice, the court of appeal from all the inferior tribunals of the kingdom, was permanently fixed at the Hague, to the great disadvantage of the more numerous suitors in the southern part of the kingdom. This form¬ ed a material, and apparently a just cause of complaint; and nothing has been stated by the Dutch which has disproved the inconvenience, though attempts have been made to represent the practical injury arising from it as very trifling and insignificant. Several other establish¬ ments were also made permanent in Holland, such as the state archives, the diplomatic offices, the council of the nobles, the coinage of money, the military and naval boards, the academies for the instruction of naval, artillery, and engineering officers, and the principal naval and military arsenals. This arrangement was justified upon public grounds by the partisans of the king. The kingdom, they affirmed, had been established as an European object, and to form a barrier for the defence of all the powers against the ambition of Trance. In any display of that ambition, Belgium would, as heretofore, become the first theatre of war, and, in spite of the range of fortresses about to be erected, might be occupied by an invading army. If the means of carrying on the war fell into the enemy’s power, the effect might be fatal; but by having the establishments farther from the frontiers, and where they could be guard- etl by natural defences, the war might be kept up effective¬ ly behind the rivers and canals of Holland, so as to render the advance of the enemy a dangerous or a ruinous step. There are in Belgium a variety of languages spoken, and the attempt of King William to introduce one uniform tongue created much discontent, and wras by a great and Nether¬ lands. 132 NETHERLANDS. Nether- influential part of the inhabitants considered as a serious lands, grievance. The far greater portion of both the northern and southern inhabitants are of German origin, and their vernacular language is chiefly composed of Teutonic words. It is divided into several idioms, namely, the Dutch, the Flemish, and the Brabant. These three are so nearly si¬ milar, that those who use them understand each other bet¬ ter than the English and Scotch peasantry do. The Dutch language has been more polished than either of the others, having been the tongue of some of the most learned men that Europe has produced. It contains books of art, science, literature, law, theology, and history of the greatest merit, and which have been the means of spreading knowledge ot all kinds to a great extent. The care bestowed on educa¬ tion has produced a greater number of readers and writers than are to be found in any other country of the same li¬ mited population. The Flemish and Brabant dialects have been little cultivated ; few books have been written in it, except those of devotion, the lives of saints of the Catho¬ lic church, almanacs, and spelling-books. The numbers who read them are very small in comparison of the whole population, but with the rural inhabitants this dialect is the general medium of intercourse. During the French dominion great pains were taken to extend the use of their language, and with much success as far as regarded those who had enjoyed the advantage of even the commonest education. I his has extended the use of that language amongst those above the lowest classes; and it is said that even in Holland there are more persons acquainted with the French tongue than in those parts or Belgium where the other dialects of Teutonic origin are used. The Walloon language, a corrupted dialect of the French, is commonly used in the provinces of Hainault, Liege, and Namur; and the German language is most pre¬ valent in Luxembourg. f1UOQ Baron de Keverburg, assuming the population ot gives the statistics of languages as follows. The divisions in which the German is used, and their InPH£dI. In Belgium, the provinces of Antwerp, Lim- bourg, and the two Flanders The largest part of Brabant V-i’ow One half of Luxembourg 1M,317 4,832,524 The divisions in which the French and Walloon are used, with their population cok The provinces of Hainault, Liege, and Namur...1,124,5 The arrondissement of Nivelles, in the province of South Brabant One half of Luxembourg lol,3 W 1,402,645 In this view the Dutch language is used by two fifths of the population, the other languages of German origin by two fifths, and the French and Walloon by one fifth. From the most remote periods all public affairs in Belgium were transacted in one or other of the Teutonic idioms. The Joyeuse Entree, the Magna Charta of the country, was ori¬ ginally drawn up in the Teutonic dialect, and was only translated into French at a recent period, when the princes, no longer residing in the provinces, began to give a de¬ cided preference to that language; but all the proceed¬ ings of the states of Brabant were conducted in it till the conquest of the country by France. From that moment all public deeds were written in French, and the subdued people supported with pain the loss of their native tongue; but they dared not utter a complaint. This attachment of the Bel¬ gians to their native language was shown to have been little weakened by their subjugation to France; for when the al¬ lies had freed them from that yoke, and Baron Vincent was Nether, appointed governor ad interim by the house of Austria, a pe- v antk tition was presented to him by the ancient representatives of the city of Brussels, who resumed their former titles un¬ der the name of Syndics des neuf nations, et des cent qua- rante-trois doyens, complaining of the compulsory use of the French tongue. The petitions were favourably received, and an arret issued on the 18th of July, authorizing the use of the Flemish language, not, indeed, in all public wri¬ tings, but in all notarial writings. When this provisional government ceased by the acces¬ sion of King William to the throne of the Netherlands, he proposed to redress what was then deemed one of the grievances of the country, by a decree of the 1st Octo¬ ber 1814, which stated as a fact, “ that, in consequence of the union with France, the national languages of the provinces had been almost suppressed, to give place to the French tongue ;” and then added, “ that if it was neces¬ sary on one side still to tolerate the use of the latter lan¬ guage in some parts where the Flemish is not used, it is but just, on the other side, that the Flemish, which is the natural language of the country, should be re-estab¬ lished in all the parts in which it is used and understood.” The king was certainly desirous of restoring the national language, and of restraining the use of the French; and for a time, whilst it was gratifying to the great body of the people, it occasioned very little complaint upon the part of those who alone spoke or understood French. Gradual enactments were made to induce practitioners to study the national languages; and three years were allowed to ac¬ quire them, at the end of which time those who did not understand them were to be removed to other stations, where they could practise their official duties in the tongue they were most familiar with. At the expiration of the pre¬ scribed time, 1st of January 1823, a decree fixed the fol¬ lowing arrangement on the subject of languages L The use of the French language shall be preserved in the Wal¬ loon provinces of Liege, Hainault, and Namur. 2. The use of the Dutch language shall continue to be maintained in Holland. 3. The use of the Flemish language, in its se¬ veral idioms, shall be re-established in the Flemish pro¬ vinces. 4. The German language shall be used in the German part of the grand duchy of Luxembourg. In short, it was provided that the official language in each of the provinces should be that which was used and un¬ derstood by the mass of the people who inhabited them. The profession of the law in Belgium forms a body which, next to the clergy, is the most formidable body of any. They had been trained by the study of French eloquence, and the young advocates, when called upon to plead in the language of the country, were often mortified by the ridi¬ cule of the audience. They did not wish to incur the dis¬ pleasure of the Belgians by degrading their language, and therefore directed their attacks on the Dutch language, which, for that purpose, they confounded with the Flemish. In these attacks they were joined by the writers of many pamphlets, and also those of the public journals. The at¬ tacks were very violent. From those on the Dutch lan¬ guage they passed on to attacks on their literature, on their manners, and their morals. The Dutch writers, irritated by these attacks, replied and defended themselves; and thus arose, from mere literary disputes, a powerful and en¬ during animosity between the two countries. The subject of religion was one which, above all others, served to produce discontent. A set of writers who nei¬ ther had, nor pretended to have, any religious principles, encouraged the government at first in measures of tolera¬ tion, according to the fundamental law, and were, or af¬ fected to be, vehement against the Jesuits, who opposed it. William was no bigot in religion, but it was his desire to raise the character of the Catholic clergy, by imparting .A NETHERLANDS. ?' her ds. ■ to them a more extensive and better education than had previously been necessary before entering on their office. ^ With this view he framed regulations which offended the clergy and the ignorant party who submitted to them, and who were at length joined by those who distinguished themselves as liberals, as soon as they saw that some ad¬ vantages could be drawn from that union to forward their own republican views. The Catholic clergy in Belgium had submitted to the regulation of their affairs which French subjugation had imposed. The vicar of the diocese of Ghent has indeed been unwilling to allow this ; but Baron de Keverburg, him¬ self a Catholic, and under the French regime governor of West Flanders, asserts most positively that the imperial institutions were observed in Belgium as elsewhere ; that the catechism of the empire was taught to almost every one; and that the four articles of the clergy of France formed a part of the religious instruction in all the Belgian departments. As soon as the kingdom was established, they brought forward claims to power which they dared not even to whisper under Napoleon, and even carried those claims to an extent beyond what they had been urged for the last three or four centuries, and beyond what are ac¬ knowledged in the Catholic kingdoms of Europe. The vicar-general of Ghent had required, as essential to the establishment of the kingdom of the Netherlands, “ le retablissement de tous les articles des anciens pactes in- auguraux, constitutions, chartes, et cetera, en ce que con- cerne, non seulement le libre exercise de religion Catho- lique, mais aussi les droits, privileges, exemptions, et pre¬ rogatives des eveques, prelats, des maisons-dieu, et des autres institutions religieuses quelconques.” A single ex¬ ception was indeed admitted to this exercise of power. The church would indulge the monarch so far as “ accor- der au prince et a sa cour des chapelles,bien entendu seule¬ ment dans 1’enceinte des palais royaux.” Thus these old powers, which the French had destroyed twenty years be¬ fore, were to be restored; and then the prelates would al¬ low, but only to the king and his family, the toleration of his own worship in secret. According to the principle of the prelates, the chief and sole duty of the temporal power was, in its relation to the Catholic church and its'clergy, limited to “ proteger la religion et ses ministres, a faire executer les lois de 1 eglise, a faire punir les actes exterieurs nuisibles a la societe religieuse.” This extraordinary claim of the church to a power in¬ dependent of, and in fact governing the state, would not, on its own account, have deserved the notice here taken of it. It was at least quieted by the prudent conduct of the king, who suffered the Count Mean, one of the pre¬ lates, upon his nomination to a seat in the council of state, to swear to the tolerating constitution under a protest, that it the pope should declare the oath to be contrary to the rights of the church, it should thereby cease to be bind- mg. The king, whilst he adhered to the constitutional principle of tolerating other sects, extended his liberality to the Catholic clergy, by increasing the stipends of the in¬ terior orders; by making provision for those who, from age or infirmity, were incapable of performing their duty; and by contributing liberally to the erection or repairs of churches where the communal funds were inadequate to the purpose. he opposition of the clergy was for a time dormant; but it was again roused, when, at a subsequent period, the lead- eis ot the church formed a junction with the leaders of the french party, and thus placed the lower classes, who could not read their effusions, but were under the influence of the priests who spoke to them in Flemish, in a state of hostile excitement towards the government. The hostility t le clergy was much aggravated by the attempts made to improve the education of the priests. The king had determined that no priest should be inducted who had not passed two years in the study of the literce humaniores be¬ fore his ordination, and appropriated a college at Louvain for that purpose, to which was given the unfortunate name of the 'philosophical college, a name with good Catholics al¬ most equivalent to infidel or heretic. The prelates, to coun¬ teract this, established seminaries connected with the ca¬ thedrals, in which the pupils were instructed in their hu¬ manities. These contravened the design of the king, and were forcibly shut up. It was an objection to the philo¬ sophical college that the professors of history were not priests, but laymen, and some Protestants. This may not seem a solid ground of declining to attend lectures on his¬ tory ; but it was so with the Catholics; for, as their doc¬ trines rest quite as much on tradition as on the Holy Scrip¬ tures, it was of vast importance that history should be taught by those alone who were orthodox in their opinions. In truth, the critical spirit of some of the German profes¬ sors would make sad work with many parts of the tradi¬ tions held sacred by the Catholic church. The prelates, in the discussions on this subject, indulged in language of a violent kind, and were prosecuted. A law enacted by Napoleon was made the instrument of condemning one or two of them to banishment, and excited no small degree of hatred amongst their adherents, who, if not the most enlightened, were the most numerous, portion of the inha¬ bitants. These mortifications were increased by circum¬ stances of inferior importance. Some of the religious festi¬ vals were curtailed, certainly with no views inimical to re¬ ligion, but to benefit the morals of the people, by lessening the number of days that were devoted to idleness and drun¬ kenness. The architecture of the national schools was simi¬ lar to that of the reformed places of worship, and the youth of the country were forbidden to be educated out of the kingdom. These trifles were magnified into matters of plain evidence of a regular system to proselytise the whole of the Netherlands. Whilst these controversies respecting religion and education were carried on, the conduct of the king was applauded and encouraged by the active party of the liberals, who represented them as proper steps to secure the people from the insidious attempts made by the Jesuits to blind and cajole them. There was no evidence of anv plan of the kind on the part of the Jesuits, and it was only affectation in the liberals to insinuate it. It served their turn for the time, but was soon forgotten, when it appear¬ ed advantageous for their party purposes to join with the most bigoted of the Catholics against the government of the house of Orange. Another subject was at times brought forward, and must be added to the causes of the internal disunion between the two parts of the kingdom. The number of members of the representative body had been fixed at the time of the union, and made equal for Holland and for Belgium. The subject was then investigated with the greatest delibera¬ tion, and all parties were content. It had been suggested that Belgium brought, to form the kingdom, a more nume¬ rous population than Holland, and therefore ought to have a greater proportion of members in the assembly. But, upon the other hand, it was shown that the colonies which Holland brought to the common stock contained, in Asia, Africa, and America, as many persons as rendered them equal in number, and, in regard to common advantage, much superior to Belgium ; and, besides this, it was urged, that the Dutch contributed to the common cause a powerful fleet and an army, with the stores belonging to both ser¬ vices. Ihis point was, however, settled with perfect cor¬ diality, and remained at rest during several years. But at length it was thought necessary to extend to Belgium the Dutch system of taxation on the grinding of corn. Ihis was severely felt, and gave rise to renewed agita¬ tion as to the inequality of representation in reference to the numbers of inhabitants. It became a more prominent Nether- lands. 134 NETHERLANDS. Nether- object, because the tax was imposed only by a majority of lands. tw0 voles> all the Hollanders voting for the measure, and ed to oppose the calumniating writers by employing others Nether. 1 1 • i T. „ ^ 4-4-^ 4- «.r <-« r, -4', % 10 n all the Belgians but two against it During the whole of the period from 1815 to 1829 the popularity of the monarch was very variable. After the uttering of some loud complaints, as alleged grievances arose, they seemed to die away and be forgotten ; and, till some new cause supervened, the king was as much re¬ spected as his best friends could wish. At no time, in¬ deed, was his personal character assailed ; and the general feeling in Belgium was, that he always meant well, but gave too ready an acquiescence to what they tauntingly called the schemes of their Dutch cousins. The king, attacked by two parties, by the priests and their bigoted followers on one side, and by the republicans on the other, avowed his intention to act with indifference to all parties in the pursuit of what he deemed for the ge¬ neral advantage. In conformity with this disposition a con¬ cordat was in 1827 entered into with the pope, by which the right of nomination to the bishoprics was settled. It was provided that each should be selected by the pope out of three individuals to be nominated by the king, and that the education of the priests should be under the con¬ trol of the prelates; but that in the seminaries professors should be appointed to teach the sciences, as well as what related to ecclesiastical matters. This arrangement was highly satisfactory to the cool and thinking part of the community, but was far from pleasing to the extravagant partisans. The clergy thought that too little had been granted to them, and the liberals that too much power was conferred on their order. Conciliatory as this mea¬ sure was intended to be, it thus proved nugatory ; and se¬ veral nominations of Belgians to offices before filled by Dutchmen had no better effect. Brussels at this time contained a most heterogeneous fo¬ reign population, consisting of the intriguing and discon¬ tented subjects of almost every country of Europe. There were of Frenchmen, regicide conventionalists, exiled Na- poleonists, and proscribed constitutionalists, besides Italian carbonari, expatriated Poles, Spanish liberals, disgiaced Russians, English and Irish radicals, and visionaly stu¬ dents from the various parts of Germany. As the greater part of these had but insecure means of subsistence, and for the most part understood the French language, the press groaned with libels, not more against the Belgian than against all other governments, and thus contributed towards the production of a high state of political excite¬ ment. The press of the capital also furnished cheap edi¬ tions of such works as, either from their irreligious, im¬ moral, or democratic tendency, were prohibited in France; and thus became a nuisance to the regular governments of Europe. The great mass of the population could not be inflamed by these fire-brands ; few of them could read, and fewer still could read French. They were, however, acted upon by other means. The Flemish preachers, school¬ masters, and confessors, in their several spheres, were ready to join in any movement, and were sure to be sup¬ ported by the idle, the dissolute, and the indigent, with which the cities and large towns abounded. To bring the whole body of discontent to bear upon the same point, it was found advisable to form the two parties into one; and this was achieved by the liberals affecting a zeal for the Catholic faith, which they had before treated with con¬ tempt and ribaldry. The union was thus formed, meetings of the parties were held, the junction was openly announced, and threatenings were promulgated tending to give con¬ fidence to the confederacy, as well as to excite appre¬ hension in the king and his ministers. This system of agitation was carried to an extent which no government could behold with indifference, however confident in the rectitude of its measures. It was attempt- to counteract their influence; but the attempt wTas xar from successful, as in that kind of warfare the assailants have almost always the advantage on their side. The avowed object of the liberal writers was to urge the cle¬ rical party to make such extravagant demands of exten¬ sive power as they knewr, if granted, would be the ruin of the royal authority, and if refused, would increase the agi¬ tation they had already created. Although the whole of the Dutch members of the representative assembly, and several of the most respectable of the Belgian members, gave a majority in favour of the royal party, yet many of the latter adopted most inflammatory language, and, as far as the rules of debate allowed, seconded the views of the united party of the liberals and bigots. As the union openly flung defiance at the government, it appeared necessary to bring before the courts of law the most notorious of the inflammatory writers; and two were selected as subjects for prosecution before the court of assizes of South Brabant. These individuals are thus described by the Baron de Keverburg. Of the first, Louis de Potter, he says, “ II s etait fait remarquer long- temps avant les troubles de la Belgique par des ecrits qui, aux yeux de 1’eglise, etaient reputes fort impies, et, aux yeux des hommes doues, d’un peu de delicatesse, de tres- mauvais gout. Ce que j’ai de dire sur le second est moins honorable encore. M. Francois Tielemans, avant I’epoque pre-indique, n’etait connu que par les bienfaits qu’il avail re^us et qu’il continuait de recevoir du roi, et plus tard il le fut par son ingratitude envers son bienfaiteur.” These men, with two others, likewise editors of journals, were sent to the tribunal in which Van Maanen filled the office of presiding judge. The prosecution terminated in a sentence of banishment from the kingdom for the period of eight years ; a sentence which brought on the judge the execrations of the libellous journals, and elevated the pri¬ soners to the rank of martyrs. The sentence was put in force by sending the culprits to the frontiers, where they were detained, as neither of the neighbouring states would admit them. The revolution of July occurred in Paris whilst they were in this state; and the party which pre¬ vailed in that city allowed them to enter France, and they were received in the capital with great applause by the propagandists. The popular mind in Brussels was highly agitated by these trials, which did not operate to restrain the indig¬ nant language of the journals, nor the distribution of the most vehement placards, many of them in the Flemish tongue, in which the minister Van IMaanen, and the edi¬ tor of a royalist journal entitled the National, were held up to the public indignation, and threatened with ven¬ geance. In this state of the public feeling, the news of the success of the Parisian mob in overturning the throne was received with enthusiasm. Numbers of the young pro¬ pagandists from Paris reached Brussels. Assuming to themselves the character of heroes of the revolution, and with feelings of disappointment at the tranquil issue at which it had so soon arrived, these young men displayed the three-coloured cockade in the streets and public places; talked loudly in the theatres and coffee-houses ; sang the Marseillaise and Parisienne hymns in chorus with impas¬ sioned groups ; and dwelt with enthusiasm on the glories of the republic and the empire, aird the future destinies of their “ young France.” Some of the more active of the Bel¬ gians repaired to Paris, and are said to have sounded the new government on the subject of the re-union of their country to France, in the event of the dissolution of the monarchy of the Netherlands. These last were, however, mere adventurers, who had little or no power over, or in¬ tercourse with, those who were destined to influence the fate of Belgium. NETHERLANDS. The disturbances which followed at first may be easily concluded to have been the result of mere popular exci- '' tation, such as is often seen in large cities. The first symp¬ tom of outrage was presented by the audience of the theatre, on the 25th of August 1830, after the representa¬ tion of a piece, the Muettede Portici, which abounded with passages well calculated to kindle a flame amongst mate¬ rials well charged with inflammable particles. When the curtain fell, the excited audience rushed into the street, exclaiming, “ To the office of the National.” They ran thither, soon forced in the doors and windows, and began the work of destruction. They then rushed into the dwel¬ ling of the editor, which was speedily demolished, though the obnoxious individual, whose life was threatened, made his escape unhurt. Ihe house of Van Maanen was that next assailed. It was plundered, and then set on fire, 135 be known by the events which followed; and they show Nether- that neither the adoption of concessions, nor the positive lan(ls- use of force, was resolved upon, but a course was pursued ^ which, being some undefined medium between the two dif¬ ferent paths, ended, as was natural, in converting a mere popular riot into a confirmed revolution. It was determined by the council that the Prince of Orange should proceed to Brussels on a peaceful commission ; whilst the command of the army was conferred on his brother, and the troops advanced with alacrity from the various parts of Holland, where they were quartered, and where the most astonishing zea\ was displayed in support of the royal authority. The prince, however, departed for Brussels, but only furnished with such limited powers as, in the actual cir¬ cumstances, were utterly ineffective. On his arrival at Vilvorde, near the city, he was waited on by a deputation and the populace stopped the fire-engine from playing till from the’city, compoid o^ every thmg m .t was consumed. The police-office was inhabitants, who had been nominated at a public meefrng Pictures, and nlatfi of nf thp a i- • 1 v . 5 then attacked; the books, furniture, pictures, and plate of the chief magistrate were brought out and burnt in the street; and the hotel of the provincial governor shared the same fate ; whilst some private houses and several manufac¬ tories were pillaged, and otherwise much damaged. Fury, contusion, or terror were visible in every countenance, be¬ fore the civil and military powers made any attempts to stop these disorders; and those which were made showed awant either of the courage or the coolness necessary to act with de¬ cision. “ From this conduct,” says an eye-witness, “before ten o’clock on the morning of the 26th, the guards and posts in the centre of the city had been overcome, or had tran¬ quilly surrendered ; and the troops who had been drawn out either retreated to their barracks, or were withdrawn to the upper part of the city, where they piled their arms in front of the king s palace, and renounced all attempts at sup¬ pressing the tumult.” By the operations of these two days, the multitude had i roof rr r> -i /-I 4-1-,^-. ^ ~ a. _ f* * 1 • . i . of the householders. After some preliminary discussions^ the prince courageously resolved on entering the city with no other suite than a few officers of his staff. His passage through the streets, crowded with the irregular burgher guard, and a ferocious mob, was attended with imminent risk; but at length he reached his own palace, and com¬ menced a conference. Discussions were continued for se¬ veral days between the prince on one side, and respectable citizens on the other, which were conducted with firmness and in a conciliatory spirit by both parties. The substance was not a rejection of the royal authority, or of the rei Political the throne; but in answer to such suggestions he firmly inflict. a.sked °f"ne of tbe most influential men both at that and inflict. This moved a few of the more influential inhabi¬ tants to take up arms, and to enrol themselves into a burgher guard, for the protection of their lives and property. With- in three days, not less than as many thousand persons, c nefly heads of families, had enrolled themselves in this coips, and, under chiefs of their own selection, paraded the the present time, “ W hat opinion would you entertain of me were I to sacrifice the interests of my father to my own ? What confidence could you repose in a man who could cast off his allegiance to his king, and that king his father, merely to gratify his own ambition? I also am a father,” added the prince with deep emotion, “ and am strppte* tfiof .i j-i ~ —auueu uie prince witn deep emotion, ‘ scarcel^aarmed^ciri2ensl0nThevledetermbuld,r^an*2e^f"11 A‘ a “"“i"^c"8 heltI 0" the M of September, when the troops, which were'advindni 3 the Z 3*“^ “?"!r Kmfmbers ?f the states-general attended, it was so commandpd tEpm i • a cin?’ an, the general who fully obvious to the prince that nothing but a senaratead- toTt readilv- a? n0 preC!Se, 0rderS {r0m the kinS ministration of the two countries would restore tranaudhtv ed il rfi ^ he reeved to - Muence witST,^ ed into a kind of treaty of neutrality with the burghers, till they could receive directions from the Hague, where . and hls family had that year their residence. The inte igence of these events in the capital soon spread throughout the provinces, and in all the large towns, ex- cep ing ntwerp and Ghent, similar scenes were exhibited, commencing with plunder and outrages by mobs, and set- ing own into an uneasy but rather more secure state by the mstitutmu of burgher guards. ^ ratprl6/11^^1106 Pr°m ■^russeJs was quickly communi- in nLL u^aSUf’ butthe ro)'al ^uncils were divided dismission" nfti6 on/.Positive demand in Brussels was the resbmTol ^aa"en ; and he “lfered in<>-1u« rpeP ’*• k‘ng is said to have refused accept¬ ing his resignation, whilst the Prince of Orange urged the ~ f th?ad0Pti0" of —e otlfer measures of a conciliatory kind. The result of the decision can only complish that object; and he received the fullest assurance from the persons present, that they would unite in the most efficacious measures to assure the dynasty of the house of Oi ange, and to protect the territory of Belgium against any attempts to subject it to France, or any other foreign power. The prince expressed his determination to use his most powerful arguments with his father to obtain his as¬ sent to this proposal; but expressed his apprehension that lie should be unable to succeed in his endeavours. The prmce then quitted the city, carrying with him the respect of all those with whom he had communicated, for the cou¬ rage he had displayed, for the knowledge of public affairs which he discovered, for the cool judgment which he exer¬ cised, and, above all, for the sense of parental duty which he had manifested. Whilst these transactions were passin<>- in Brussels, the whole country was in a flame; in every town the populace were triumphant, and indulged unre- 136 NETHERLANDS. Nether¬ lands. strained in plunder, to which, especially in the important city of Liege, was added the conflagration of several valu¬ able manufacturing establishments. The officers of the army, with no definite orders how to act, were paralyzed in some places, in others gave up their arms, and in others engaged to be neutral. The king, amidst the general disorder in Belgium, and the most fanatical attachment to the royal cause in Hol¬ land, had summoned the states-general from both divi¬ sions to assemble at the Hague. The members from Bel¬ gium, with some slight hesitation, resolved to repair thi¬ ther, and the assembly was opened on the 13th of Sep¬ tember, by a speech from the king, which was firm and temperate, but by no means definite. The proceedings of this body were dilatory; the Belgium members weie treated with indignity and insult by the populace ; and the language of some of the Dutch members expressed vengeance rather than conciliation. The accounts re¬ ceived at Brussels from the Hague, and the warlike de¬ monstrations made by the troops, rekindled and accelerated the preparations for defence, and induced some approaches to organization. The burgher guards had become tired of military duty, and being mostly tradesmen living on their business, which had now been ruined, they were anxious for the return of the tranquillity upon which their existence depended. The leaders of the opposition, however, drew fresh recruits of a more determined and more reckless de¬ scription from the rude population of the Walloon pro¬ vinces, from the men employed in the coal and iron mines, and from the iron forges and other works which had been destroyed or shut up in and around Liege. These were, in a great measure, old and hardy soldiers, who had served in the ranks of Bonaparte’s army, and fought in Germany, in Russia, or in Spain. Their arrival in the capital spread terror amongst the peaceable inhabitants, and kindled alarms lest they should be again exposed to the outrages which had marked the first days of the explosion. The de- fenders were thus divided into two parties; but, as usual, the most violent soon prevailed; and the council of the rab¬ ble soon dispersed that of the burghers (for both had their separate assemblies), seized the arms of the latter, and add¬ ed to them others which had been collected in different parts of the country. Although the states were still sitting at the Hague, the king’s army was gradually drawn around Brussels. It con¬ sisted of 14,000 well appointed troops, under the command of Prince Frederick. But the motions of this powerful body were so dilatory, and its whole operations so unmih- tary, that they are difficult to be accounted for, unless on the supposition that the conduct of the king was too conci¬ liatory when force should have been applied, and too hos¬ tile when conciliation would have been of most advantage to his cause. On the 20th of September the council resolv¬ ed to take possession of Brussels, and orders were sent to Prince Frederick to that effect. This resolution was taken at the Hague in consequence of the information of nume¬ rous emissaries from Brussels, who represented the inha¬ bitants as eager to receive the troops, and to assist in put¬ ting an end to the anarchy and oppression which the mob were exercising. The most respectable names in the city were appended to these representations, which were doubt¬ less sincere, but came from such as were more prepared to enjoy the return of peace and good government than to contribute any share of their personal services to secure these blessings. , , . j On the 25th, the troops advanced towards the city, and with little opposition occupied the upper portion or court part of it, which is situated on a hill, by which the whole of the rest of the town is commanded. The opponents in the lower part of the city were dispirited and disunited, and most of the more violent leaders had fled. But the commanders of the army seem to have been seized with a Nethei' ^ panic, or to have dreaded doing too much mischief to the^hmls: lar houses and property of the more wealthy inhabitants. Inv“V'' ^ the square, where the troops had been drawn up, they were exposed to a galling fire from an invisible enemy, who, from the roofs of the houses, and from the cellars, picked off the officers and men without being much ex¬ posed to any return from the troops. Instead of destroy¬ ing the houses and buildings which concealed the assail¬ ants, the prince had recourse to unavailing negotiations, and, after three days of most harassing service, deter¬ mined to withdraw his troops. He had the means of stop¬ ping all supplies from entering the city, and thus of ef¬ fecting a surrender by starvation; or, by a bombardment, he might have easily enforced submission. Why neither of these means were adopted cannot be certainly known; but the friends of the royal party attribute it to huma¬ nity alone. The loss of lives was not very great on the side of the king’s troops, considering their exposed situa¬ tion, and the number engaged. It is stated in the re¬ turns as 138 killed, and 650 wounded ; whilst of the defen¬ ders of the city, though far inferior in numbers, the casu¬ alties were acknowledged by themselves to be 450 killed, and 1250 wounded. This disparity must be considered as one of the many extraordinary circumstances of the trans¬ actions, and renders the result utterly incomprehensible. The incredible intelligence of this repulse was rapidly conveyed to the provinces, with great exaggerations ; and disaffection, anarchy, and demoralisation were spread every¬ where. The army retreated towards Antwerp, which, in spite of the force near it, soon became involved in con¬ fusion. Ghent, Bruges, Ostend, and the other towns in that direction, immediately became a prey to the revolu¬ tionary party, and experienced the horrors of anarchy in the destruction of some of their most extensive manufac¬ turing establishments. The universal rejoicing of the Belgians did not prevent some measures from being adopt¬ ed to restrain outrages. In a few days, some individuals, with the general acquiescence, formed themselves into a provisional government. They were for the most part men of character and property; but amongst them was De Potter, who had returned as soon as the danger was over, and had been placed by the popular feeling at the head of the body. His power was but of short duration, and he soon fell into utter insignificance, if not contempt, as did others of the original leaders of the insurrection. When those of the representatives who had assembled at the Hague returned home, and their conduct was reviewed in a dispassionate manner, the weight of their character gave them an influence which proved favourable to the re¬ turn of order. Some of them were added to the body forming the provisional government, and they exercised their influence with prudence, firmness, and integrity. In the provisional government the state of parties was singular, from the variety of opinions. De Potter, who looked forward to the dignity of president, advocated a re¬ publican form of government; Gendebeer, a decided ad¬ vocate of democracy, preferred a union with France; whilst Van de Weyer wished for an independent government, on a monarchical basis, with the Prince of Orange at the head, if he would consent to withdraw altogether from his Dutch obligations, and become exclusively the sove¬ reign of Belgium. The plan of Van de Weyer was known to be favoured by all the kings of Europe; and even France, at that moment under the pilotage of Lafayette, was averse to the entire exclusion of the Nassau dynasty, and sent an agent to Brussels to forward his views. Gendebeer had visited Paris, and there found little or no disposition amongst the leading people to agree to a union with the Belgians, which, they were aware, would involve them in a war with all those powers that had founded the kingdom of the NETHERLANDS. Vet r- laiU Netherlands in 1815, solely as a European object and a barrier against France. ^ It soon became evident in Belgium itself that republi¬ canism had made little or no progress. The prevailing opi¬ nion was strong in favour of the Catholic religion, with all its ancient powers and observances, but stronger still in fa¬ vour of a nationality independent of all foreign control. This latter spirit contributed to increase the number of those who had taken up arms ; and by such persons the re¬ pulse of the Dutch at Brussels was vainly considered as an evidence of the military power of the people. Many of the privates, and a few Belgians of distinction, had been in the army of Prince Frederick; but they soon left his colours, and entered the ranks of their countrymen. The Belgian colours waved on every tower in the country, except those of Antwerp and Maestricht; when the Dutch army, greatly reduced in numbers as regarded subalterns and privates, but with the artillery in complete order, withdrew into their own territory. The council of the king at the Hague resolved on the separation of the two governments into different adminis¬ trations; but it was then too late to produce reconciliation; and an attempt made by the Prince of Orange to procure for himself the supremacy of Belgium had no other effect than to beget contempt in that country, and to draw upon himself the temporary suspicion of double dealing towards his father and his countrymen in Holland. The transactions which took place at Antwerp in Octo¬ ber had the further effect of rendering the Belgians still more adverse to the Orange dynasty than they had before been. That city was invested by a Belgian force, whilst within, notwithstanding the resistance of the armed burgh¬ ers, the populace became masters of the place; and the citadel was occupied by a garrison of 8000 good troops, command¬ ed by the bravest of the Dutch officers, General Chasse. A truce had been concluded between the adverse parties, and a white flag hoisted from the fort; but the Belgian officers were unable to maintain it, the populace having begun an attack on the citadel, though with no other arms than mus- Kets. 1 his was not returned, but a cannon was brought for¬ ward by the populace, and a fire opened on the gates of the citadel, which, as the Belgian officers assert, was without their approbation or knowledge. On this infraction of the truce, Chasse ordered two or three guns to be fired from the bastion facing the arsenal. This being found ineffectual, the white flag was taken down; a signal was made to the fleet, consisting of eight vessels of war, in the Scheldt, close to the town; and a cannonade and bombardment commenced. It was more terrific than injurious, the fire being chiefly directed against the arsenal and the entrepot, where all t le military and naval stores in the former v.rere destroyed; whilst in the latter large quantities of sugar, coffee, hides, cloths, silks, and spices, were burned and buried in the ruins of the storehouses. The firing had continued some hours when a deputation from the city made their way to he citadel, and proposed a suspension of hostilities, which was instantly agreed to, and the firing ceased. Never, per¬ haps, was exaggeration or misrepresentation carried farther than on this occasion, in the reports printed and circulated roug elgium; and the effect which they produced de¬ stroyed the last hope of those who wished well to the ®’nce t^lat event, official accounts made ut by the Belgian custom-house show, that the whole loss T 1 wonn11 lh®.1stor1es amounted to 1,888,000 florins, or and /hff 5 ?llst the damage done to private buildings, L inIthem’ amounted to 679,466 florins, or inrlnrWl' T)1 18 ^ *°SS ^le Pu^‘c buildings was not Whim 1 le number 0f the killed vvas on]y sixty-eight, of She nonnG n Tt men’ and tde others thise aSSerted^ lad CaUSed the calamity- The Dutch vol^xvl he fire WaS confined alraost wholly to the spot where the munitions of war were stored, and that the rest of the city was designedly spared. As all hope of conciliation was thus destroyed, the court of the Hague made pressing solicitations to the four powers who by treaty had formed the kingdom of the Netherlands, to fulfil the obligations imposed upon them by the treaty of Vienna of 1815. Bu t it was soon seen by the answer of Lord Aberdeen, the British secretary of state, and by those of the ministers of the other powers in succession, that none of them was disposed to make use of any other than pacific measures. This proceeding gave rise to negotiations be¬ tween the allied powers, which were chiefly carried on in London, out of which proceeded numerous protocols, which had no decisive influence on the course of events. The pub¬ lic affairs of Europe favoured the independence of Belgium. All the powers were in alarm at the recent events in France, and all feared, not that the scarcely seated king would wil¬ lingly commence a war of aggression, but that the democra¬ tic party might become sufficiently powerful to compel him to associate himself with the Belgians, and to bring that country under the power of France. ‘The obvious interest of the four great powers was tranquillity, and the securing of the Continent against Flanders becoming the base of mili¬ tary operations towards the centre of Europe. If these could be obtained, it mattered little whether they arose from the junction or the separation of the two portions which had formed the kingdom of the Netherlands. The fiist meeting of the ministers of the great powers showed that they merely considered themselves as arbitrators be¬ tween the northern and southern divisions of the newly- dissolved kingdom; and their first measures were addressed to the object of a suspension of hostilities, which was to a limited extent acquiesced in by both parties. lo settle the internal government now became the first object of the Belgians, who considered their independence as firmly assured. A national congress was accordingly as¬ sembled at Brussels, consisting of two hundred deputies, chosen in the several provinces, from all tax-paying persons above twenty-five years of age, without exception as to re¬ ligion. 1 he qualification for the electors and the elected was the paying of taxes, which varied in the several provinces ac¬ cording to their estimated wealth. Thus, in Luxembourg, the poorest province, the qualification was the payment of taxes annually to theamountof twenty-one shillings and six- * pence ; but from this the required rate was gradually raised, till, in Flanders, the richest of the provinces, the tax paid required to be six pounds five shillings. The assembly was a fair representation of the people of Belgium ; for scarcely any proprietor was excluded from voting, whilst in the larger towns and cities the mere populace, from the qualification being higher, had not the means of introducing their fa¬ vourites. As soon as the assembly met, the demagogues, who had contributed to the revolution, became insignifi¬ cant. De Potter, Ihielman, and the others who had been martyrs and heroes with the mob, sunk into insignificance. I he assembly proceeded to business in a regular manner. Three important propositions were presented to the con¬ gress. Ihe first was the declaration of independence, which was voted unanimously; the second, proposed on the 22d of November, decided against a republic, and in favour of a constitutional hereditary monarchy, by a majority of 174 against thirteen votes, but it did not fix on the title of the future chief of the state; the third proposition, brought for¬ ward on the 23d, was for the perpetual exclusion of the Orange Nassau family. This was debated during two days, and at the close was agreed to by a majority of 161 against twenty-eight. The object of the minority was to delay the proposition till a more cool and distant period, and till it could be known whether the revolution which had taken place would lead to a war against Belgium. Mr Van de Weyer had, however, returned from a mission to London, 137 Nether¬ lands. 138 NETHERLANDS. Nether- and it was commonly believed lie bad ascertained that the lands, sentiments of Lord Grey and the new ministers were as ' averse to any warlike interference as those which had been previously expressed by the Duke of Wellington and Lord .A-bcrclGGn • It seems probable, that at the period in question the go¬ vernments of England and France were co-operating in en¬ deavours to place the Prince of Orange on the throne of Belgium; even if it could be accomplished in defiance of the positive declaration of the king his father, who did not scruple to assert, “ that he would rather see De Potter placed on the throne than the Prince of Orange. But it such was the desire of the two kingdoms, it was soon disco¬ vered to be utterly impracticable, though much time was spent under the impression of its feasibility, and much sus¬ picion excited amongst the Belgians against the sincerity of France. , . • Whilst the plenipotentiaries were settling the most equi¬ table plan for separating the two countries, and had given their view with respect to the boundaries of each, they also adjusted what portion of the debt of the Netherlands should be assigned to Belgium, and what to Holland, hxing tie former at 44 Parts> and tlie latter at ^ Parts-, These dlS" cussions led to others; and it soon became known, that however independent Belgium might become as regarded Holland, it was too dependent on the superior power of the European kingdoms to be permitted the spontaneous nomination of the individual who was to become its sove¬ reign. At that time a large, perhaps a predominant, party in die assembly would have preferred one of the Bona¬ parte family; but this, it soon appeared, would not be permitted by France. Another party were inclined to se¬ lect a son of Louis Philip, the king of the French; but in¬ timations had been communicated to that prince, that Eng¬ land would consider an acquiescence in the project as a sufficient cause of war; and he agreed to the exclusion of his son, but so privately that it was only known to a tew individuals beyond the diplomatic circles. The partisans of the house of Orange took no open and avowed part in these discussions. ,. . The inefficiency of this representative assembly to the real purposes of a government was speedily shown in the long and bombastical speeches of the members ; m the ab- • solute confusion in every department, whether civil, mili¬ tary, or judicial; and in the mobbing and plundering which prevailed in all the provinces. The necessity for an exe¬ cutive power was so strongly felt by the more reflecting members of the assembly, that after several days prepara¬ tory debate, it was resolved, on the 19th of January 1831, to proceed to the election of a chief on the 28th of that month. The election of a sovereign, or rather of a dy¬ nasty, was enough to kindle agitation and intrigue; but perhaps less of these than might have been expected was discoverable, from the great number of the candidates whose pretensions were urged. On the day before the election, petitions were presented to the assembly in fa¬ vour of Lafayette, Fabvier, Chateaubriand, the Prince of Carignan, the Archduke Charles; Surlet de Chokier, Charles Rogier, and Felix de Merode, private Belgians; Prince Otho of Bavaria, John duke of Saxony, a Prince of Salm, the Pope, the Duke of Nemours, second son of Louis Phi¬ lip and the Duke of Leuchtenburg. Besides these, the Duke of Lucca, the Duke of Reichstadt, the son of Na¬ poleon, and the Prince of Capua, brother of the king of the Two Sicilies, were suggested. 1 he choice of the last was seriously contemplated by the French, through Talley¬ rand ; but the Belgians showed no predilection for him, al¬ though he was not objectionable to any of the four powers. Had the Belgians showed any decided eagerness for Prince Otho of Bavaria, it was known that he would have been recognised by England, France, and Prussia; and that he would then have obtained the hand of the Princess Mary, Ne third daughter of the king of the French. But his age,^ for he was only fifteen, formed an objection with the Bel¬ gians. The popular press, decidedly democratic, was most united in favour of the Duke of Leuchtenburg; but its power had been used till it was exhausted; and, besides, the choice was in better hands than those who are influenced by its inflammatory declamations. It is remarkable, that amongst the long list of candidates the name of Prince Leopold was never once mentioned. It has been suggest¬ ed that England had not even then abandoned the hope of fixing the Prince of Orange on the throne. This would have been approved of by Russia, Prussia, and Austria, and by the nobles and wealthier part of the Belgians, but not by France, as Louis Philip was disposed to fear that the example of enthroning the son of the deposed monarch might hereafter have been taken as a precedent in favour of the Duke of Bordeaux against his son in France. At the eve of the election, however, by some strange caprice of circumstances, all the names were withdrawn excepting the two, who, all intelligent persons knevv, could not be allowed to rule. It was remarked of them by Nor- thomb, one of the most respectable of the democratic mem¬ bers, that “ the Duke of Leuchtenburg was essentially anti- French, without being European, whilst the Duke of Ne¬ mours was so exclusively French as to be directly anti- European.” It is singular that both these personages had been declared inadmissible by the conference of the re¬ presentatives of the great powers. The name of the Ayca* duke Charles of Austria was then brought forward ; but tie could only be considered as a cloak for the partisans of the Prince of Orange, and for other members, who knew he would not accept the dignity, for the purpose of reducing that absolute majority of the whole voters which was ne¬ cessary to the choice. The votes were taken by ballot, and the following result appeared when the names were drawn from the urn The total number of voters was 191, and consequently the required absolute majority was nine¬ ty-six. Nine members being absent, there appeared for the Duke of Nemours eighty-nine, for the Duke of Leuch¬ tenburg sixty-seven, and for the Archduke Charles thirty- five, so that, in fact, there was no election. A new voting then became necessary, and the second scrutiny gave a de¬ finite result. Another member had entered, making 192, and consequently the absolute majority required was nine¬ ty seven. The state of the voting then appeared to be, tor Nemours ninety-seven, for Leuchtenburg seventy-four, and for the archduke twenty-one. This annunciation was re¬ ceived with acclamation by the populace, and with expres¬ sions of joy by the partisans of the successful candidate, who well knew his father would not permit him to accept the offered crown. A deputation was despatched to Pans to announce the choice. But the throne was refused, and the deputies returned after paying and receiving some un¬ meaning compliments. , , t> • The moment was seized by the partisans of the 1 nnce of Orano-e in order to raise a commotion in his favour. It was a mid project, confined to Ghent, Bruges, and Ant¬ werp where his adherents were numerous, especially amongst the lower class, who had been thrown out of em¬ ployment by the cessation of commerce and manufactures. The attack on Ghent was speedily quelled, and the leader fled- but he was seized on his way to France, and on Jus person were found letters from the Prince of Orange, then in London, encouraging the project. This unsuccesstu effort, and the evidence of the prince’s participation m it, proved very injurious to his cause ; and even sober men who had favoured him, were disgusted with what appeared’ to them to be an attempt to involve the country in a civi war. On the refusal of France, the assembly, still feeling the NETHERLANDS. • 139 s - want of an executive power, passed an act that the throne was vacant, thereby establishing the monarchical principle, and then proceeded to the election of a regent as a tem¬ porary measure. The choice fell upon Baron Surlet de Chokier, a worthy, well-meaning man, of no great abilities, who showed little solicitude for the dignity; and on the 25th of February he was installed with some parade. Plots and conspiracies were forming around him in every direc¬ tion, and the demon of civil war was urging on the people to mutual destruction. The feeble government of the re¬ gent could produce neither obedience nor tranquillity with¬ in the country; and it was threatened by the Dutch, who adhered to their king and his purposes with equal union and ardour. It was reported, during the regency, that schemes for the dismemberment of Belgium were contemplated by some of the continental powers. According to this project, two thirds of Flanders, the province of Antwerp, and the northern half of Limburg and Brabant, including Brussels, would have fallen to Holland ; the eastern part of Luxem¬ bourg, with Liege and other territories upon the left bank of the Meuse and the Moselle, would have been transfer¬ red to Prussia ; and Namur, Hainault, and the west part of Flanders, would have been ceded to France. If this project was seriously entertained, it received such discouragement from the British government, that it was speedily abandon¬ ed. About the same period, that is, about a month after the instalment of the regent, extensive plans were formed for a general rising amongst the Orange party, in connec¬ tion with some of the chief officers of the army and the most influential leaders of the burgher guards of Brussels. But this came to nothing, having, it is said, been discoun¬ tenanced by the British minister at Brussels, who saw no other effect that could arise from it but a general European war. It is said that after some discussion respecting Lux¬ embourg, and checking the petty hostilities on the frontier, the British government in April gave up all hope of estab¬ lishing the Prince of Orange on the Belgic throne. On the 12th of that month a kind of proposition was made by some of the influential members of the assembly, and privately communicated to Sir Edward Gust, one of the equerries of Prince Leopold, with the design of ascertaining whether the prince, if chosen, would accept the crown. Leopold answered in the affirmative, but strictly abstained from giving any authority to make exertions in his favour. He was how’ever convinced, before the election, that a vast majority of the electors would vote in his favour; and that he should have all the aid of the clergy and the high Ca¬ tholic nobility, with no opposition but from the French and movement party, and the few Orangeists that had seats in the assembly. A deputation of four members repaired to Claremont, and had an interview with the prince. They explained their object, and the conditions upon which they were authorized to offer the crown, and awaited his reply. It manifested a noble, simple, and frank disposition, and concluded thus: “ All my ambition is to contribute to the happiness of my fellow-creatures. When yet young, I found myself in so many difficult and singular situations, that I have learned to consider power only with a philo¬ sophic eye. I never coveted it but for the sake of doing good, durable good. Had not certain political differences arisen, which appeared to me essentially opposed to the independence of Greece, I should now be in that country; an yet I never attempted to conceal from myself the dif- culties of my position. I am aware how desirable it is that Belgium should have a sovereign as soon as possible. ^ yH Peace Europe is deeply interested in it.” I he deputation returned, and many stormy discussions ensued. Attempts were made to defer the election till all differences with Holland were settled; but these were over¬ come by the votes of 137 to 48. The election took place on the 4th of June, when 152 votes out of 196, four only being absent, determined that Prince Leopold should be Nether, proclaimed king of the Belgians, under the express condi- Ends, tion, that he “ wrould accept the constitution, and swear to v J Y 1 maintain the national independence and territorial inte¬ grity.” This choice, though not expressly unanimous, was such in reality ; for of the minority of forty-three, nineteen vot¬ ed on the ground that the election was premature, four¬ teen voted for Baron Surlet de Chokier, solely on account of private friendship, and thus the real opposition to Leo¬ pold consisted only of ten. Though the voting was by bal¬ lot, yet the vote of every man was known; and all who dared, gave reasons for it, except the ten, who were well known as terrorists. Leopold lost no time in repairing to the post to which he was appointed, and, with only one aide-de-camp and a few domestics, landed at Ostend on the 17th of June, and proceeded directly through Ghent to the palace of Lacken, near Brussels. He made his public entry into that city on the 21st, and was received with cordiality by the higher classes, and by the populace with loud acclamations. The king took the oath to the constitution ; the regent deliver¬ ed up his power; and the congress was dissolved, to make way for the election of the members who were to form the two legislative chambers, as prescribed by the fundamental laws. The first chamber, or the senate, was to consist of fifty members, chosen for eight years, but one half of them was to be renewed at the end of four years. The qualifica¬ tions were to be, having attained the age of forty years, and paying direct taxes to the amount of 1000 florins, or L.84 yearly. The second chamber was to consist of 101 members, being at the rate of one for 40,000 inhabitants. They w’ere to be of the age of twenty-five years, to pay annual direct taxes to the amount of L.8, and to be paid at the rate of 200 florins, or L.16, each month during the session. They were to be renewed by one half retiring at the end of two years, but they might be again elected. After a few formalities, and appointing the ministers to compose the cabinet, on the choice of which much judg¬ ment was exercised, the king left the capital to visit Ant¬ werp, Liege, and the other parts of the new kingdom, and was everywhere received with demonstrations of respect and of loyalty. But whilst the proceedings just narrated were passing in Belgium, a storm was gathering on the side of Holland, which had not been anticipated, and to meet which no adequate preparations had been made. The Belgians relied on the armistice which the conference of the ambas¬ sadors had established, and the few measures which were taken by them discovered only the confusion and disorder inseparable from all popular movements. In Holland, every thing betokened tranquillity, order, and loyalty. The dif¬ ferent orders of the government and the people were more eager for punishing what they denominated the rebellion, than even the king and his family. A powerful army was quickly assembled. It was well disciplined, officered, and appointed, and furnished with an ample train of artillery; and yet all was done with so much secrecy, that till that army was ready to advance beyond the frontiers, no pre¬ paration was made to resist it. Much dispute has arisen relative to the right of Holland to commence hostilities without due notice of the cessation of the armistice; but, on the other hand, Flolland main¬ tained that due notice had been given. The whole turned on the precise sense of the words “ ses.moyens militaires,” in a note delivered by the Dutch ministers to the confer¬ ence of ambassadors. The king was certainly encouraged in the enterprise by the stormy scenes exhibited in the Belgian assembly between the period of Leopold’s election and the time of his arrival. By the noxious influence of the press, such angry passions had been kindled in every 140 NETHERLANDS. Nether¬ lands. division of society, as seemed to threaten internal war; but happily a most powerful speech of Mr Lebau in favour of union, and urging the importance of rallying round their new monarch, had the effect of producing feelings of tran¬ quillity ; though no language had power to produce order or infuse energy, when the time approached for the exhi¬ bition of the one and the exercise of the other. The Prince of Orange having assumed the command of the Dutch army at Breda, on the 1st of August, the order to advance was instantly given; and the march of the se¬ veral divisions commenced the next day. This was a com¬ plete surprise to the Belgians, who were unprepared at every point to resist a disposable army of more than 40,000 men. It is not necessary here to describe the position and the movements of the various corps on both sides. It was, however, remarked by military men, that the Prince of Orange advanced more deliberately than the occasion re¬ quired. Leopold collected his forces, such as they were, near Louvain, in order to cover his capital. In this posi¬ tion the Dutch army, having seized the road which led to Brussels on the 9th of August, advanced to attack him. The Belgian troops could not stand for a moment against their opponents, but instantly fled, throwing away their arms, and escaping in disorder; and a neglect of the Dutch, who thoughtlessly left open a road behind Louvain, alone prevented Leopold and his whole stall from becoming pri¬ soners of war. He, however, made good his retreat to the capital, upon which all hostilities ceased. As soon as the movements of the Dutch were known, Leopold appealed to France for assistance. A French army was cantoned on the frontiers, which, by telegraphic communications, was instantly set in motion ; and intelligence of their advance was formally announced to the Prince of Orange by Lord William Russell, coupled with an intimation, from the French marshal Gerard, of the determination of the two powers to enforce the abandonment of all military opera¬ tions. As the French army rapidly entered the country, the Prince of Orange soon saw the necessity of retreating; and a convention was concluded between him and the French general, in consequence of which he returned to Holland, and the French repassed the frontier ; so that by the 1st of September both armies had left the Belgian ter¬ ritory. The cowardly disgraceful conduct of the Belgic troops was of great benefit to the new government. It showed the reflecting part of the community the folly of trusting the defence of their country to a host of popular partisans, too ready to destroy or to plunder, but too much inflated by the flattery they bestowed on themselves to become effi¬ cient defenders when steadily opposed. All saw the ne¬ cessity of confiding in their chief, and became convinced that a regular army must be formed, in which the men should be compelled to obey their officers. The formation of an army was therefore determined on; but Belgium could not furnish officers. Most of those appointed had been placed in stations of which they were unworthy, because they had been what was called distinguished patriots, that is, leaders of the revolutionary movements; but those active disorganizers were found worse than useless when energy against an enemy required order, discipline, and obedience. By the interference to protect Belgium against Holland, this farther advantage was gained, that the protecting powers were placed in a position to obtain more weight in the negotiations carried on in the conferences of the am¬ bassadors, and both parties were more disposed to leave the contested points respecting boundaries to their arbitra¬ tion. In forming an army, Leopold was assisted by the French, who, as far as could be done, furnished it with able officers ; a want which Belgium could by no means supply from the natives of that country. The partisans of the Orange fa¬ mily, on this occasion, justified the conduct of King Wil- Netl: liam previous to the revolution, in having selected few of hud; his officers from the Belgians. The selection of French-' > men, they contended, proved that William was right in not trusting to officers taken from that division of his kingdom. After the Dutch irruption, Leopold proceeded with cool¬ ness and vigour to restore order and gain confidence. He kept on the best of terms with the most important party, the Catholic clergy and the Catholic nobility, and avoided any nearer contact with the French party than politeness and civility required. He knew who were the real friends of monarchical government, and his best supporters. His marriage with a daughter of the king of the French, who was a Catholic, and the contract that the children of the marriage should be educated in the Catholic faith, were powerful means of attaching to his throne all those of his subjects who were under the influence of the clergy. The Belgian army, under the French officers, soon attained con¬ siderable advancement in organization and discipline. The undisciplined free troops were disbanded, and the best of the men incorporated in the regiment of chasseurs. Some superior officers were superseded, and many of the sub¬ alterns dismissed. A military school was established, and a corps of sappers and miners with a pontoon brigade raised. The civil list was arranged with economy and order, and the other branches of the public service reformed, and others newly arranged. The talents and the integrity of Leopold, and his benevolent disposition, made a very fa¬ vourable impression on all that approached him. Whilst affairs were thus proceeding within, the great work of general pacification was attended to by the mem¬ bers of the conference in London. A final decision was come to on the 15th of November, expressed in twenty- four articles. These settled the great point of boundaries, and placed the question of Luxembourg in a way the most favourable, as was thought, for future pacific arrangement; but, above all, it expressed a determination “ to oppose, by every means in their power, the renewal of hostilities be¬ tween the two countries.” This arrangement was ratified by the Belgian and French sovereigns on the 20th and 24th of November, by the British on the 6th of December, by Austria and Prussia on the 18th of April 1832, and by Russia on the 4th of May. By these articles, the division of the joint debt was fixed on the scale before arranged, viz. f°r Belgium, and ^ for Holland ; but as the latter had discharged the whole interest as it became due from the first disturbances, she was to be paid the share of the advances, with interest on them at the rate of five per cent. Another point arose out of the settlement of the limits of the two countries. Holland was to have Maestricht, and was in actual pos¬ session of that place and its citadel; but Antwerp, which was allotted to Belgium, and was in possession of the Bel¬ gians, was commanded by the citadel, which was garrisoned by a Dutch army under the command of General Chasse, a distinguished officer, who, after the annexation of Hol¬ land to France, had served in the army of the Emperor Na¬ poleon. The Belgians had given only a conditional rati¬ fication of the articles of the 15th of November, upon the express stipulation that the whole of them, in which the possession of the citadel of Antwerp wras certainly included, should be fulfilled. They w'ere precluded by that instru¬ ment from exercising hostilities, and therefore claimed from the parties to it the performance of its conditions. It was important to the allied powers that the throne which they had established in the person of Leopold should be strengthened in the views of his subjects, who had some¬ times manifested dispositions to democracy, and at others strong inclinations for a union with France, neither of which were deemed compatible with the interests of the European commonwealth. But it could not retain respect if the con- NETHERLANDS. 141 ii r- ditions framed by the founders were to be impugned by the p Dutch holding the citadel of Antwerp, whilst they were ’'"“''still in possession of Maestricht. These considerations had their due effect on the conference, who, on the 1st of October, unanimously resolved that forcible means were necessary. They differed in regard to the means, the north¬ ern courts wishing to adopt pecuniary coercion, by deduct¬ ing from the debt due from Belgium to Holland a sum weekly till the fortress was delivered up; but to this France and England objected, as leading only to future and te¬ dious negotiations, during which Rotterdam and Amster¬ dam might enjoy those exclusive commercial advantages which Antwerp was entitled to share with them. Belgium, being wearied with these entangled negotia¬ tions, and having now created an army of more than 100,000, gave notice that, unless their territory was evacuated be¬ fore the 3d of November, they wrould use force to compel it. But this would have created a war, which all the powers were anxious to prevent. On the 22d of October, a con¬ vention was therefore entered into between England and France, which was forthwith communicated to the three other powers, of whose passive adhesion they were assured. By this convention it was determined, that if the places assigned by the former resolutions to the respective par¬ ties were not given up before the 12th of November, France and England would enforce the delivery of these places. This determination was communicated to both nations. Belgium was ready to give up Venloo, which she held; but Holland positively declined surrendering the citadel of Antwerp. The result was, that a combined fleet of English and French proceeded to blockade the ports of Holland, and detain the merchant-ships, whilst France prepared an army to besiege the citadel, without allowing the Belgians in any way to interfere in the mili¬ tary operation. The siege of Antwerp by the French, as a fine practical exemplification of science, became an ob¬ ject of great interest to the military amateurs of all Europe, who repaired thither as spectators. But this is not the place for recording the history of that warlike spectacle. It was vigorously and skilfully attacked; and the defence, which was altogether passive, exhibited a conspicuous ex¬ ample of fortitude and endurance. The first works of the besiegers were opened on the 30th of November, and on the 24th of December the citadel capitulated, when the garrison marched out, and the French took possession of the battered fortress, which, on the 1st of January, they delivered up to the Belgians. The city of Antwerp was not in the least injured, as the approaches were car¬ ried on upon the opposite side. The French army shortly afterwards withdrew from Belgium to its own territory. The Dutch garrison was marched into France as prisoners, on the ground that two forts on the river Scheldt, those of Lillo and Liefenschoeck, were still retained by the Dutch. This led to long and complicated diplomatic ne¬ gotiations, which were at length adjusted, when the cap¬ tured garrison returned to their own country. Since that period no hostilities have taken place; but, on the other land, no treaty has been entered into, and consequently no intercourse between the two countries has been permitted. Belgium has at length been acknowledged as an inde¬ pendent power by most of the states of Europe, but only provisionally by some of them. Many of the owners of s ups, especially of those of the first class, have withdrawn their concerns from Antwerp and Ostend, and formed es¬ tablishments in Rotterdam and the other parts of Holland. these removals, not a few have been caused by the co¬ lonies appertaining exclusively to Holland. But this with- drawal has had less influence on the marine commerce of the Netherlands than might have been expected ; for Bri- is i and American ships have brought to Antwerp colonial pro uce, on quite as favourable terms as they were before supplied, and in sufficient quantity to enable the Belgians to maintain their commerce with the interior of Germany. Attempts are now in progress to bring Antwerp in com¬ munication with the Rhine. But, on the part of the Prus¬ sian government, these have encountered some obstacles, not from any disinclination to the work, but from doubts as to the particular line to be followed, and some financial circumstances respecting the tolls. If the projects in ques¬ tion be accomplished, the Belgians will be much benefited, and have the power of supplying produce to the south of Germany, and also to Switzerland. The manufacturers have suffered much from the sepa¬ ration, especially those of Ghent. But a trade has grown up to a wonderful extent, of smuggling English goods of the finer kind into France, which the numerous douaniers have not been able to prevent along such an extended line of frontier. Agriculture, which, after all, is the chief source of Bel¬ gian wealth, does not appear to have retrograded in con¬ sequence of the struggle of the separation. On the con¬ trary, it appeared to the writer of this’ article, in two jour¬ neys which he made through the country, that much im¬ provement was visible in the appearance of the farms, and in their appurtenances. This kingdom, in the condition in which it now exists, is bounded on the north by the kingdom of Holland; on the east by the Prussian, Westphalian, and Rhenish terri¬ tories ; on the south by France; and on the west by the German Ocean. The civil divisions of the kingdom are as follow. Provinces. South Brabant. East Flanders... West Flanders Antwerp Hainault Namur Liege Limburg Luxembourg... Extent in Square Miles 1,298 1,188 1,276 1,128 1,474 1,422 1,421 1,128 1,194 11,529 Population. 556,146 733,938 601,704 354,974 604,957 212,725 369,937 337,703 292,151 4,064,235 Capitals of the Provinces. Brussels. Ghent. Bruges. Antwerp. Mens. Namur. Liege. Limburg. Luxembourg. As the above statement is taken from the official returns of the Belgian government, the disputed portions of Lim¬ burg and Luxembourg are included in that kingdom, al¬ though still subjects of discussion. The number of the inhabitants is given according to the census of the year 1830, since which the number must have increased. The tables of the population annually furnished by Smits to Quetelet show an excess of births over deaths of 20,000 persons in each year, and consequently the whole popula¬ tion may now (1837) be taken at 4,200,000. Of the po¬ pulation at the census of 1830, the numbers in the cities were about one fourth of the whole: they amounted to 998,118, whilst the rural inhabitants were 3,066,117. The cities which contain more than 10,000 inhabitants are, Courtray 19,036 St Nicholas 16,386 Lokeren 16,069 Ypres 15,940 Alost 14,791 Lierre 13,153 Turnhout 12,493 Thiel t 11,519 Ostend 11,328 Brussels 103,200 Ghent 83,783 Antwerp 77,199 Bruges 42,198 Tournay 28,737 Louvain 25,643 Mechlin 24,436 Mons 23,010 Namur 21,571 Yerviers 19,592 Nether¬ lands. 142 Nether¬ lands. NETHERLANDS. The following division of the land is drawn up by Mr Quetelet, with his usual accurate examination of facts. Provinces. Limburg Liege Namur Luxembourg... Hainault Brabant East Flanders.. West Flanders. Antwerp Cultivated. Uncultivated. 310,514 237,579 278,397 463,423 356,258 316,883 264,988 296,915 197,303 139,410 40,850 58,959 167,760 3,455 1,356 1,310 8,690 72,651 Land Itoads, Canals, Built on. and llivers. 1,480 915 926 1,462 2,962 1,768 4,422 2,015 1,719 15,283 9,648 9,401 17,571 9,794 8,419 11,641 8,965 12,157 Total. 2,722,260 494,441 17,669 102,879 466,687 288,992 347,683 650,216 372,469 328,426 282,361 316,585 283,830 3,337,249 This account is framed in the hectolitre of France, each hectolitre being somewhat more than two English acres and a quarter. From the proportion which the rural inhabitants bear to those in the cities, it may be concluded that agriculture is the chief pursuit of the kingdom. It becomes, there¬ fore, a branch of industry of the most interesting kind. The land of Flanders is not naturally fertile ; on the contrary, its quality is merely such as to admit of fer¬ tilization by a series of operations more or less expen¬ sive and laborious. Where cultivation has not been ex¬ tended, the soil produces nothing but heath and fir. As the property of such lands may be acquired for a very small sum, many individuals have attempted to bring portions of it into cultivation, but have almost uniformly found the expense of doing so to exceed the value of the produce which can be drawn from it. Abbe Mann, to whom we are in¬ debted for some valuable communications on the subject of Flemish agriculture, observes, “ What land is cultivated in the Campine of Brabant, is owing to the religious houses founded in it, especially to the two great abbeys of lon- gerloo and Everbode. Their uninterrupted duration for five or six hundred years, and their indefatigable industry, have conquered the barren harsh sands, and rendered many parts of them highly productive. The method they follow is simple and uniform ; they never undertake to cultivate more of this barren soil than they have sufficient manure for ; seldom more than five or six bunders (fifteen or eighteen acres) in a year; and when it is brought, by labour and manuring, into a state capable of producing sufficient for a family to live on, it is let out to farmers on easy terms, after having built them comfortable habita- tions. From the undoubted testimony of the historians of the Low Countries, it appears that the cultivation of the greater part of these rich provinces took its rises from the self-same means, 800 or 1000 years ago, when they were in a manner one continued forest.” Although, from the destruction, dispersion, or diminution of the religious com¬ munities by the French Revolution, the process of re¬ claiming other parts of the heaths has been suspended or rendered languid, yet the excellent agricultural practices, which a long series of years had ingrafted into the minds and habits of the sluggish peasantry, have been adhered to with a tenacity which is obviously distinguishable in all the other customs, as well as in the manners, dress, food, and religion of the people. Besides that general system of economy which is indispensable to the success of all efforts, and which there enters into the minutest details of husbandry, the two great objects which seem to be aimed at in all their operations are the increase of those crops which afford sustenance for cattle, and the careful preser¬ vation of every substance which can be converted into manure, and returned again to the land, in order to renewr its exhausted fertility. The foundation upon which the agriculture of Belgium rests is the cultivation of clover, which seems indigenous, since none of the most ancient records notice its introduc¬ tion, but speak of it as familiarly as of hay or oats. It is probably from this country that the plant in question has been, though but recently, slowly, and hitherto only par¬ tially, introduced amongst the farmers of Germany, France, and Great Britain. The clover in Flanders is sown in every sort of grain, in wheat, rye, and winter barley, in the spring of the year, when the blades of those plants have acquired a growth of three or four inches; and with oats and summer barley at the same time wdth those seeds. It is also often sown with flax; and, in general, the crops grown between those plants are more luxuriant than when sown with the cerealia. It frequently happens, when sown with flax, that clover yields a heavy crop a few months after it is sown, two still more abundant crops the next year, and sometimes even three; and if, as it occasionally happens, it be suffered to stand another year, it will yield one heavy crop, and afterwards good pasture for cattle, till it is ploughed up to receive the seed of wheat, which usu¬ ally follows it. The original strength of the plants which yield such abundant nourishment is undoubtedly due to the care taken in pulverizing the soil by frequent plough- ings and harrowings, to the careful extirpation of all weeds, and to the copious stores of manure laid on the ground, and its complete amalgamation with the soil; but the successive harvests which the plants yield are attributed, and wito ap¬ parent probability, to the top-dressings which are bestowed upon them. The top-dressings administered to the young clover consist either of rotten yard-dung, lime, pigeons’ dung, coal, or native turf-ashes, and are laid on as soon as the plants begin to extend themselves over the ground. Sometimes the plants are refreshed with a liquid manure, which will hereafter be noticed. These manures, though administered to the clovers, as far as they can be obtain¬ ed, are found far inferior in powers of fertility to that sub¬ stance which is most generally used, and the effects of which form the theme of the praises bestowed by all who have witnessed the Belgian husbandry. The turf-ashes of Hol¬ land are sown by the hand on the clovers, in quantities varying from eighteen to twenty bushels to the English acre. This small quantity produces a most surprising, and almost magical effect. Within a few weeks after it is sown, a field where none or but slight straggling plants were to be seen becomes covered with a most abundant herbage. The parts of a field sown with these ashes, at the first mowing, show their efficacy in a most striking manner; the clover being frequently a foot higher on such parts than on those where its sowing has been omitted. These ashes are found superior in efficacy to such as are made from the turf commonly used for fuel in Flanders, insomuch that one third of the quantity is deemed sufficient to afford as great productiveness. We have no analysis of the turf-ashes of NETHERLANDS. 143 Flanders, by which we can form a comparative estimate of the proportional substances which create so vast a differ¬ ence between their vegetative faculties and those of the turf-ashes of Holland. The latter have been carefully ana¬ lyzed by Mr Brande, secretary to the Royal Society of London, who found them to contain, Siliceous earth 32 parts. Sulphate of lime 12 Sulphate and muriate of soda 6 Carbonate of lime 40 Oxide of iron 3 93 Impurities and loss 7 100 These ashes are brought from Holland by the canals to Brussels, whence they are conveyed by land-carriage to the different farms where they are applied. Long prac¬ tice has so convinced the Flemish farmers of their benefit, that a common proverb, in the patois of the country, may be thus translated: “ He that buys ashes for his clover pays nothing, but he who does it not pays double.” They are frequently fetched from the canal by persons who have to carry them forty or even fifty miles by land. The abundance of the clover produced from the soil of Flanders enables the cultivator to maintain a great number of cattle, principally cows, the dung of which is managed with an attention and care that is highly worthy of imi¬ tation, and contributes to maintain in a state of high fer¬ tility that soil which yields the most exhausting crops. “ The farmers,” says the Abbe Mann, “ supply the want of straw in the following manner : The peat or sods which are cut from the heath are placed in the stables and cow- stalls as litter for the cattle. The ground under them is dug to a certain depth, so as to admit a considerable quan¬ tity of these peat sods, and fresh ones are added as the feet of the cattle tread them down into less compass. These compose so many beds of manure, thoroughly impregnat¬ ed with the urine and dung of the cattle. This mixture produces a compost of excellent quality for fertilizing ground where corn is to be sown.” But the most remarkable practice of the Flemish' culti¬ vators is the application of liquid manure. Under the farm buildings, large reservoirs are constructed, into which the draining of the dung, the urine of the cattle, and the con¬ tents of the privies, all run. This receptacle is divided by rails, so as to prevent any more solid substances from coming into that part where the pump is placed, by which it is raised from the reservoir into the carts employed to con¬ vey it to the fields. The liquid in these receptacles is commonly increased in efficacy by throwing into them, for solution, large quantities of rape-cake. This liquid manure, enriched by oil-cake in proportion to the purse or the spirit of the proprietor, is spread over the land, sometimes by the hand; and by habit the workmen have acquired the tact of distributing it equally and in previously prescribed pro¬ portions over a whole field. But it is more commonly con¬ veyed to the fields in large casks on wheels, to the bung- hole of which is appended a wooden shoot, narrow at the top, and broad at the lower extremity, which spreads the substance equally. For the flax and rape crops this manure is most liberally used. The quantity of this liquid applied to an acre of flax is commonly about 2500 gallons of Eng¬ lish beer measure, in which about 1000 rape-cakes of three pounds each have been dissolved. No country in Europe provides from its soil so great a quantity of sustenance for its inhabitants, so large a sur- p us of food for exportation, and such valuable commodi¬ ties to exchange for articles of foreign growth, as Flan- ers. Besides wheat, rye, barley, oats, pease, beans, and buck-wheat, madder, rape-seed, hops, tobacco, clover-seed, Nether- mustard-seed, flax, hemp, poppy-oil, and some other pro- Ends. Auctions, are raised beneficially, both for home consump- v "" v-*-1 tion and for exportation. As the inhabitants are in every thing averse to innovation or improvement, the implements of husbandry are in a rude state, and very little variation is made from the examples set by their ancestors some centuries ago. The various machines used in England for abridging animal labour in husbandry are unknown, and the use of human beings is still retained in many operations, for which horses and machinery are adopted by us with great advantage. The same aversion to innovate is seen in the management of the cows, the sheep, and the pigs; the races not having been improved by crossing, as in some other countries. The horses seem to have attracted more attention, and the race commonly seen is excellent for agricultural purposes, as well as for the road. The separation of Belgium from Holland must have had some effect upon the agriculture of the former country, by excluding for the present the farmers from one of their best markets for corn ; but the influence does not appear on the face of the country, where improvements still seem in progress. In the most remote periods, the Netherlands were dis¬ tinguished by their manufacturing skill and industry. Un¬ der the Romans, the inhabitants of Arras and several other Flemish cities were celebrated for the production of wool¬ len cloths. At a later period, under the Emperor Charle¬ magne, a present of fine linen and of woollen cloth, sent to the caliph of Bagdad, Haroun al Raschid, was deemed to display the most curious specimens of the industry and skill of the western world. In the instructions of that monarch ( Capitular, de Villis Regum Rrancorum), it ap¬ pears that there existed at Liege, and other cities of the Netherlands, very extensive manufactories, both from flax and wool, in the dyeing of which madder and kermes ber¬ ries were used, and were forbidden to be adulterated. The ancient condition of the manufactories of the Nether¬ lands is peculiarly interesting, because it is to them that we and the rest of Europe are indebted for the first rudi¬ ments of those arts which have since been so widely ex¬ tended in England, Scotland, France, Germany, and Hol¬ land. In the time of Charlemagne, it appears from the same collection, and from the Historia Mon aster ii Salmu- riensis, that iron wares, gold and silver work, embroidery, arms, horse furniture, and various other articles, were ex¬ tensively manufactured. The earliest Flemish fabrics were those of linen ; and, as early as the year 960, free marts were established in several of the cities, to which great numbers of merchants from foreign countries perio¬ dically resorted. The present state of the linen manufac¬ tory is by no means flourishing; but large quantities of the finer kinds, made from flax of their native growth, are supplied by the inhabitants of this kingdom, and are everywhere highly esteemed. The finest yarn and the best bleacheries are at Haarlem ; the best linen is woven at Herzogenbasch, Eindoven, and some other places ; but some fine linen, spun in Westphalia, is mixed with that of those places, and when bleached in Holland is not distin¬ guishable from it. The curious manufactory of thread lace originated in this country, and still distinguishes it. The best is that of Brussels and Mechlin. In the former city and its vicinity it once gave employment to more than 14,000 persons; and at one period the exports of goods fabricated in Flanders, from the flax of their own growth, amounted to more than L.2,000,000 sterling. The wool¬ len manufactories of Flanders were in a flourishing state as early as the year 980, but were most extensive from the twelfth to the sixteenth century. In the city of Louvain, in the year 1317, there were four thousand looms for weav¬ ing woollens. Brussels and Antwerp employed an equal 144 NET N E U Netopion number. Ghent was, however, the most distinguished city il for its fabrics, both of wool and flax, and at that period em- Netravut- p]oye(j 40,000 looms. When called upon to take arms, ty' , the weavers, under the banners of their trade, mustered 16,000 men. Ypres contained 4000 looms. Bruges was the storehouse and central point for the commerce of the half of Europe ; but in 1478 the situation was changed for that of Antwerp, which continued to be one of the most flou¬ rishing cities of the world till the beginning of the six¬ teenth century, when the tyranny and fanaticism of Philip II. of Spain inflicted on the Flemish provinces the greatest sufferings. A variety of circumstances have operated upon the ma¬ nufacturing branches of industry in Belgium, and rendered them exceedingly fluctuating. The great extent of the cot¬ ton fabrics has diminished the consumption ot linen goods, and been extensively felt in Belgium. In consequence of this, much capital was invested in machinery for making cot¬ ton goods, especially at Ghent; and the access to the set¬ tlements of Holland in the East and West Indies gave a degree of energy to the employment which the separation of the two countries has damped, if not quite destroyed. The home consumption, however, is very great, owing to the density of the population, and the general state of easy, if not affluent circumstances, in which the great economy of the people places them. In Ghent, Brussels, and some other spots, cotton goods are made. Verviers and the towns near it are celebrated for their excellent cloth, and in all the towns and villages, the making of linen and lace is a kind of domestic employment. There are refineries for sugar in Antwerp, Ostend, and Brussels. The produce oi the mines of coal and iron in the provinces of Liege, Na¬ mur, Hainault, and Luxembourg, have laid the foundation of hardware manufactories to a great extent in the city of Liege, and on the banks of the Meuse. Ihe chief evil which has been produced by the separation from Holland is experienced in the mining provinces. In consequence of this event, the whole of Holland now obtains its supply of the important article of coal from England, and ot iron from our country, or from Russia and Sweden. Belgium is well situated for foreign trade. The whole of its coasts are indeed rendered dangerous from sand-banks, but the channels between them and the shore are well buoyed and lighted, and there is a vast number of excel¬ lent pilots at all the various stations. The three ports are Ostend, Nieuport, and Antwerp. The first two are harbours, but the latter is situated upon the Scheldt, and is accessible to the largest class of vessels in any state of the tide. It has also the advantage of capacious docks and storehouses, and is thereby admirably adapted to become a depot for an extensive commerce with the south of Germany, and with Switzerland. As the Dutch possess the shore on both sides of the entrance of the Scheldt, this has proved Netticj a discouragement to the trade of Antwerp, though a tem- l| porary agreement has been made ; and some impediments v | have been thrown in the way of the intercourse between Belgium and Germany by the financial confederation form¬ ed by Prussia. From these circumstances, some of the most considerable houses who were ship-owners have re¬ moved their establishments, including their vessels, from Antwerp, to Rotterdam and others of the ports of Holland. The Belgians have, however, been actively awake to the events of the period, and are making efforts to open new and favourable communications between Antwerp and the Rhine. A projected line of railroad has been completed as far as Brussels, a distance of thirty miles, and will be continued till it reaches the Rhine. These roads, in ad¬ dition to the numerous canals and rivers which facilitate internal intercourse, are considered as likely to be pro¬ ductive of great commercial advantages. The religious establishment of Belgium is strictly that of the Roman Catholic church ; but its endowments are much curtailed by the long subjection to France. The whole of the inhabitants adhere to that communion, with the ex¬ ception of 12,500 Protestants, mostly foreigners, and lOoO Jews. These are allowed to celebrate publicly their seve¬ ral modes of worship. There are two universities, one at Lie°-e with about 500 students, and another at Ghent with about 400 ; and several seminaries for clerical educa¬ tion. The system of popular education is in a state of re¬ vision ; but the schools will probably be placed under the exclusive superintendence of the clergy, as the classical schools have already been. . . , The circumstances in which the kingdom is still placed as regards the disputes respecting Luxembourg seem to render a large army necessary. At present the forces on foot consist of 59,000 troops of the line, and a reserve ot 58,000 ; but reductions are in contemplation. The sole executive government is vested in the king, and the ministers are responsible. The legislative power is lodged in two houses; the senate consisting at present of forty-two members, and the chamber of representatives consisting of eighty-five, no legislators being as yet sent from Limburg or Luxembourg, on account ot the uncertain¬ ty which exists as to their ultimate fate. Until the adjustment respecting the debt between Bel¬ gium and Holland is completed, it is not easy to state the exact condition of the financial affairs. The revenue is on the increase, but not quite adequate to the expenses o each year. The national debt, when compared with the aggregate wealth of the country, is much lighter than in any other state in Europe; and, with the economy that has been adopted in every branch, a solid peace must in a short period produce general prosperity. (G‘) ifeiifd NETOPION, a name given by the ancients to a very fragrant and costly ointment, consisting of a great number of the finest spicy ingredients. Hippocrates, in his treatise on the Diseases of Women, frequently prescribes the neto¬ pion in diseases of the uterus ; and in other places he speaks of its being poured into the ear as a remedy for deafness. The word netopion is also sometimes used to express the un- guentum Egyptiacum, and sometimes simply oil ot almonds. NETRAVUTTY, a river of the south of India, in South Canara, which has its source in the western range of the Ghauts, whence its flows in a westerly direction, runs into the lake of Mangalore, and then discharges itself in the sea. It passes by the towns of Areola and Buntwalla. It is navigable for small vessels as far as the tide flows, which is to Areola, and afterwards by smaller boats twenty or thirty miles inland. NETTINGS, in a ship, a sort of grates made of small ropes seized together with rope yarn or twine, and fixed upon the quarters and in the tops. They are sometimes stretched upon the ledges from the waist-trees to the root- trees, from the top of the forecastle to the poop, and some¬ times are laid in the waist of a ship to serve instead of §1 NEU-BRANDENBURG, a city of the duchy of Meck¬ lenburg-Strelitz, situated on a small river which empties itself into the lake of Tollen. It is surrounded with walls, and contains 652 houses, with 5145 inhabitants, who are chiefly employed, in smnll mBnufectories. NEUDORF, a city of the circle of Zips, in the province of the Hither Theiss in Hungary, situated on the river Her- nath. It contains one Lutheran and two Catholic churches, 900 houses, and 5250 inhabitants, who are occupied in N E U i- making linen goods, and in producing iron and copper wares. Long. 20. 29. 25. E. Lat. 48. 56. 30. N. NEUFCHATEAU, an arrondissement of the grand duchy of Luxembourg, in Germany, comprehending ten ^cantons, inhabited by 91,750 persons. The capital is the town of the same name, situated in a raw and cold region of the Ardennes. It contains 230 houses, and 1340 inha¬ bitants, who trade chiefly in cattle. Neufchateau, an arrondissement in the department of the Vosges, in France. It extends over 454 square miles, is divided into five cantons and 133 communes, and con¬ tains 60,500 inhabitants. The chief town is of the same name, and is situated at the junction of the river Mouzon with the Meuse. In 1837 the number of inhabitants was 3524. Long. 2. 35. E. Lat. 48. 20. N. NEUFCHATEL, an arrondissement of the department of the Lower Seine, in France, extending over 641 square miles, and peopled with 84,000 inhabitants. It is divided into eight cantons and 200 communes. The capital is the city ot that name, situated in a fertile country watered by the river Bethune. In 1837 it contained 3430 inhabitants, who were employed chiefly in making woollen cloths of various descriptions for the Paris market. In the neigh¬ bourhood some good cider and perry are made. Long;. 1. 30. E. Lat. 49. 45. N. Neufchatel, or, in German, Neuenburg, a canton in the western part of Switzerland. It extends in north la¬ titude from 46. 51. to 47. 10., and in east longitude from 6. 22. to 7. L, being 293 square miles. It contains three cities, three market-towns, 112 villages and hamlets, with 7468 houses, and 62,500 inhabitants, all of whom are of the Burgundian race, and speak the French language. About 2500 profess the Catholic religion, and the remain¬ der adhere to the reformed church. The land rises like an amphitheatre from the lake of Neufchatel, which is 1312 feet above the level of the sea, to the mountains of the Jura, which divide it from Trance, the highest points ol which are about 3600 feet. The lake of the same name is a very fine object, being about twenty miles in length and four in breadth, and it has the extraordinary depth of 420 feet. I he soil is of a medium fertility, generally rest- ing upon a calcareous subsoil, on which the products ripen early. It scarcely produces corn sufficient for the con¬ sumption of the people, but it yields abundance of potatoes, pulse, culinary vegetables, and fruits, especially grapes. The wine is of a moderate quality. The quantity usually made is about 600,000 gallons, of which one half is exported. The chief manufacturing occupation consists in making watches and watch movements. About 130,000 are annually sent to other countries; and materials for the interior works, espe¬ cially the chains, are exported to a large amount. The fe¬ males are employed in making thread lace. A few good printed calicoes are also produced. The king of Prussia is the prince, and there is a council which regulates the in¬ ternal affairs, of which the members are chosen for life. The revenue of the principality is 440,000 francs, the ex¬ penditure 420,000. It is bound to furnish to the Swiss con- tederacy a force of 960 men, and a contribution of 19,200 raifES" ii 6 caP*ta^ the city of the same name, situated on the lake, at the point where the river Seyon falls into it- It contains two churches, a senate-house, three hos¬ pitals, and 540 houses, with 4715 inhabitants. The chief trade is in wine, and in the craft which navigate the lake, Pgrt^ employed in fishing. Long. 6.45.19. E. Lat. a town of Hungary> in the Sclavo- rTi^u Tfrv°nUer Province, the capital of the circle of nonnlS3’ i o^8 °Ver 668 scluare miles> and has a it/ni 1 " °f 39i12,4, Persons> from whom the regiment of and cnnf»;, 1SllPPAed,W!th recruits. The town is fortified, vol xvi06 3 ^at^° lc an<^ a Greek church, with 209 N E U 145 Neuter. houses and 1349 inhabitants. Long. 27. 19. 27. E. Lat. 45. Neusatz 27. N. ii NEUSATZ, a city of the circle of Bars Varmeyge, in the province of the Lower Danube, in Hungary. It stands on the banks of the Danube, is the seat of a Greek bishop, and has one Catholic and five Greek churches, 2367 houses, and 13,395 inhabitants, who are chiefly Servians and Ar¬ menians. It is a place of considerable trade, especially with the Turkish dominions. Long. 19. 46. 51. E Lat 45. 16. N. NEUSOL, a city in the circle of Soler, in the province of the Lower Danube, in Hungary. It is situated on the river Gran, and is the place of assembly of the states of the comitat, and of the several boards of the government. It contains Catholic and Lutheran churches, a castle, 800 houses, and 10,069 inhabitants. There are also seminaries for the education of Catholics and Protestants ; and the trade in iron and copper articles is considerable. Near to it good wine is produced, and there is an extensive royal manufactory of warlike arms. Long. 19. 4. 25. E. Lat. 48. 45. N. NEUSS, a city, the capital of a circle of the same name, in the Prussian government of Dusseldorf. It stands upon the river Erft, which is navigable to the Rhine. It con¬ tains four churches, 850 houses, and 7200 inhabitants, who are occupied in manufactures of woollen, cotton, and other articles, and carry on considerable traffic by the Rhine with Holland and the interior of Germany. Long. 3. 30. 55. E. Lat. 51. 18. 2. N. NEUSTADT, a city of the government of Opplen, in the Prussian province of Silesia, and the capital of a circle of the same name. It stands on the river Braune, sometimes called the Prudnick, and is surrounded with walls. It con¬ tains one Lutheran and two Catholic churches, a convent of the order of mercy, 446 houses, and 4520 inhabitants, who produce much linen and woollen cloth, and some cot¬ ton goods. Long. 27. 29. 25. E. Lat. 50. 15. 30. N. Neustadt, a city of Bavaria, in the circle of the Upper Danube, and the capital of the bailiwick of the same name. It stands on the Danube, over which there are two bridges. There is an ancient castle, in the great hall of which many venerable curiosities are exhibited. It contains 600 houses, with 4384 inhabitants. It has but little trade, and depends chiefly on the seminaries for education, and the numerous pilgrims who resort to a celebrated image in the church of St Peter. Long. 11. 6. 4. E. Lat. 28. 44. 23. N. Neustadtl, a circle of the Austrian Illyrian government of Laybach, extending over 1530 square miles, containing thirteen cities and towns, and 1835 villages and hamlets, with 29,236 houses, and 160,890 inhabitants, who are, for the most part, of the Wenden or Vandal race, and retain that language, which is a dialect of the Sclavonian. The capital is a city of the same name, situated on the river Gurk; it is fortified, and contains 280 houses, with 2050 inhabitants. Near to it are some warm baths, which are re¬ sorted to by invalids. NEUTER, in Grammar, is a term applied to those nouns which are neither masculine nor feminine. The Latins have three genders; the masculine, the feminine, and the neu¬ ter. In the modern tongues, however, there is no such thing as a neuter noun. Verbs Neuter, by some grammarians called intransi¬ tive verbs, are those which govern nothing, and are neither active nor passive. When the predication expressed by the verb has no object, and the verb alone supplies the whole idea, then the verb is said to be neuter ; as, I sleep, thou yawnest, he sneezes, we walk, ye run, they stand still. Some grammarians divide verbs neuter into those which do not signify any action, but a quality, as albet, it is white; or a situation, as sedet, he sits; or some relation to place, as adest, he is present; or some other state or attribute, T 146 N E V NEW Nevis. Neuter. as regnat, he rules; and those which do signify actions, chenfeld but such only as do not pass into any subject different from the actor, as, to dine, to sup, to play, and the like. . But this latter kind sometimes cease to be neuter, and be¬ come active, especially in Greek and Latin, when a sub¬ ject is given them ; as, vivere vitam, ambulare viam, j)ug- nare pugnam. In like manner, the old French poets say, Soupirer son tourment; and the English, to sigh his woes. This only obtains, however, where something particular is to be expressed, that is not contained in the verb ; as, vi¬ vere vitam heatam, to live a happy life ; pugnare bonam pug¬ nam, to fight a good fight. However, according to the Abbe de Dangeau, verbs neuter may be divided into ac¬ tive and passive; the former being those which form their tenses in English by the auxiliary verb to have, and in French by avoir ; and the latter, those which form them in English with the verb to be, and in French by etre. Thus, to sleep, to sneeze, dormir and eternuer, are neuters active ; to come, and to arrive, venir and arriver, are neuters pas¬ sive. . . , NEUTERCHENFELD, a town of Austria, in the pro¬ vince of the Lower Ens, where there is an establishment for military invalids. It contains 4950 inhabitants, who are employed in various kinds of trade and manufactures. NEUTITSCHEIN, a city of the circle Pererau, in the Austrian province of Moravia. It is a well-built town, with two large suburbs, consisting of villages separated from it bv the river Titch ; but, exclusive of them, the city con¬ tains 622 houses and 5410 inhabitants. It is celebrated for the manufacture of fine cloths. NEUWIED, a city within the Prussian government of Coblentz, on the right bank of the Rhine. It is now the capital of the circle of that name, part of which was a prin¬ cipality, now mediatized, governed by the Prince of Neu- wied, comprehending two towns and twenty-seven com¬ munes, with 10,960 inhabitants. The place is finely situ¬ ated, and has a flourishing population, a great part of whom consists of a Moravian establishment, and of several Me- nonite families. The Moravian house contains between 400 and 500 brethren and sisters, who have an institution for the education of boys, and another for girls, which are attended by considerable numbers from other countries. The whole city has 720 houses, and 4850 inhabitants, who are occupied in various manufactures, and carry on a siderable trade by the river. The prince, author of Tra¬ vels in Brazil, has a fine palace and museum. Long. 7. 23. 15. E. Lat. 50. 25. 30. N. NEVA, a river in Russia, flowing through St Peters¬ burg, the capital of that empire. The views upon the banks exhibit the grandest and most lively scenes. The river is in most places broader than the Thames at London. It is deep, rapid, and transparent as crystal, and its banks are lined upon each side with a continued range of handsome buildings. See Petersburg. NEVERS, an arrondissement of the department of the Nievre, in France, extending over 971 square miles. It is divided into eight cantons and 109 communes. The capital is the city of the same name, situated on the river Loire, where the Never joins that stream. It is beautifully situated on an amphitheatre rising from a bend in the river. The cathedral is a fine ancient building. In 1837 it con¬ tained 15,085 inhabitants. There are many china manu¬ factories, several iron furnaces, some glass-houses, and many makers of linen and woollen cloths, of cutlery and common jewellery, and it has a considerable trade by the navigable rivers. Long. 3. 4. 11. E. Lat. 46. 59. 17. N. NEVIS, or Nievis, one of the West India islands, so called by its discoverer Columbus, after a high mountain of the same name in Spain. It is separated from St Kitt s by a strait about two miles broad, and full of shoals, in latitude 17. 14. north, and longitude 63. 3. west. Nevis is a small but beautiful and fertile spot, consisting of one conical mountain about twenty-four miles in circumference, and containing an area of twenty square miles. That this^v island is of volcanic formation appears evident from a crater^' being visible on the summit; and the prevalence of sulphur in various parts affords additional proof of the fact. It is beautifully green, perfectly cultivated, and a complete forest of ever-green trees grows like a ruff or collar round the neck of the high land, where cultivation ceases. Its natural fer¬ tility is enhanced by an abundant supply of water; and su¬ gar, the staple product, is raised in considerable quantities. Charlestown, the seat of government, lies along the shore of a wide curving bay, and the mountain begins to rise immediately behind it in a long and verdant acclivity. The court-house is a handsome building, with a square in front; it contains a hall on the ground floor for the assem¬ bly and the courts of law, and another room up stairs for the council. The island is divided into five parishes, and it has three tolerable roadsteads. In 1831, the population amounted to 500 whites, 2000 free coloured, and 8722 slaves manumitted by the emancipation act; in all, 11,222. The shipping which entered inwards in 1832 amounted to 14,440 tons. The government is quietly and respectably conducted by its council and assembly, but is in certain respects subordinate to that of St Christophers. The following is a statement of the commerce of this island with the united kingdom. The exports into Great Britain were, in 1834, sugar unrefined, 59,748 cwts., in 1835, 39,637 cwts.; rum, 23,286 gallons in 1834, and in 1835, 39,366 ditto; molasses, 5466 cwts. in 1834, and in 1835, 161 cwts.; arrow-root, 17,768 lbs. in 1835; and dur¬ ing the same year, 1267 lbs. of succades, and 3511 lbs. of cotton. This island was originally settled by an English colony from St Christophers, and, by the wise management of the first government, it soon became very flourishing. It was taken by the French in 1706, but restored at the peace of Utrecht. In the year 1782 it was again taken by the French, but restored at the peace in 1783. NEVYN, or Nefin, a borough-town of the county of Caernarvon and hundred of Dinlaen, in North W ales, 249 miles from London. At this place Edward I. triumphed after his conquest of Wales in 1284. It is a borough, and, conjointly with Caernarvon, Pwllehi, Conway, Bangor, and Cricceth, returns one member to the House of Commons. The population amounted in 1801 to 1028, in 1811 to 1177, in 1821 to 1614, and in 1831 to 1726. NEW ABBEY, situated near Kilcullen Bridge, in the county of Kildare, and province of Leinster, in Ireland. It was founded by Rowland Eustace, a man of ancient fa¬ mily in that county. The tower is still standing, and also some part of the abbey; the ruins of which have contii- buted to build several dwellings near it. NEWARK, a town of the county of Nottingham, in the hundred of its own name, 121 miles from London. It is si¬ tuated in a rich district, watered by the river Trent, over which there is a bridge, and an access to it by a fine road constructed on arches, so as to escape those inundations to which that part of the river is liable. Newark is a well- built town, with a fine market-place and a magnificent town-hall. The church is considered as one of the finest in the kingdom, and its spire is lofty and elegant. It was erected by King Henry V. A strong castle was built here by King Stephen, the walls of which are still to be traced. The town has withstood several sieges, the last of which occurred in the civil wars of the reign of Charles I., when it was taken after a long defence by the forces of the par¬ liament. Newark was incorporated by Charles II. in gra¬ titude for the defence it had made in his father’s cause. It sends two members to parliament. There is a well-supphed market, which is held on Saturday. The population amount- 8e’r 3#: NEW NEW 147 »ek¬ ed in 1801 to 6730, in 1811 to 7236, in 1821 to 8084, and in 1831 to 9557. Newark, a post-town, and the capital of Essex county, New Jersey, one of the United States of North America. It is finely situated on the west side of Passaic River, six or seven miles by the course of the river above its mouth. It is handsomely built, and contains a court-house, a jail, two banks, an academy, and several places of public wor¬ ship. The principal manufactures are those of shoes, lea¬ ther, coaches, fancy chairs, and cabinet work. Morris Canal passes through Newark. In 1820 the population amounted to 6507, and in 1830 to 10,953. NEWBALD CAPE, a projecting point on the northern coast of New Holland, near the entrance into the Gulf of Carpentaria. NEW BEDFORD, a town of Massachusetts. See the article Massachusetts. NEWBERN, a post-town and port of entry in North Carolina, North America. It is very pleasantly situated on the south-wTestern bank of the Neuse, at the junction of the Trent. It contains a court-house and other public buildings, including several places of public worship. Be¬ ing considered healthy, as well as eligibly situated for trade, Newbern enjoys considerable commerce, the exports being principally of grain, pork, lumber, and naval stores. A steam-boat plies between this place and Elizabeth city, and thus connects it with the great routes to the north¬ ward, and to Charlestown. The population in 1820 amount¬ ed to 3363, and in 1830 to 3776. NEWBOROUGH, or Newburgh, a borough-town of North Wales, in the island of Anglesey, and hundred of Menai, 257 miles from London, and twelve from Beau¬ maris. It uas once the residence of the princes of An¬ glesey, and a corporation founded by Edward I. There is a market, which is held on Tuesday. The population amounted in 1801 to 599, in 1811 to 750, in 1821 to 756, and in 1831 to 804. NEW BRUNSWICK, a British province of North Ame¬ rica, situated between the parallels of 45. 5. and 48. 4. 30. north latitude, and the meridians of 63. 47. 30. and 67. 53. longitude west of Greenwich. It is bounded on the north by the Bay of Chaleurs and the river Ristigouche, which separate it from Lower Canada; on the south by the Bay ofFundy and Chignecto inlet, which nearly insulate Nova Scotia, the latter being divided on the land side by a short boundary line; on the east by the Gulf of St Law¬ rence and Northumberland Strait, the latter separating it from Prince Edward Island ; and on the west by the Unit¬ ed States territory, from Mrhich it is separated chiefly by the river St Croix. The whole of New Brunswick con¬ tains an area of 27,704 square miles, or 17,730,560 acres. The greater part of this vast territory is still in a natural state, covered with dense forests and fine extended prai¬ ries, and intersected by numerous rivers and lakes, which afford ample means of inland navigation. Yet, with the ex¬ ception oi a few rocky districts, principally on the coast of the Bay of Fundy, and several not very extensive swampy tracts, the soil of this wilderness is rich and fertile. Its quality here, as elsewhere, may always be determined by the nature of the timber which it produces. Along the countless rivers, there are also innumerable tracts of M’hat is termed here, and in other colonies in this quarter, “ in¬ tervale land; and from its being occasionally overflow¬ ed, and thus enjoying the advantage of alluvial deposits, it is also termed alluvial soil. In several parts of the inte¬ rior, generally along small brooks, there are wild meadow-s, w nch owe their origin to the dams constructed by the eaver; which, by arresting portions of the streams, have caused the water to flow over the flat tracts of land. The aspect of New Brunswick is bold and undulating, sometimes uMv. ing into mountains, and again subsiding into vales and low lands. Its geology is but imperfectly known. Lime- New stone, graywacke, clay-slate, and sandstone, occasionally ®runfiWlclf- interrupted by gneiss, trap, and granite, seem to prevail on the southern coast, the calcareous rock appearing to predominate. Along the shores which face Chaleur Bay and the Gulf of St Lawrence, gray sandstone and clay- slate predominate, with detached rocks of granite, mica, quartz, and ironstone. Specimens of amethyst, carnelian, jasper, and other stones, have been picked up in various places; and marble having fair pretensions to beauty abounds in at least one part of the country. Coal is plen¬ tiful in different localities, and iron ore is abundant. The other minerals found are copper, plumbago, and manganese. Salt springs are numerous, and some sulphureous or he¬ patic springs have lately been discovered. “ As we proceed from the sea-coast up the rivers of this province,” says Mr M‘Gregor, “ the rich fertility of the country claims our admiration. A great flat district may be said to prevail, from the parallel of Long Reach, up the river St John, to the foot of Mars Hill. High hills occasionally rise in ridges in various pjaces, but no part of New Brunswick can be considered as mountainous. The scenery of the rivers, lakes, and cataracts is generally pic¬ turesque and beautiful, and often wild and grandly roman¬ tic.” The principal rivers are, the St John, the St Croix, the Petit Condiac, the Ristigouche, the Miramichi, and the Nipisighit, besides which there are innumerable inferior streams. The St John, called by the Indians Looshtook, or the Long River, is, next to the St Lawrence, the finest river in British America. From its source near the Chau- diere, in Lower Canada, to where it falls into the Bay of Fundy, it has a course of six hundred miles, for about half of which distance it is navigable. It receives innumerable tributaries, and in some parts presents remarkable na¬ tural phenomena, which will afterwards be described, along with the other important streams, when we come to treat of the counties in which they are situated. The wild ani¬ mals in New Brunswick are, bears, mouse-deer, the cariboo fox, loup-cervier, tiger-cat, racoon, porcupine, marten, bea¬ ver, otter, mink, musquash, fisher, hare, weasel, and others. Most of the birds and the fishes common to North America are also plentiful here. The climate may be pronounced very salubrious, and, generally speaking, more healthy than that of England. Consumption and rheumatism are the most prevalent diseases; but agues and intermittent fevers are rare, if not unknown. Sea-fogs frequently envelop the shores of the Bay of Fundy, and render the culture of wheat near the coast uncertain ; but they do not appear to occasion any unhealthy tendencies. The temperature of the southern parts is much milder than that of those which border on the Gulf of St Lawrence, the Bay of Chaleur, and Lower Canada. The following is a meteorological return for Frederickton, the capital, situated in latitude 45. 57. and longitude 66. 45 : Daily average for January, 17 ; for April, 40 ; for August, 69|; for October, 47^ ; for December, 13|. Mean of the whole, 41f. New Brunswick is divided into ten counties, viz. Glou¬ cester, Northumberland, Kent, Westmoreland, St John’s, Charlotte, King’s, Queen’s, Sunbury, and York. The three counties first enumerated were originally comprised in one county, named Northumberland ; and their characteristics are nearly the same. They have a sea-board along the Gulf of St Lawrence, the shore of which is low and sandy, covered with trees of a stunted growth, and skirted with extensive marshes, large and deep morasses, and long sand beaches, formed by the conflicting currents of the gulf and the various rivers which penetrate the shore. The coast line of the magnificent Bay of Chaleur has much the same character as the gulf shore. At its mouth, contiguous to New Brunswick, are the islands of Shippi- gan and Miscou. The former is about twenty miles long; 148 NEW BRUNSWICK. New is low and sandy, and produces bent grass, fir and birch Brunswick. treeS) shrubs, and a great abundance of cranberries, blue- berries, and other wild fruits. The soil is tolerably fertile, and the island is inhabited by Acadian French. Miscou island is about ten miles in circumference ; and here the French once had an extensive fishing station, the remains of their buildings still being seen. The great river of the district just described is the Miramichi, which, from its position on the map, appears to be the great drain of the counties of Northumberland and Kent. It falls into the Gulf of St Lawrence in latitude 47. 10. north, and longi¬ tude 64. 40. west, forming at its estuary a capacious bay, with several islands, and a ship channel for vessels of se¬ ven hundred tons burden, which can navigate for upwards of thirty miles from the sea. The importance attached to Miramichi has arisen within the last twenty-five years, in consequence of the vast quantity of timber exported from it; and this has superseded almost every other pursuit. Upwards of two hundred vessels annually load with tim¬ ber for Great Britain and other countries. Chatham, the principal seaport town of the district, is situated on the south-eastern bank, about twenty-five miles from the Gulf of St Lawrence ; and on the opposite banks are the towns of Douglas and Newcastle. In 1825, this part of the coun¬ try became the scene of perhaps the most dreadful confla¬ gration recorded in the history of the world. The catas¬ trophe was preceded by a fearful hurricane, which, sweep¬ ing through the forest, parched almost to tinder by an un¬ usually hot and long summer, soon wrapped both sides of the river in one tremendous blaze, extending over more than six thousand square miles of country. Several towns, about five hundred human beings, and an inestimable amount of animal life, perished in the flames. Seven miles above Chatham the Miramichi divides into two great branches, and these again are broken into innumerable streams. The sea-coast of this river is low; but inland the country rises in some places, consisting of extensive and rich intervales, and in others, of a rugged, rocky ter¬ ritory. It is as yet but thinly peopled, having scarcely re¬ covered from the desolating effects of the fire in 1825 ; but the establishment of the New Brunswick Company will no doubt gradually facilitate the settlement of this fine por¬ tion of the country. Gloucester county, commencing about thirty miles north of the Miramichi, stretches along the shore round the island of Miscou, up the south side of the Bay of Chaleur, and onward to the sources of the Ristigouche. This river is about two hundred and twenty miles long, and forms at its estuary a large and commodious harbour. For upwards of two hundred miles from its embouchure it is above a mile in breadth; and from thence to within forty miles of its source, it is navigable for barges and canoes. The scenery upon this river is exceedingly grand and impres¬ sive ; much of the territory is rich upland, skirted with large tracts of intervale, and covered with a dense and un- violated growth of mixed wood, in which large groves of pine are very conspicuous. There are several other rivers of considerable size, as the Nipisighit and the Upsalquitch ; but the county, notwithstanding its many natural advan¬ tages, is but thinly sprinkled with inhabitants, except along the shore from Nipisighit to Ristigouche. St Peter’s or Ba¬ thurst, the county town, situated on the eastern side of Ni¬ pisighit, is a flourishing little settlement, provided with a commodious haven, where, for several years past, timber of most excellent quality has been shipped. Kent and West¬ moreland counties present nothing that requires particular mention. They have both an extensive sea-board, several large rivers, and tracts of excellent soil. Two thirds of Westmoreland has a water frontier; and, forming, as it does, the only land communication between Nova Scotia and New Brunswick, it is a rich and valuable district. St John’s county is bounded on the south and south-east New ^ by the Bay of Fundy, on the north and north-west by theBrunswit[ ^ King’s county, on the east by Westmoreland, and on the^-^' west by Charlotte county. The corporate town, or city of St John, is situated on the southern declivity of a pe¬ ninsula, and on the northern side of the entrance from the Bay of Fundy to the river St John, in latitude 45. 20. north, and longitude 66. 3. west. It is not the metropolis, although the largest town in the province, and the empo¬ rium of the greater part of its inland trade. St John’s is a handsome place, but situated on rocky and irregular ground. The government and public buildings, which are numerous and built of stone, if not splendid, are handsome structures. Being an incorporated city, St John’s is go¬ verned by a mayor, aldermen, and commonalty, who have an annual revenue at their disposal for the improvement of the city, which has a population of about 12,000 inhabitants. There is here a good and thriving bank, places of worship for various persuasions of Christians, some literary insti¬ tutions and schools, and the society of the place has lat¬ terly much improved. The harbour is easy oi entrance, capacious, and safe, with a lighthouse on a small island about the centre of the entrance. On the opposite side of the river, and under its municipal government, stands a pretty little town called Carleton. The upper part of St John’s is named Portland, and the whole, including Carleton, is divided into six wards. There are always troops stationed here ; and the barracks are spacious, handsome, and commodious. The country in the vici¬ nity is stubborn, but, when subjected to cultivation, it is fertile. An extensive prairie of about 3000 acres, and oc¬ cupying a space which is by some considered as the ancient bed of the river, lies near the town. The soil is remark¬ ably rich and productive. About a mile above the city, the river St John passes through a fissure of solid and over¬ hanging rock, exhibiting every appearance of having been formed by a convulsion of nature. Through this narrow passage of only 1300 feet the immense volume of water collected during a course of many hundred miles is com¬ pelled to pass, and occasions what are called the falls of St John, which foam and thunder through with tremendous violence. Navigation is thus rendered impracticable, ex¬ cept for four short diurnal periods. But the tide rises to a great height at St John’s, and when the flood rises twelve feet at the fort, sloops and schooners pass in safety for about twenty minutes, and during the same space of time when the tide ebbs to twelve feet. Above the falls the river widens, and forms a bay of some magnitude, surrounded by high and rugged woodland. Passing up the bay, the country assumes a very grand aspect, high calcareous rocks and vast pine forests stretching up the sides of lofty hills and promon¬ tories. Still farther up is Grand Bay, where the same scene¬ ry prevails. From this extensive bay Kennebekacis Bay and River trend away to the eastward for nearly forty miles, twenty of which are navigable for large vessels. By an¬ other curve of the river a beautiful vista, of eighteen miles in length, called the Long Reach, is formed; and still farther up is Belle Isle Bay, a fine sheet of water, which here branches off for upwards of twenty miles to the west¬ ward. The St John then winds to the northward towards Frederickton, receiving the waters of the Washdemoak and Grand Lake from the east, and the Oromucto from the west. No part of America exhibits greater beauty or more luxuriant fertility than the lands upon each side, and the islands here situated. A great proportion of the soil is in¬ tervale or alluvial, and coal is found in great plenty, so that it must ultimately become a very rich and populous country. Beyond Frederickton the river St John winds through a fertile and wooded country, and receives several large rivers in its course. One hundred miles distant from Frederickton is Mars Hill, interesting from the circumstance of its being NEW BRUNSWICK. N the point fixed on by the British commissioners as the com- un ick. mencement of the range of high lands forming the boundary of the United States. The mountain is about three miles in length, with a base of upwards of four miles, and an eleva¬ tion of 2000 feet above the level of the sea. The prospect from the summit is extensive and grand, embracing an un¬ dulating expanse of forest, varying in shade from the fune¬ real green of the fir to the bright verdure of the birch. The next objects of any interest, as we proceed to the source of the St John, are the grand falls, where, for a mile, the river foams and boils through contracting walls of rock and over perpendicular precipices. Farther up there is a strag¬ gling colony of Acadian French at Madawaska, some miles above which the St John receives the waters of the Ma¬ dawaska, which issue from the Lake Tamisquata, a sheet of water about thirty miles in length by two or three miles in width. It is only necessary to state with respect to this rich and fertile part of the country, that it is claimed by the Americans, who do not appear to have the shadow' of a right to it. York county, which is traversed by the river St John, bounded on the north by the river Ristigouche, on the south by Charlotte county, on the east by that of Sun- bury, and on the west by the United States. It is of great extent, but thinly settled, and in several parts little known. It is well watered by various rivers and lakes; and although the soil is in some places rocky, there is a large quantity of intervale or alluvial land, which, at the settlement of Madawaska and some other parts, is well cultivated. This county contains Frederickton, the metro¬ polis of New Brunswick. This town is regularly laid out on the right bank of the river St John, which here forms an angle, enclosing the city on twTo sides; whilst on the land side, in front of it, stx-etches a chain of hills. The streets are disposed rectangularly, some of them being a mile in length, and for the most part composed of wooden houses. The public buildings consist of the province hall, where the provincial assembly and courts of justice con¬ gregate, the court-house, barracks, government-house, lib¬ rary, several churches, and other structures. The trade of Frederickton consists principally in selling British goods to the settlers along the river St John and its streams, and receiving timber and agricultural produce in return. Its situation as a central depot for commerce and military purposes is admirable, and it will doubtless increase ra¬ pidly with the advancing prosperity of the province. The population may be estimated at about 500. The remaining counties of New Brunswick present little requiring special notice. Sunbury county contains some of the most productive tracts in the province, from being annuady overflowed by the St John. These parts of the country exhibit a most luxuriant scene during harvest. Sunbury is computed to contain 40,000 acres of pasturage and tillage ground, and upwards of 20,000 of meadow ground. Contiguous to it, but lying on both sides of the river, is Queen’s county, which is extensively fertile, and yields fine timber, in large quantities, for ship-building. The same remarks apply to King’s county, which em¬ braces the whole of Belle Isle Bay, the Long Reach of St John, and the estuary of the Kennebekacis, including Long Island and Kennebekacis. Charlotte county, oppo¬ site to St John’s, on the other side of the river, contains the well-laid-out town of St Andrews, which has about 5000 inhabitants. This district abounds with spacious, ex¬ cellent, and easily accessible harbours. Connected with it are the islands of Campo Bello, Grand Manau, and Deer Island. Campo Bello, about eight miles in length by two in breadth, is in a high state of cultivation. Grand Manau, near the entrance of the Bay of Fundy, is twenty miles in length by about five in average breadth. A great part of it is cultivated ; the herring fishery is extensively pro- 149 secuted on its shores; and from its situation, command- New ing the entrance to the Bay of Fundy, it is valuable as a Brunswick. defensive position. Deer Island, lying at the entrance ^ of Passamaquoddy Bay, is studded with numerous islets, some of which are richly wooded. This noble bay has the advantage of being free from ice to a greater extent inland than any other harbour north of New York. Agriculture is yet in its infancy, and can scarcely be said to have existed till 1825, about which period agri¬ cultural and emigrant societies were formed; and since then a desire to bring the soil under culture has been gra¬ dually diffusing itself over the province. In the inte¬ rior all kinds of grain and vegetables arrive at full perfec¬ tion, and on alluvial lands yield great returns. Hereto¬ fore it has been necessary to import grain and flour for home consumption ; but this cannot long continue in a country where the necessaries of life may be so readily procured. Of agricultural stock, the number of horses is estimated at 12,000, that of horned cattle at 87,000, hogs 65,000, sheep 105,000, whilst the number of acres of land under cultivation is about half a millioq. The staples of the province are timber and fish. The felled trees are cut up into square timber, deals, spars, and staves, for which purpose an immense number of saw-mills are required. In 1833 the number of establishments for sawing deals in New Brunswick was 228, the estimated quantity of lumber sawed at which during the same year amounted to 103,840,000 feet. The amount of shipping employ¬ ed in the timber trade is necessarily very great; and for this reason the province assumes an importance which it does not seem to possess, considering the number of its inhabitants. In the year 1834 there entered inwards from Great Britain, the colonies, and foreign states, 3102 ves¬ sels, of 304,929 tons burden. In the same year there went outwards 2605 vessels, of 316,214 tons burden. A consi¬ derable whale fishery has commenced, and several large vessels proceed from New Brunswick to the Pacific and Eastern Oceans for seals, sperm, and black whale oil. In 1833 there were employed in the coasting trade 550 vessels of 34,780 tons burden. During the same year there were fishing for bounty thirty-five vessels of 1615 tons burden, and not for bounty twenty-eight vessels of 1048 tons burden. For theyear ending January 1833, the total imports amount¬ ed to L.590,488, and the total exports to L.411,572. The trade of this province consists chiefly in exporting square timber, deals, spars, staves, and a few firs, to Great Bri¬ tain and Ireland, in return for British manufactures; and also in shipping boards, shingles, scantling, and fish to the West Indies, for which rum, sugar, tobacco, and dollars, are brought back. Gypsum and grindstones are shipped on board of American vessels, and flour, meal, bread, and even Indian corn, are received in exchange; a trade which reflects little credit on the industry and enterprise of the New Brunswickers, who possess so much valuable soil ca¬ pable of producing all kinds of grain. The constitution of this province is similar to that of the other North American colonies, except that the lieu¬ tenant-governor’s executive council of twelve have also a legislative capacity, which is not the case in the Canadas. I he house of assembly consists of twenty-eight members, sent by the difl’erent counties. The provincial parliament sits for about two months during the winter at Frederick¬ ton. The laws are administered by a supreme court and minor tribunals. The former has a chief justice and three puisne judges. There are also courts of chancery, vice¬ admiralty, and for granting probates of wills, and for other purposes. The revenue of New Brunswick is chiefly de¬ rived irom duties levied on the importation of goods at the several ports of the province. The grand total revenue of the province in 1832 was L.68,769. The expenditure was about the half of that sum, the surplus being laid out 150 NEW N E W Newburgh, in the construction of roads and bridges, in which the v v ' ' province was greatly deficient, and for the purposes of edu¬ cation. Grammar schools, and those on the Madras sys¬ tem, are established in all the settlements; and a college has been built under the auspices of Sir Howard Douglas, to whom the province is otherwise much indebted. Ihe established church is within the diocese of Nova Scotia, to which persuasion there belong twenty-six churches, each having one clergyman, and the whole being superin¬ tended by an archdeacon. The Presbyterians, Methodists, Baptists, Roman Catholics, and others, have also places of worship. There are eight newspapers published ; and altogether the social aspect of New Brunswick is as pro¬ mising as that of any of our North American colonies. The improvement of the province will be greatly accele¬ rated by the New Brunswick Land Company, which was established in London in 1832. This company purchased from the crown 500,000 acres of fertile inland tenitory, at 2s. 6d. per acre, which is in the course of being disposed of by the board of management established in London. The population of New Brunswick in 1824i amounted to 74,176 ; and it may now (1837) be estimated at 90>0°0- It appears that the legislative assembly has passed a bill for the support of the civil government of the province, in conformity with the terms prescribed by the head of the colonial department in this country; and that the crown has, in consequence, surrendered to the legislature the casual and territorial revenues of the province. The his¬ tory of this province is comprehended in that of Nova oco- tia, to which article the reader is referred, (r. R. R.) NEWBURGH, a royal burgh and parish of Scotland, in the county of Fife, advantageously situated on the south side of the river Tay. The town seems to be coeval w ith the abbey of Lindores, and was early created a buigh of regality under the abbot of that place. In the year 1457 it w'as erected into a royal burgh, and the charter was again renewed by Charles I. in the year 1631. Ihe rovalty extends over 400 acres, of which 178 imperial acres belong to the burgh. The town of Newburgh may be said to have been entirely rebuilt within the last fifty years. It consists of a single street of considerable length, which has been levelled to a gentle slope, the side paths being neatly paved. This street is parallel with the course of the river; and from its centre a by-street leads down to the harbour, which formerly consisted of three continuous piers, projecting into the south deep of the river; but to¬ wards the east two additional piers were lately erected, on which have been built several dwelling-houses, store¬ houses, granaries, and other conveniences lor commerce. A new town-house was erected in 1808 ; and there has re¬ cently been attached to it a building of considerable dimen¬ sions for the accommodation of those engaged in the stock- market. The new parish church was erected in 1833 ; it is in the Gothic style, and is a handsome and elegant struc¬ ture. There is also a meeting-house of the United Asso¬ ciate Synod, which is a plain and commodious edifice. 1 he whole of the buildings are constructed of the greenstone trap found in the parish. The town is lighted with gas. The principal employment of the inhabitants is connected with the linen trade, which is in the hands of thirteen in¬ dividuals, who not only employ all the weavers in New¬ burgh, but furnish work for great numbers in the difierent villages throughout Fife. They also export their goods . directly to the West Indies and South America. There is here a considerable trade in corn ; and Newburgh di¬ vides with Kirkcaldy the exporting of the grain and other agricultural produce from Fife. There are only ten ves¬ sels, from sixty to a hundred and fifty tons burden, that be¬ long to Newburgh, and these are chiefly engaged in the coal trade; but vessels from all quarters land and take in theii cargoes here. Besides, those bound for Perth must often wait for the flowing of the tide, and many of them have to Newb* unload part of their cargoes before proceeding. The river fl “ here is about two miles broad, and ships of 500 tons burden1 ewcai ^ can reach this port. Operations have, however, been com- UjV' menced on an extensive scale to contract the river, as well as to deepen it by dredging. Salmon fishing is carried on to a considerable extent, and affords employment to about sixty of the weavers of the place during the summer months. The fish are shipped for London by one of the Dundee steam¬ ers. The principal objects of interest in the parish are the remains of the celebrated abbey of Lindores, which was founded in the year 1178 ; Mugdrum’s Cross, a little to the westward of the town; and Macduff’s Cross, about one mile to the south. The value of the raw agricultural pro¬ duce of the parish is about L.6000 a year ; and the sum an¬ nually expended in the manufacture of linen in the town amounts to about L.128,500. Ihe debt of the burgh is nearly L.1650. Its yearly revenue is about L.170, and its yearly expenses amount to nearly L.100. The burgh is governed by two magistrates and fifteen councillors, fhe population of the parish and burgh amounted in 1811 to 2118, in 1821 to 2190, and in 1831 to 2642. The parlia¬ mentary burgh voters give their suffrages in the election of a member for the county of Fife. NEWBURY, a market-town of Berkshire, in the hun¬ dred of Faircross, fifty-three miles from London. It is situated in a beautiful valley, through which runs the river Kennet, which being joined by a canal with the Avon, forms a water communication between Bristol and Lon¬ don. The great road to the former city is at the end of this towm. It was famous for its woollen trade in the reign of Henry VIII.; and it is related that Jack of Newbury sent one hundred of his clothiers, armed at his owm ex-^ pense, on the expedition which terminated in the battle ot Flodden. Several of the public buildings and charitable endowments were founded by the same individual. I hat trade by which his wealth was gained has disappeared. The town is well built, the streets are wide, and the build¬ ings handsome. The principal trade is that which arises from the transit of goods on the canals and the river Ken¬ net. It was incorporated by Queen Elizabeth, and is governed by a mayor or high steward, and aldermen, but has never sent members to parliament. Near this town two battles were fought during the civil war between Charles I. and the parliament. There is a large market, which is held on Thursday. The population amounted in 1801 to 4275, in 1811 to 4898, in 1821 to 5347, and in 1831 to 5959. ' r, , , NEWCASTLE, a small market-town of South Wales, in the county of Carmarthen, 216 miles from London. It stands on the river Teifi or Tawy, and is situated in a dreary mountainous district, but has a well-attended mar¬ ket on Monday. The fine castle which stood here is now in ruins. „ . , • Newcastle is also the name of a handsome town in tne county of Limerick and province of Munster, on the high road to Kerry, 145 miles from Dublin. It consists of a large square, where markets and fairs are held, and pos¬ sesses a handsome church, Catholic chapel, market-house, and barracks. Here the knights templars formerly had an establishment, the ruins of the walls and fortifications of which still remain. The population at last census amounted to 2866. j? ct f Newcastle-under-Line, a town of the county ot fetai- ford, in the hundred of Pirehill, 149 miles from London. It is situated on a small branch of the Trent. It had once four churches ; but these, with much of the town, were de¬ stroyed in the civil wars. The chief trade of the town consists in making hats; but as coal is abundantly obtain¬ ed near it, a great quantity of pottery ware is made in tne neighbourhood. It is a corporate town, governed by a Ne N E W istle-mayor, two justices, and twenty-four common council men, ,n* and returns two members to parliament. It has a good mar- ie' ket on Monday. The population amounted in 1801 to 4604<, in 1811 to 6175, in 1821 to 7031, and in 1831 to 8192. Newcastle-upon-Tyne is an extensive and wealthy town in the county of Northumberland, of which it is the metropolis ; but it is also a county of itself. As its name denotes, it is situated on the river Tyne, to which circum¬ stance it is principally indebted for its flourishing condi¬ tion. That river is formed out of two branches, one called the North Tyne, which rises upon the borders of Scotland near Keilder, and, after passing Falstone, Greystead, and Bellingham, receives the wrater of the river Reed, and near Woodburn is joined by the South Tyne, which rises behind Crossfell, on the borders of Cumberland, and pass¬ ing Haltwhistle, forms the united stream at Warden near Hexham. The mass of water then passes Newcastle, and empties itself, after a course of near seventy miles, into the German Ocean, between the towns of North and South Shields, which stand on the banks at the mouth of the river. At the extreme point on the northern bank is the town of Tynemouth, with its haven. This latter place is known to seamen in the day by a castle in ruins on the northern side, and in the night by a revolving light, which is constantly kept burning, and exhibits a face every mi¬ nute. Within the river, near the town of North Shields, there are two lighthouses for the use of vessels passing over the bar. There are three warping buoys within the river, two on the south and one on the north side ; and in addition to these, there is a distinguishing buoy on the north side, where the low light is situated. The tide flows up the Tyne from Shields to a distance of eighteen miles ; and at Newcastle Bridge it generally runs upwards about four hours and a half, and downwards about seven hours and a half. The perpendicular rise at the bar, at Tynemouth is about eighteen feet, and at the bridge from eleven to twelve feet. It is high water on the bar, at the full and change of the moon, at about three o’clock if the weather be settled; but a strong northerly wind will sometimes make it high water an hour sooner, and a strong southerly wind an hour later, than the regular course ; and there will be at times two or three feet more water on the bar with a strong northerly wind than with a strong southerly one. The corporation are making great exertions to improve the navigation of the river, and employ a powerful steam- engine for the purpose of dredging. Due precautions against accidents to shipping have been rendered necessary by the vast number of vessels that pass upand down the Tyne; and an association, formed in 1825, at the Irinity House, has for its object the preservation of lives from shipwreck, and the maintenance of a life-boat at South Shields. The pilots on the river are remarkable for their skill and carefulness, and are under the regula¬ tion of the corporation of the Trinity House, who have an office on the quay. The bridge was founded in very an¬ cient times, and consisted of wood. It was once burnt, and at subsequent periods was more than once carried aw ay by the floods. I he existing bridge was built between the year’s 1/75 and 1799. It was only twenty-one feet wi e, which, as the population and trade increased, was ound very inconvenient; and in 1801 it was enlarged and widened, and is now thirty-three feet six inches in width, it connects the town of Newcastle with its suburb Gates¬ head, which is in the county of Durham. rom the bridge a fine quay extends along the river 500 yards m length. The new corporation have commenced a most important improvement, by lengthening the quay one musan yards eastward, and a still greater extension intended. W hen completed, it will make this the finest quay, for commercial purposes, in Europe. The buildings NEW 151 on the quay consist of shops, warehouses, and taverns; theNewcastle- custom-house stands on the quay, and in lanes leading from upon- it there are a number of extensive warehouses belonging ^ tyne- to private merchants, and also a large bonding tobacco ^ Y ^ warehouse under the care of the custom-house. Newcastle is to be chiefly viewed as a trading town; and as the principal foundation of its trade is the shipping of coals, we shall first take a view of the growth and ex¬ tent of that branch. It is doubtful when coals were first discovered and applied to serve as fuel; but by some an¬ cient documents it seems to be shown that in the year 1280 the revenue of this town arising from the sale of coal amounted to L.200 per annum. In 1306 it must have been introduced in London, as the parliament complained to the king of its infecting the air with noxious vapours, in consequence of which the use of coal was prohibited, and strict orders given to destroy all furnaces and kilns in which it was used. Coals, however, must have again come into use in 1327, as at the coronation of Edward III. a debt appears to have been due for this mineral; and in the same reign orders were issued relating to the measuring of coals, and such as were got in the field of Gateshead were to be taken across the Tyne in boats, and, after paying the custom-duty, to be sent to any port of the kingdom, but to no port out of the kingdom, except to Calais. About the year 1338 the prior of Tynemouth granted colliery leases. In the year 1582 Queen Elizabeth obtained a lease for ninety-nine years of the manors and royalties of Gateshead and Whickham for L.90 per annum, which caused the price of coals in London to rise to nine shillings the chaldron; upon which the lord mayor made application to Lord Bur¬ leigh that the price might be reduced to seven shillings. In 1615 the trade appears to have employed 400 sail of ships, some of which sailed to France, and others to the Netherlands. During the civil wars the trade and the prices of coal fluctuated much, as at one time London was with the parliament and Newcastle with the royal party. In 1675 the shipping of Newcastle was estimated at 80,000 tons. In 1710 the annual average export for the three preceding years had amounted to 178,143 chaldrons, and in 1776 to 260,000. The following account will show the vast but gradual increase since that time. An Account of the quantity of Coals shipped at Newcastle from 1794 to 1836, distinguishing those sent Coastwise and those over Sea. Year. 1794 1800 1805 1810 1815 1820 1825 1826 1827 1828 1829 1830 1831 1832 1833 1834 1835 1836 Coastwise. Chaldrons. 388,724 537,793 552,827 632,299 650,209 756,513 687,029 792,365 683,745 725,082 738,426 817,870 772,686 682,797 699,741 761,306 853,359 858,403 Over Sea. Chaldrons. 39,935 47,487 49,572 17,258 42,834 44,826 51,444 62,620 65,417 59,325 61,653 74,456 60,848 74,467 73,186 85,828 116,803 155,357 The preceding account is given in Newcastle chaldrons, which weigh fifty-three hundred, but the London chaldron 152 NEWCASTLE. Tyne" the duty on coals water-borne has ceased, the account of soda, aquafortis, whitening, g ue, \in B , p ' the quantities shipped has been kept with less correctness, numerous and extensive. It may be observed in this place, that whilst describing the shipping and trade of Newcastle, the transactions of the towns of North and South Shields, and of Tynemouth, are comprehended, as far as regards the official returns, because these returns are taken from the books of the custom-house, which is at Newcastle alone. These towns, which are a portion of the port, contain together nearly 30,000 inhabit¬ ants. The larger ships are, in fact, mostly loaded and dis¬ charged near them, though vessels of 300 or 400 tons bur¬ den may at high water reach the bridge between Newcastle and Gateshead. The whole extent ot the port is such that two thousand sail of vessels may lie in a state of security within its limits. It is very difficult to estimate with accuracy the propor¬ tion which the coals raised in the vicinity of Newcastle, and shipped from its port, bears to the whole quantity raised in the kingdom. We must trust to estimates by no means deserving of implicit confidence, when we state that the trade of digging coals, and of conveying them to the Since the yccir 1816 o. most important business nss arisen in the neighbourhood of Newcastle, namely, the making of crystals of soda and mineral alkali by the decom¬ position of common salt. For such a manufacture, as well as those of glass and iron already noticed, the banks of the Tyne are, it is true, most favourably circumstanced; but the history of its establishment is curious, and affords an instance of the way in which important trades some¬ times owe their origin to little more than individual energy and enterprise. ,,,,,, . , In the year 1794, Lord Dundonald, who had previously directed his attention to various chemical manufactures, represented to IVIr William Losh ot Newcastle, the ad¬ vantage, as he conceived, of a process of his own for making alkali by the decomposition of certain refuse salts; and accordingly a company was formed, consisting of Messrs John and William Losh, and Messis Surtees, bankers, under the firm of William Losh and Company, who begap the trade of making alkali at Bell’s Close, on ; the trade of digging coals, ana or conveyiii| ^ ‘‘~Tvn7 Biree miles above Newcastle. The refuse salts ships, gives in this vicinity n i p^cuS wShate o? potash front makers of oil of vi- that a capital ® SZ amoul to K and sulphate of soda from makers of marine acid, both that the weekly value of that uhich is sold a t be obtained in t lenty. L.60,000; and that the duty paid on it in 1831, when it process „as t0 decompose them CTs Newcasde is a kta’d of metropolis to a considerable by saw-dust, forming alkaline sulphurets which by ixma- It has, however, one branch of most ey™s"? ^ uej “S ; Jeresting to observe how nearly his lordship approached rd“ wlrl“of rtstteSive seamen L trained to success: for if in the first part of his process a little lime UllUtl V/X ~ r up with a skill, activity, and perseverance that is exceed¬ ed by no sailors in the world. The extent of this branch of industry may be seen by the following table. Vessels registered at the Port of Newcastle. Years. Number of Vessels. 1821 1825 1830 1834 1835 1836 822 909 986 1097 1076 1080 Tonnage. 178,047 193,014 203,587 219,640 211,173 213,907 Number of Men and Boys. 8,369 8,752 9,496 10,173 9,806 to success ; for if in the first part of his process a little lime had been used, the decomposition would have been ac¬ complished exactly as it is at present. Lord Dundonald then proposed to decompose muriate of soda by potash, obtaining thus carbonate ot soda and muriate ot potash, both valuable products; and this mode of obtaining soda from common salt was pursued for some time. At the end of little more than a year from the establishment of the works at Bell’s Close, Lord Dundonald, who was not a partner, left the neighbourhood of Newcastle. At this time there was known to exist in a colliery at \\ alker, three miles below Newcastle, a salt spring of very great strength and copiousness, capable, it was said, of furnish¬ ing salt enough to supply the consumption of the whole kingdom; and Lord Dundonald, previously to leaving Bell’s Close, made the important suggestion to William Losh and Company, of endeavouring to obtain from go¬ vernment a grant of salt for the purpose of making alkali, duty free, from this spring at Walker. Accordingly the It has been estimated that this town has belonging to it one sixteenth ^^ rfge Brmsh company succeededT inthe empire. In the year 1836 there were registe U ^ obtaini a nt 0f sait t0 be made from port of Newcastle ninety-one steam-vessels. J at a duty of thirty shillings per ton. The If the amount of duty collected at the custom-house be Jkal^works at Walker were soon afterwards com- the proper scale by which to measure the foreign trade at p , , , establishment at Bell’s Close discontinu- the respective porJs of the kingdom, Newcastle stands the potash as above fifth on the scale annual mtfroned and 2o fo? some time from oxid'e of lead, until, don, Liverpool, Bristol, and Hull. In 1836, about the year 1799, the price of lead became too high o amount was L.275,369. 9s. Tel. admit of its continuance. About this period the works at In Newcastle and its neighbourhood are carried on ya- became the property of Mr John Losh of Wood- rious important manufactures, which are chiefly fosteied Cumberland and were placed under the entire ma- by the abundant supply of coal. Amongst these may be of his brother} William Losh, who soon ah enumerated glass bottles and crown and plate g!ass,j)a- , important alterations, and who may enumerated glass bottles and crown ana plate glass, pa- important alterations, and who may tent shot, and all the preparations of lead, whether for pig considered3 as the father of soda-making on the ments or otherwise. The manufacture of -on is earned justly in this article t0 tl|Ce very on upon the most extensive scale, as is the construct o f telv the history of soda-making, and it may be suft- ^rJiorof^TuiVbX-l-ighTh^'The^’auu. f^^^runStryt'mrSrM^llS NEWCASTLE. 153 i le- now followed universally, which he immediately put into operation at Walker. * 1 This process, for which we are entirely indebted to our intelligent neighbours the French, consists in making oil of vitriol from sulphur, and with the sulphuric acid decom¬ posing muriate of soda, to obtain dry sulphate of soda, which salt is mixed with certain proportions of chalk and coal in powder, and the whole heated in a proper furnace until a sort of incipient fusion takes place, after which the mass is drawn out and suffered to cool, forming an im¬ pure carbonate of soda called ball alkali. This ball alkali be¬ ing lixiviated, boiled down, heated in a furnace to redness, with or without carbonaceous matter, again dissolved, and crystallized, yields the soda of commerce. From 1816 to 1822 alkali-making was carried on only at Walker; but at the latter date Messrs Cookson and Company commenced the manufacture at South Shields, and were speedily fol¬ lowed by other enterprising individuals at various places on the Tyne. At present there are nine soda manufactories on the Tyne, at which upwards of 1000 workmen are employed ; and the quantity of crystallized soda made per week is up¬ wards of 250 tons, besides at least 100 tons of alkali or soda ash, containing from 25 to 45 per cent, of soda, which is sold in an uncrystallized state to bleachers, soap-makers, and others. To produce this quantity of alkali there is burned into sulphuric acid per week 120 tons of sulphur, and the common salt decomposed weekly amounts to nearly 400 tons. The price of crystallized soda was, in the early days of al¬ kali making, 60s. per cwt.; but it is now sold at one fifth of that sum, or 12s. per cwt.; and as society are only be¬ ginning to experience the usefulness of the article for do¬ mestic purposes, and the demand is consequently likely to increase, it is probable that this branch of manufacture on the Tyne has not yet reached its fullest extent. The town is supplied with excellent beer from several breweries, which together make about 30,000 barrels of strong, and about 18,000 barrels of small beer, and use in the fabrication about 19,000 quarters of malt. Paper of various kinds is made, and some of it printed; and there are a great number of coaches and other kinds of carriages built. The spinning of linen and woollen thread employs about 300 persons, but chiefly in the surrounding villages, and the salmon fishery on the Tyne is considerable. From this sketch of the numerous products of industry, the ex¬ port trade may be seen to be extensive in other articles besides coals, cinders, culm, the preponderating commo¬ dities of this important trading town. Ihe imports are various, but the principal articles are corn, wine, spirits, fruits, sugar, tobacco, tea, coffee, but¬ ter, cheese, tallow, hides, oak-bark, rags, flax, hemp, linen yarn, mahogany, deals and other timber, spars, masts, cordage, tar, iron, and what is necessary for the equip¬ ment of shipping. This view of exports and imports ac¬ counts for the number of vessels which have entered this port in successive years from foreign countries. The municipal government of Newcastle has from a very remote period been conducted by an incorporated body originating in royal charters, and composed of a mayor, aldermen, and common councilmen, with various subordinate officers. Having been originally a Roman station, it became under the heptarchy a regal villa, one p !jes^ences °f the Northumbrian kings, styled by e e. Ad murum regia villa illustris. It afterwards ob¬ tained the name of Monkchester ; but soon after the Con¬ quest, on the construction of a new fortress, it acquired £e„naraeT?hich has been continued to the present time, v ilham II. converted the town into a royal borough, conveyed to the burgesses considerable fee-farm rents, and conferred some privileges which were extended by enry . several additional immunities were granted bv VOL. xvi. ° J successive charters, all of which were, in the reign ofNewcastle- Elizabeth, in 1660, condensed and confirmed by what was upon- known then as the great charter; and that, being after- ^ J -vne‘ wards slightly changed in the reign of James I., continued ' till the passing of the existing law in 1835. By that law the town has been divided into seven wards for the pur¬ poses of that act, and has now fourteen aldermen, fortv- two councillors, a mayor, and sheriff, with justices of the peace nominated by the crown. The revenue of the corporation is very large, arising from a tonnage on coals, a duty for depositing ballast, ac¬ tual possession of land and houses, and some other sources, amounting together to L.40,000 per annum. The corpo¬ ration has the superintendence of the river Tyne, which, with the other necessary expenses, and interest on loans, amounts to nearly the same as the income. Besides the corporation, there are many guilds or companies having chartered privileges, and halls for their assembling. There are the Twelve Mysteries, founded between the years 1215 and 1621; the Fifteen By-trades, founded between 1426 and 1626; and the various companies, eight in number, created at different periods, like the others, between the years 1454 and 1675. These companies choose annually sixty-nine stewards, out of which a body of nine is nomi¬ nated, who are called the Herbage Committee, whose duty it is to superintend the improvement and enforce the re¬ gulations respecting the free commons, upon which the burgesses have the privilege of pasturing two cows each, and a free pasturage is thus afforded to 700 fine cows, and also to watch over the interests of the freemen, and of their respective fraternities. They have a revenue of about L.100, derived from ground and dunghill rents, and from other sources. Newcastle is a county of itself, and the courts of assize and nisi prius are held twice a year for each division ; those for the town at the guildhall at the Exchange, and those for the rest of Northumberland in the county courts at the Castle Garth. They are held at the same time. There are also some inferior courts of justice held, such as the mayor’s court, in which only free burgesses or their wi¬ dows are sued, and in which are tried all cases relating to real or personal actions to any amount arising within the town; the sheriff’s court, in which all actions are brought as in the mayor’s court, but with this distinction, that they may be instituted against all other persons than free bur¬ gesses ; the court of conscience to determine all debts or actions not exceeding in amount forty shillings, which ex¬ tends to all persons residing within the liberties of the town ; and the court of guild, the chief business of which now is the admission of persons to their freedom, whether they are entitled to it by birth, or by an apprenticeship dur¬ ing seven years. Besides these, a court of admiralty is occasionally held, the principal duties of which consist in preventing injury from being done to the river or to the salmon fishery. The corporation have lately established a body of police upon the London plan, which has been found very effectual. The population of Newcastle has advanced in nearly the same proportion as that of the other towns of the kingdom. It appears, by the comparative account of the population of Great Britain in the years 1801, 1811, 1821, and 1831, printed by order of the House of Commons, 19th October 1831, that the number of the inhabitants at those periods amounted in 1801 to 28,366, in 1811 to 27,587, in 1821 to 35,181, and in 1831 to 42,760. But each of these ac¬ counts is materially deficient, owing to their exhibiting only the number of inhabitants within the limits of that portion of the town which is within the county of the town of Newcastle, and not giving the numbers of the town of Gateshead, which, though one of the suburbs, is within the county of Durham, nor the population of those parts of the u 154 NEWCASTLE. Newcastle-parishes of the town which are not within the limits of the upon- county. By the enumeration abstract of the population, ordered by the House of Commons to be printed on the 2d April 1833 (vol. i. p. 472), the population is thus shown: Tyne. Parishes. Males. Females. Total. All-Saints 7887 9176 17,063 St Andrews 4984 6452 11,436 St John 3912 4223 8,135 St Nicholas 2877 3249 6,126 42,760 19,660 23,100 To this must be added the inhabitants of Gates¬ head in the county of Durham, which is a sub- urb only divided by the bridge 15,1/7 Besides this must be added that portion of the parish of All-Saints which is in the east division ^ of the ward of Castle 5,6/7 Those portions of St Andrew’s parish which are in the east and west divisions of the ward of Castle 2,424 The portion of St John’s parish which is in the west division of Castle Ward 5,061 Total number of inhabitants in 1831......... . _ 71,099 If the past rate of increase has been maintained since that period, the whole population at the present time must ex¬ ceed 80,000 persons. The public buildings for religious purposes are nume¬ rous. Those of the established church claim the first at¬ tention. Of these, the mother church of St Nicholas is probably the oldest, and certainly the most striking. It was founded in the year 1091, by Osmond, bishop of Sa¬ lisbury, and placed under the jurisdiction of the bishop of Carlisle. The edifice was burned in 1210, and the present structure finished in 1359. The interior of the church is 242 feet, and on entering it by the great western door, the spectator is struck with mingled impressions of delight and solemnity, from the general and noble effect produced by the view. Some considerable improvements in the ar¬ rangement of the pews made in 1783 have adapted it for accommodating a congregation of more than 1200 persons. The organ is a remarkably fine instrument. The frame-work is mahogany, and the two pillars in front are magnificent; the centre is surmounted by the figures of two recumbent angels, and the compartments of the front are embellished with a variety of richly gilt pipes. There are several fine specimens of modern sculpture lately erected on this edi • fice, and these marble monuments have been very costly. A public library is attached to this church, formed by do¬ nations at different periods since the year 1661, but prin¬ cipally by Dr Thorburn. St John’s church is an ancient structure, and supposed to have been built in the latter end of the thirteenth tea- tury; but it has since been enlarged and beautified at dif¬ ferent periods. The great eastern window contains some curious ancient specimens of stained glass. By the erec¬ tion of some new galleries and other arrangements of pews, it has been made capable of seating, including scholai s in the aisles, more than 1400 persons. It has a square steeple with four pinnacles, a clock and six bells, with a large burying-ground adjoining. St Andrew’s church is said to have been built by David king of Scotland, who died in 1153. It still exhibits some specimens of Anglo-Norman architectuie, though many al¬ terations have been made at different periods. Being near the town wall, it suffered much during the siege of 1644, and was long afterwards closed. It has lately been fur¬ nished with a new organ, and the interior so arranged as to accommodate 1300 hearers, besides 200 children. Near to it is the burying-ground, which, by the destruction of some houses in 1824, is laid open to public view, and handsomely Newcast, )'f surrounded by palisades. * ... Tri All-Saints’church is a modern structure, having been ^ erected between the years 1786 and 1796, at an expense ^ ' of L.27,000, raised by an assessment upon the owners of houses in the parish. It has a stately Doric portico at the entrance, from which there rises an elegant spire to the height of 202 feet from the ground. It has a fine set of bells and a clock. It contains a spacious gallery, and the whole seat-room will accommodate near 1200 persons, and 270 children of the charity schools, who have seats in the gallery. This building was erected on the site of an ancient church which existed before the year 1284, but which was considerably larger, and capable of containing 2000 per- sons. St Ann’s church is, properly speaking, a chapel of ease to the parish of All Saints. It was erected in 1768, on the foundation of an ancient building, at the expense of the corporation. It has a large school attached to it, in which boys are instructed in reading, writing, and arith¬ metic, on very cheap terms. The church has seat-room for about 500 persons. St Thomas’ church is a chapel of ease to the parish of St Nicholas. It was begun in 1828, and finished in 1830. It is an elegant structure, built in the style of one of the ear¬ liest examples of ecclesiastical architecture. The church is 135 feet in length and sixty-three feet in breadth, and has a tower 138 feet in height. It can accommodate from 1000 to 1100 persons. In the suburb or town of Gateshead is the church of St Mary, a new steeple to which was built on an old foundation in 1740. Its chief ornament is an ele¬ gant window of stained glass in the southern transept, which was presented to it in 1824. There is seat-room for 800 persons, including that for the charity children. The places of worship for the various classes of dissent¬ ers from the established church are numerous. From the vicinity to Scotland, the adherents of the Presbyterian form of worship are the greatest in number, occupying nine meeting-houses, most of them being of the Scotch kirk, and others secessions from it. The next largest por¬ tion of worshippers are the Wesleyan Methodists of the new and old connection, who have six chapels, one of them the largest place of worship in the town. The In¬ dependents occupy three chapels, the Baptists three, and the following persuasions one each, viz. the Homan Catho¬ lics, the Quakers, the Glassites, the Unitarians, and the Swedenborgians. . To the enterprise of Mr Richard G-rainger the inhabi¬ tants of Newcastle owe the creation of almost a new town, built in a style of architectural beauty not inferior to any in the kingdom. After having built Eldon Square, Blackett Street, and several others of minor importance, Mr Grain¬ ger’s first exertions in an embellished style of architecture were made on a large piece of ground adjoining the Leazes. Upon this he erected a parallelogram, consisting of up¬ wards of fifty houses, all faced with polished stone, and of great elegance of design, and some of them of large di¬ mensions. This undertaking was carried through by him at the same time that a spacious and splendid arcade was constructed in the centre of the town. The next attempt of this individual was more gigantic, and incurred an ex¬ penditure of half a million sterling. There existed in the very centre of the town a large piece of ground, about thirteen acres, which had originally been the gardens of the Grey Friars, and of a convent of Benedictine nuns, but some time ago was the garden of the house of Sir Walter Blackett, Bart., and, latterly, of Major Anderson. I his completely cut off the communication between the oppo¬ site sides of the town, except by circuitous streets, and was partly occupied by stables, cow-sheds, and other nui¬ sances. Mr Grainger conceived the idea of covering this NEWCASTLE. 155 s .tie- extensive piece of ground with houses and markets of ele- : - gant construction. The purchase of the ground was effect- i'* ed, and the work begun, in the summer of 1834; and its completion will probably not require more than twelve months from the present time (1837). This extraordi¬ nary undertaking consists of seven streets, some of them eighty feet broad, and all of stone, and highly embellished ; besides a butcher-market and a vegetable-market, which alone occupy a space of more than two acres, and are en¬ tirely covered in. These markets are unquestionably the most elegant and commodious in the world. The butcher- market consists of four avenues, nineteen feet four inches wide, twenty-seven feet high, and extending in length 338 feet. The vegetable-market is connected with the butcher- market, and consists of one stupendous hall, 318 feet long, fifty-seven feet wide, and upwards of forty feet high. A new theatre of great architectural beauty, a chapel for the Methodists of the new connection, a new dispensary, and a church, are also included in the plan. The number of houses will exceed 300. Such are the outlines of what has been done, and is in the course of completion. At the top of the principal street, named Grey Street, in honour of Earl Grey, workmen are at present (1837) employed in build¬ ing a column, which will be 150 feet high, and surmounted by a statue of Earl Grey. This elegant memorial is from a design by Messrs John and Benjamin Green of New¬ castle, and the statue is by Bailey of London. The cost is defrayed by public subscription. Within the last ten years there has been erected a large and massive building for the jail and house of correction, which cost LAO,000 ; and during last session of parliament an act was passed by which twenty new streets are to be made and altered. Newcastle is quite as well supplied with those institu¬ tions which tend to the acquisition and diffusion of know¬ ledge as any other place of its extent in the kingdom. The Literary and Philosophical Society was founded in 1793. Its objects were the discussion of the several branches of polite literature, and making inquiries into the situation and properties of the mineral productions of the neighbourhood, with the elucidation of the sciences ap¬ plicable to commerce, antiquities, local history, biography, nautical inquiry, and other subjects. A new institution for delivering lectures has been united with it since 1802. A library of more than 12,000 volumes has been collected, and a valuable apparatus purchased for the illustration of chemistry and other branches of physics. The Natural History Society has erected an elegant building, which contains a museum of very great value. The published Transactions of this Society have raised the character of its members to a high rank in that science. In the same building the Newcastle Antiquarian Society hold their meetings. There is also an establishment recently formed, called the Literary, Scientific, and Mechanical Institution, of which young persons may become members, and attend classes appointed for drawing, mathematics, chemistry, and the languages, at a very small expense. This society is also gradually forming a library, and various collections to assist in science and in art. There are likewise several subscription rooms for newspapers, especially a very good one at the Exchange. There is a well-endowed royal free grammar school, in which Greek and Latin were intended to be taught gra¬ tuitously ; but a small fee is now paid by the scholars. It has access to some exhibitions at Lincoln College, Oxford. In several other schools many boys and girls are taught on the Lancasterian and Madras plans, and most of the churches and chapels have schools connected with them. I he institutions for benevolent purposes are numerous, of which the most prominent are Jesus’ Hospital, which provides for forty old persons ; Blacket and Davison’s Hos¬ pital, for six poor widows of clergymen or merchants; Newcastle- Westgate Hospital, for aged freemen and widows ; the l‘J)on" Keelman’s Hospital, formed by that class of persons for the ^ ne relief of their destitute, and chiefly maintained by a duty Newel, of one farthing per chaldron on all coals exported from the river Tyne ; and the hospitals of St Mary Magdalen and of the Virgin Mary. The establishments for administering relief to the dis¬ eased or infirm poor are, the Infirmary, to which is now' an¬ nexed a Lock Hospital, and which extends relief to the sick and lame poor of the counties of Newcastle, Durham, and Northumberland, the average annual .number of in-pa¬ tients being 800, and of out-patients 700 ; the Dispensary, founded in 1777, supported by voluntary contributions, the object being the administration of medical and surgi¬ cal aid to all diseased applicants, and the promotion of vaccine inoculation; the House of Recovery, for the re¬ ception of persons afflicted with febrile diseases ; the Lu¬ natic Asylum, for thirty-eight males and the same number of females; the Lying-in-Hospital, for poor pregnant wo¬ men ; the Eye Infirmary; and St Luke’s Hospital. The markets are well supplied with provisions of all kinds, which are sold at very cheap rates; and the mar¬ ket for corn is one of the largest in the north of England. Water is abundantly supplied by the Water Company, from resources and reservoirs in Gateshead. There are no less than twelve public fountains, here called ■pants, in dif¬ ferent parts of the town. These are ready to furnish wa¬ ter for the fire-engines, which are under good regulation. There are companies for insurance against fire, as well as for ship and life risks. The town is well watched, and lighted for the most part with gas. The places of amusement are not numerous ; the most prominent being the theatre denominated royal. The for¬ mer house was opened in 1788, and was pulled down in 1836 to make way for the building of Grey Street. The new theatre, which is a structure of great beauty, was opened in February 1837. The assembly-rooms, built in 1766, are commodiously planned, having a ball-room ninety four feet by thirty-six, with a music gallery ; adjoining are card- rooms, a room for private assemblies, and on the lower story is a supper-room, in which 460 individuals have been accommodated at the same time. There is a music-hall appropriately fitted up, with the requisite auxiliary apart¬ ments. The Northern Academy of Arts is solely appro¬ priated for the public exhibition of pictures, and for the purposes of a diorama. The first exhibition of paintings in Newcastle was opened in September 1822. The communication between Newcastle and the western coast will be greatly facilitated by the Newcastle and Car¬ lisle Railroad, which it is expected will be completed in 1838, and, with the Brandling Junction Railroad, will con¬ nect the towns of South Shields, Monk-Wearmouth, Bishop- Wearmouth, and Sunderland, and increase the trade very considerably. The Newcastle and Carlisle Railroad, in its present unfinished state (thirteen miles in the centre not being completed), yields a revenue of L.50,000 a year; and, when completed, it is estimated to produce an an¬ nual income of L.100,000. The length of this railway, in¬ cluding the Brandling Junction, will be sixty-five miles from sea to sea. NEWEL, a circle of the Russian province Witepsk, ex¬ tending in north latitude from 55. 45. to 56. 20., and in east longitude from 28. 54. to 30. 21. It contains four towns, and 1872 hamlets or farms, in eighteen Greek and twelve united parishes, having a population of 69,430 in¬ habitants. The capital is a town of the same name, 388 miles from St Petersburg, on the lake Newelskoi, at the mouth of the river Emerka. It contains three churches, 434 houses, and 2860 inhabitants. Long. 29. 30. E. Lat. 55. 58. N. 156 NEW NEW New NEW ENGLAND, the name of the northern states of England, North American union, namely, Maine, Vermont, New J Hampshire, Massachusetts, Rhode Island, and Connecticut. The physical characteristics, and the social and commercial relations, of these states, will be found described each under its individual head. But the history of the several states has not yet been given, because, since an account of one state in¬ volves to a considerable extent that of another, it was con¬ sidered as most judicious to give a narration of the whole transactions which have taken place in this part of the American union under one head. In 1606, the portion of North America lying between the thirty-fourth and forty- fifth degrees of latitude was divided into two parts, called North and South Virginia, and granted to two companies. The London Company were allowed to make settlements anywhere between 34° and 41°, and the Plymouth Com¬ pany received the same privilege in regard to the country between 38° and 45°. Previously to the survey of the coasts by Captain Smith, in 1614, the country went by the name of North Virginia ; but in 1660 Prince Charles changed it to that which it now bears, at the same time granting a patent to the Plymouth Company, comprehend¬ ing that part of the country which lies between 40° and 48° from north to south, and extending throughout the mainland from sea to sea. The name of New England has, ever since the landing of the first settlers at Plymouth, Massachusetts, in December 1620, continued to desig¬ nate the country lying east of New York ; and although it has never, properly speaking, formed a political whole, it possessed from the first, and still possesses, certain cha¬ racteristics which distinguish it from the rest of the Union. Most of the colonies planted in New England were found¬ ed on the same principles of government, by men closely associated with each other from similarity of political and religious views. Before landing, they signed a solemn co¬ venant, forming themselves into a body politic for the pur¬ pose of making laws for the general good. The govern¬ ments which were erected in these colonies were charter¬ ed governments, the ownership and administration of af¬ fairs being vested in the colonists, whilst the governments of the other colonies were royal or proprietary, civil au¬ thority and property being vested, the one in the crown, and the other in the colonists. The New England settlers were republicans before their arrival in North America, and being afterwards joined by those who fled thither as to a city of refuge during the civil commotions in the mother country, and also after the Restoration, the body became very numerous, and they may be said to have adhered to their principles ever since. The early and general pro¬ vision for common education in New England was another peculiarity of that part of the country. Laws were soon passed commanding the establishment of schools in every town, and these enactments laid the foundation of the New England system of free schools. The organization of the church government is entirely democratical, and the mu¬ nicipal system is in many respects peculiar. In consequence of the representations made by Martin Pring, an English navigator, who explored part of the shore of New England in 1603 and 1606, a settlement was attempted to be formed at the mouth of the Kenne¬ bec, in the state of Maine. But accidental circumstances frustrated this design, and it was not until 1622, when Sir Ferdinando Georges, conjointly with one Mason, ob¬ tained a grant of the territory lying between the rivers Merrimac and Kennebec, that such measures were taken as secured a permanent settlement in this part of the country, which commenced the year following at the mouth of the Pascataqua. Several patents of inferior extent were subsequently issued, one of which conveyed the Pemaquid tract of country, now Bristol, which is re¬ garded as the oldest permanent settlement in Maine. In 1635 the council conveyed to Georges a separate title to the portion of the former grant east of the Pascataqua, having previously confirmed in the possession of the west¬ ern part Mason, from whom it received the name of New Hampshire. Georges obtained for himself, by royal char¬ ter, the powers of lord palatine, as exercised by the Bishop of Durham ; appointed a board of counsellors ; and in 1640 assembled a court, at which the inhabitants of the several plantations appeared, and renewed their oath of allegiance to the lord proprietor. Sir Ferdinando, who was a royalist, had his share of the disasters with which the adherents of Charles I. were overwhelmed ; and dying in 1645, he left his estate to his son John Georges. During the civil com¬ motions which confounded alike titles and property, one Colonel Rigby laid claim to forty square miles of the best part of Georges’ inheritance, which claim was recognised in 1646 ; and the small remaining portion of Maine, having elected a governor, petitioned parliament in 1650 to consti¬ tute them a distinct jurisdiction, “ a part of the common¬ wealth of England,” but without success. Their apprehen¬ sions of falling into the hands of the Puritans were soon realized. In the year 1652, nearly the whole of Maine was claimed by the colony of Massachusetts Bay, under the pretext that it was embraced in their charter; and they suc¬ ceeded for a time in exercising supreme control over it. In 1665, after the restoration of Charles II., commissioners were appointed to visit Maine, w’ho declared the province to be under the protection and government of the king, and nominated a magistracy. No sooner had they quitted the country, however, than the authorities of Massachu¬ setts resumed their sway, and the inhabitants were com¬ pelled to yield an unwilling submission. But Georges, the legal proprietor, at length succeeded in obtaining a resti¬ tution of his title, and the authorities of Massachusetts Bay were summoned to appear at Whitehall. Determined to retain possfession of the cpuntry, they instructed their agents to make a purchase of it should the decision go against them, which happening to be the case, Georges disposed of his title to the province for L.1250. This trans¬ action took place in 1677—78. Immediately after purchas¬ ing Maine, the council of Massachusetts proceeded to or¬ ganize a provincial jurisdiction, constituting it a county under the name of York; an arrangement which lasted, without any change, till 1760, when the counties of Cum¬ berland and Lincoln were incorporated, and the county of York was reduced to nearly its present limits. After the independence of the colonies was established, Maine was styled a district, although its connection with Massachu¬ setts remained the same until it was erected into an inde¬ pendent state in the year 1820. See the article Maine. Plymouth, the next colony, was founded by a body of Puritans, who had removed from England to avoid religious persecution, and landed at a place in the new world, to which, in 1620, they gave the name of Plymouth. They entered into a voluntary compact, by which they bound themselves to observe certain laws and ordinances which should be framed and issued to promote the general good of the colony. This is the earliest American constitution, and is dated the 11th of November 1620, and signed by forty-one persons. The government was administered by a governor, chosen annually by the people, and by seven per¬ sons called assistants, elected in the same way. It was at first a pure democracy, but in the year 1639 a house of re¬ presentatives was established. The political affairs of this colony are closely interwoven with those of Massachusetts, with which it was incorporated in 1772. ’ The colony of Massachusetts Bay, which has acted so conspicuous a part in the affairs of New England, origi¬ nated in a number of individuals having, in 1628, obtain¬ ed from the Plymouth Company a grant of that part of New England lying three miles south of Charles River, s—v “Y NEW NEW 157 and the same distance north of the Merrimac, and extend- I - Jng from the Atlantic to the South Sea. In the following year they obtained from Charles I. powers as the company of Massachusetts Bay, being authorized to elect a gover¬ nor and eighteen assistants annually, to hold courts, and to make laws and regulations for the colony. Settle¬ ments were immediately formed at Salem, Charleston, Bos¬ ton, and other places, and the settlers soon obtained per¬ mission to transfer the charter and government to New England, thus rendering that the constitution of a state which was merely designed to constitute the organization of a company. In 1634 the people claimed a participation in the government, and declared that the general court (the name which the two houses of legislature in Massachu¬ setts still bear) alone had power to frame laws, levy taxes, and fill up offices. This, therefore, became a fundamental part of the constitution ; but disputes arising between the assistants and the deputies of the people, who met in the same room, it was determined, in 1644, that the legisla¬ ture should consist of two separate bodies, each having a negative on the other. No judicial authority was given by the charter, but the power was in fact assumed and acted upon. Courts of justice were created, and in crimi¬ nal cases the Mosaic law was mainly followed. Connecticut was an offshoot from Massachusetts, and at first was governed by magistrates empowered by the le¬ gislature of the parent colony. But in 1639 they framed a constitution for themselves, the substance of which was contained in the charter granted by Charles II. in 1662, and continued, without any material alteration, to be the fundamental law of the state until 1818. New Haven, which was settled in 1637 by a body of Puritans, conti¬ nued to exercise powers of government as a separate body until 1662, when the colony was by charter included in Connecticut. In the year 1634, a minister of the name of Williams having been banished from Massachusetts on account of his religious creed, settled at Providence, whither he was fol¬ lowed by a few adherents. Four years afterwards, a lady, banished from the same place for the same reason, pur¬ chased Rhode Island from the Indians; and thus two new communities, with distinct governments, were formed. In 1643, commissioners of plantations had been created.; and from these a charter of incorporation was obtained for the I inhabitants of the towns of Newport, Portsmouth, and Pro¬ vidence, under the designation of the Providence Planta¬ tions, with full powers to adopt a form of government, and to rule themselves. In the same year in which the com¬ mission was appointed, the colonies of Massachusetts, New Plymouth, Connecticut, and New Haven, formed a confe¬ deracy, under the title of the United Colonies of New Eng¬ land, which lasted about forty years, when James II. de¬ prived them of their charters. This confederation was exactly the future union of states in miniature. According to the articles of the confederacy, the colonies bound them¬ selves by a perpetual league of friendship and amity for offence and defence, whilst individually they managed their own affairs. Two commissioners of each of the confede¬ rates formed a board for transacting the affairs of the confe¬ deracy generally. This was just congress in embryo. Dur¬ ing the ascendency of Cromwell the New England colonies were highly favoured ; but the restoration of royalty sub- them to suspicion, and, as we have seen, to scrutiny. In the year 1664, royal commissioners were appointed to visit them, and hear and decide all their complaints, and appeals, civil, criminal, and military, thus bringing the whole under the immediate superintendence of the crown. ut, as Lord Clarendon expressed it, the colonies were al¬ ready hardened into republics, and the commissioners found it impossible to execute their powers. Arbitrary measures were resorted to, to bring the refractory provinces under proper control, but without effect; so that, by the year Newent 1687, it had been declared that they had forfeited their >TII charters and their liberties, which were accordingly seized by the crown. Sir Edmund Andros, the governor, put him- ^ self at the head of a body of troops, and advanced to Con¬ necticut for the purpose of seizing the charter. The as¬ sembly was convened, and the charter was conveyed to the room, where they met to confer with Andros. The conference was prolonged till night, when the people with¬ out made a rush into the room, extinguished the lights, and secreted the charter in an oak, which is still shown at Hartford. In many places the inhabitants refused to pay taxes, and a rumour having been circulated that the Prince of Orange had landed in England, the people of Boston rushed to arms, seized the governor, and the captain of a frigate which lay in the harbour, compelled the castle to surrender, and thus effected a complete revolution. Sub¬ sequently to these events, Connecticut and Rhode Island resumed their former charters; but, in 1672, a new one was granted to Massachusetts, by which the appointment of the governor was vested in the crown. It is superfluous to narrate the wars with the Indian tribes in which these colonies were involved, or those in which Britain finally annihilated the power of France in America. An account of these belongs more to the general history of the United States than to the present sketch. Vermont, the only New England state which remains to be mentioned, took no lead in these transactions; and any event of importance in which it was concerned will be found related in the article New York. (r. r. r.) NEWENT, a market-town of the county of Gloucester, in the hundred of Botloe, 108 miles from London. It is a small town, and what little trade it enjoys arises from its market on Friday, and from the canal from Gloucester to Ledbury, which passes near to it. The inhabitants amount¬ ed in 1801 to 2354, in 1811 to 2538, in 1821 to 2660, and in 1831 to 2859. NEW FOREST of Hampshire, in England, is a tract of at least forty miles in compass, which had many populous town and villages, and thirty-six mother churches, until it was destroyed and turned into a forest by William the Conqueror. As this large tract lay many ages exposed to invasions from foreigners, Henry VIII. built some castles in it. It is situated in that part of Hampshire which is bounded on the east by Southampton River, and on the south by the British Channel. It possesses advantages of situation, vrith respect to the convenience of water car¬ riage and nearness to the dock-yards, superior to every other forest, having in its neighbourhood several ports and places of shelter for shipping timber, amongst which Ly- mington is at the distance of only two miles, Bewley about half a mile, and Redbridge three or four miles from the forest; and the navigation to Portsmouth, the most considerable dock-yard in the kingdom, is only about thirty miles from the nearest of these places. This is the only forest belonging to the crown of which the origin is known. Doomsday-book contains the most distinct account of its afforestation by William the Conqueror, The contents of every field, farm, or estate, afforested, in hides, caru- cates, or virgates, by which the extent of land was then computed, together with the names of the hundreds and villages, and of the former proprietors, which are for the most part Saxon; the rent or yearly value of each posses¬ sion, and the tax which had been paid for it to the crown during the reign of Edward the Confessor, before the in¬ habitants were expelled, and that part of the country laid waste; are all to be found in that curious and venerable record. Wishing to discover the original extent of the forest, we had extracted all that relates to it in that ancient survey ; but the extract is far too voluminous for insertion. The names of many of the places having since that time 158 NEW Newfound-been changed, it is difficult to ascertain with precision land. what were then the limits of the forest. The oldest per- ambulation we have met with is amongst the Pleas of the Forest, in the eighth year of Edward I. preserved in the chapter-house at Westminster. The boundaries there de¬ scribed include all the country from Southampton River on the east to the Avon on the west, following the sea- coast as far as the southern boundary between these rivers, and extending northwards as far as North Chadeford, or North Charford, on the west, and to Wade and Ower- bridge on the east; and the greater part, if not the whole, of that extensive district, is mentioned in Doomsday-book as the forest belonging to the crown. Another perambu¬ lation was however made in the twenty-ninth of the same king, and leaves out a great part ol the country contained in the former. This perambulation, which is preserved in the Tower of London, confines the forest to limits which, as far as can be traced, appear to have been followed in the twenty-second year of Charles II. when the forest was again perambulated. By the Chavta de Fovastn, all lands not belonging to the crown which had been afforested by Henry II. Richard I. or King John, were to be disafforest¬ ed ; but as no provision was made for the reduction of the more ancient afforestations, it is easy to account for the great diminution of this forest in the reign of Edward I. who was not a prince likely to submit to any encroachment on his rights. The perambulation of the twenty-second of Charles II. is the last which is found upon record, and contains the actual legal bounds of the forest. According to the perambulation last mentioned, and the plan founded thereon, the forest extends from Godshill on the north-west to the sea on the south-east, about twenty miles, and from Hardley on the east to Ringwood on the west, about fifteen miles, and contains within those limits about 92,365 acres statute measure. The whole of that quantity, however, was not forest land, nor is it now the property of the crown. There are several manors and other considerable freehold estates within the perambulation, belonging to individuals, to the amount of about 24,797 acres ; about 625 acres are copyhold or customary lands belonging to his majesty’s manor of Lyndhurst; about 1004 acres are lease-hold un¬ der the crown, granted for certain terms of years, and form¬ ing part of the demised land revenue, under the manage¬ ment of the surveyor-general of crown lands; about 901 acres are purprestures or encroachments on the forest; about 1193 acres more are enclosed lands held by the master-keepers and groom-keepers, with their respective lodges ; and the remainder, being about 63,845 acres, con¬ sists of woods and waste lands of the forest. To perpetuate the spot where William Rufus was killed by the glance of an arrow shot at a stag, a triangular stone was erected in 1745. NEWFOUNDLAND, an island in the North Atlantic Ocean, lying on the north-eastern side of the Gulf of St Lawrence, between the parallels of 46. 40. and 51. 31. north latitude, and the meridians of 52. 44. and 59. 31. longitude west of Greenwich. It is separated on the north¬ west from Canada by the Gulf of St Lawrence; on the north and north-east it is divided from the coast of La¬ brador by the strait of Belleisle, which is about fifty miles lono- by twelve broad; on the south-west it approaches Cape Breton, so as to form the main entrance from the Atlantic Ocean into the gulf; and along the whole of its eastern side extends the Atlantic Ocean. Its form is somewhat triangular, but without any approach to regu¬ larity, being on all sides, at very short intervals, indented by broad and deeps bays, creeks, harbours, caves, and es¬ tuaries. In this respect its shores resemble those of Nova Scotia, and the serrated appearance which they have on maps is attributable to the same cause. A vast and unin¬ terrupted body of water impelled by the trade-wind from NEW the coast of Africa to the American continent strikes this Newify part of it with tremendous violence, and working away the land; softer strata, forms those numerous arms and inlets of the^^vr sea which we have mentioned. The same powerful agent, combined with the influence of the Atlantic Ocean, has produced the same effect upon other parts of the coast be¬ sides those exposed to its first attack. The coast outline, the only part of Newfoundland which has been satisfac¬ torily explored, is rock, girt all round with abrupt fissures, and having some lofty headlands on the south-west side. Its width, at the broadest part, between Cape Ray and Cape Bonavista, is about 300 miles ; its extreme length, measured on a curve from Cape Race to Griquet Bay, is about 419 miles ; and, exclusively of the bendings and in¬ ferior inflections of the coast, its circumference may be es¬ timated at about 1000 miles, the whole comprehending an area of 36,000 square miles. This vast island reposes upon an immense bank, a suc¬ cession of which has been observed all the way to Nova Scotia. It is apparently a mass of solid rock, having a very wild and rugged appearance from the sea, and being any thing but inviting. On its south-eastern quarter New¬ foundland is formed into a peninsula of twenty-six leagues in length by from five to twenty leagues in breadth, the isthmus which unites it with the main land being not more than four miles in breadth. This peninsula is called Ava¬ lon. To the north of it, and on the eastern side of the island, lies Trinity Bay, which is separated from that of Bonavista by a narrow neck of land, the point of which is Cape Bonavista. A long neck of land also divides Trinity Bay from Conception Bay on the northern side ot Avalon. This bay ranks as the first district in Newfoundland, as well on account of the spirit and enterprise of the inhabitants who people its shores, as from its natural advantages of large harbours, coves, and the like. The scenery on this part of the coast is majestic, wild, and calculated to strike the beholder with awe. On the eastern side of Concep¬ tion Bay are several islands, one of which is Bell Isle, so called from the shape of a remarkable rock close to its western side. This island is about six miles in length, and extremely fertile. Seven leagues distant from Cape St Francis, the eastern boundary of Conception, are the bay and harbour of St John’s, the capital ot Newfound¬ land. A succession of bays indent the coast all round the peninsula of Avalon, the principal of which are, Trepas- sey Bay, which has a large secure harbour and excellent anchorage, with a considerable fishery carried on in the coves and creeks ; and Placentia Bay, which is about sixty miles deep and forty-five broad, lying between Cape St Mary and Cape Rouge, which are fifteen leagues apart. It is very spacious, with several rugged islands near its head. The port and town of Placentia lie on the eastern side, as well as the chief harbour, which, although it can only be en¬ tered by one vessel at a time, affords anchorage for one hundred and fifty. Placentia Bay contains several other harbours. It is separated from Fortune Bay by one of those long and narrow necks of land which are so common in the island. Fortune Bay is from sixty to seventy miles deep, and from twenty to thirty miles broad, receiving many rivers from the island lakes, and containing numerous har¬ bours, the principal of which is Fortune Harbour on the eastern side. St Pierre and Miquelon Islets are situated at the mouth of Fortune Bay. They were ceded to France in the year 1814, and the former contains a harbour which is the rendezvous of the French shipping, and the residence of the governor. From this point, all along the south side of Newfoundland to Cape Ray, which forms the north¬ east entrance of the Gulf of St Lawrence, there are nume¬ rous bays, but none of sufficient size or importance to re¬ quire particular description. On the western side, formed by Cape Anguille and Cape St George, is the Bay ot St NEWFOU nd- George, a large and deep inlet of the sea, into which se¬ veral rivers emerging from lakes in the interior empty themselves. Further to the north is the Bay of Islands, formed by three arms, through which several rivers dis¬ charge their waters. One of these, called the Humber, is the most considerable yet discovered, its course having been traced for one hundred and fourteen miles to the north-westward, where it issues from a cape of ten leagues in length. As its name would indicate, this bay contains a number of islands, but none of any particular consequence. The next large indentation of the sea on the western side of Newfoundland is Bonne Bay, which has also rivers com¬ municating with the lakes inland to Point Rich. The next bay is called Ingornachoix Bay, which contains two har¬ bours ; and to the north of it is St John’s Bay, which re¬ ceives the waters of Castor’s River. Along the straits of Belleisle, which separate Newfoundland from the coast of Labrador, are a few inconsiderable inlets ; but beyond Cape Norman, the north-west point of the island, is a large bay called Pistolet Bay, bounded by Cape Barut. On the northern extremity of Newfoundland are Griquet Bay and Hare Bay, a deep gulf, the bottom of which intersects the island for two thirds of its breadth at this point, branching off into innumerable bays and coves, sheltered by lofty hills. From this haven to White Bay, a very large inlet of the sea, on the eastern side of the island, and thence to Cape St John, the coast is indented at short distances by commodious and much-frequented harbours. The Bay of Notre Dame and the Bay of Exploits are of great extent, and contain a vast number of islands, together with a thriv¬ ing settlement called Twilingate. The river Exploits is about seventy miles long, but its navigation is obstructed by rapids, some of which have a velocity of nearly ten miles an hour. This river connects the Red Indian Lake, a large sheet of water in the interior, with the Atlantic. Gander Bay is much of the same description ; and all have import¬ ant salmon fisheries. From Cape St John to Cape Freels the coast is a continuation of ledges, shallows, islands, and rocks, but affords excellent fishing grounds. Bonavista Bay contains several islands, and is itself indented by a number of small inlets and harbours. To the south of it is Catalina Bay, containing Ragged Harbour, which con¬ cludes the circuit of the island. After the exterior aspect of Newfoundland has been de¬ scribed, the interior comes naturally to be noticed. But this has been very imperfectly explored, and therefore is but little known. In 1823, a Mr M‘Cormack succeeded in traversing its breadth from Conception Bay on the east to St George’s Bay on the west; and from his account it appears, that this portion of it at least is much intersected with lakes and rivers, but poorly wooded, and of a rocky and barren soil. In this respect the island differs greatly from the other North American colonies, producing little tim¬ ber but what is dwarf and stunted, except on the margins of bays and rivers, where spruce, birch, and poplar some¬ times grow to a considerable size. Several high hills, sup¬ posed to be situated near the centre of the island, can be discerned from the sea ; but the inland country is repre¬ sented as generally level, so that lakes, rocks, marshes, and extensive alluvial savannahs or plains, with occasional ele¬ vations, constitute its characteristic features. The geolo- gy of Newfoundland is nearly the same as that of the coast of Labrador. The island, it appears, abounds with mine¬ rals of various sorts. Coal and lime have been wrought in more than one part with some success; and there is lit- t e doubt as to the existence of copper, iron, and other mines, but it is not likely that they are very productive. iere are excellent gypsum quarries near Cape Ray, and ieie is also a quantity of the mineral called marcasite, NDLAND. 159 copperas stone, and horse gold, which the early discoverers Newfound- mistook for the genuine metal. With regard to the pro- land, ductions of the island, Mr Bouchette observes r1 “ At the heads of the bays, and along the rivfers, there are many tracts of land formed of deposits washed from the hills ; the soil of which tracts is of much the same quality as that of the savannahs in the interior of America. These lands might be converted into excellent meadows, and if drained to carry oft' the water which covers them after the snows dissolve, they would yield excellent barley and oats. The rich pasturage which the island affords adapts it in an eminent degree to the breeding and raising of cattle and sheep, insomuch as to authorize the belief that it might produce a sufficient quantity of beef to supply its fisheries. Firs of various sorts, poplars, birches, and a few maple trees, are found in Newfoundland, with a variety of shrubs. Most of the English common fruits arrive at perfection, and various grasses grow spontaneously in all the plains. The wild animals are nearly the same as those of Prince Edward Island, and indeed of our other American colo¬ nies. The Newfoundland dog is an animal whose pecu¬ liarities and virtues are too well known to need any detail in this place ; it is, however, generally considered that the true original breed exists now only on the coast of La¬ brador. “ The climate is severe, and the winter long ; but it has generally been represented more unfavourable than strict truth will warrant. The excess of humidity and constant visitation of dense fogs, which have been commonly ascrib¬ ed to these coasts, is by no means a continual visitation. The sea-winds often bring a considerable quantity of vapour to the southern and eastern coasts ; but it is only when the wind blows from the sea that this inconvenience is felt. The range of the thermometer is nearly the same as in Ca¬ nada, but as the length of the island extends over nearly five degrees of latitude, it will of course vary. The har¬ bours on the Atlantic shore are generally freed from their icy bonds earlier than any other within the Gulf of St Law¬ rence, and the western shore is seldom visited by fogs. The heat of the summer is sometimes oppressive in the day-time, but the mornings and evenings, as in almost all insular situations, are temperate and agreeable. The breaking up of the winter, when the vast shoals of ice formed in the northern regions are driven along the coast by the winds, is the most disagreeable time of the year. The inhabitants, however, maintain excellent health, and, notwithstanding the exposure and hardships of a fisher¬ man’s life, frequently attain a remarkable longevity.” The most remarkable feature connected with Newfound¬ land is the fogs above alluded to. Those of the Gulf of St Lawrence are attributed to the coldness of the gulf-wa¬ ters, which is supposed to be permanent a few feet below the surface, as well as at great depths. This cold water is brought to the surface by winds, and, reducing the tempe¬ rature of the air below the dew point, forms vapour. The fogs on the banks of Newfoundland are also, in all likeli¬ hood, caused by cold currents of water being brought to the surface. On the great bank the surface of the water is many degrees colder than it is in the neighbouring sea, and much less than that of the gulf-stream, which is with¬ in a short distance of it. I he most valuable vegetable productions of the island are potatoes and cabbages ; and next to these turnips, car¬ rots, parsnips, pease, radishes, and most garden roots, yield the most abundant crops. Besides the great staple of the island, fish, the numerous large and small sheets of water abound in divers kinds of excellent trout and eels of a great size, and lobsters, lance, herrings, mackerel, salmon, are in great abundance ; plaice, sole, hallibut, and thornback, are * Couchette’s British Dominions in North America, vol. ii. pp. 187, 188. 160 NEWFOUNDLAND. Newfound-likewise found on the coast. The capelin arrives periodi- land. cal]y in such immense shoals as to change the colour of the —v—■'ySea. Herrings likewise arrive during spring and autumn in prodigious numbers. As a product of the coast may be mentioned kelp, which, with other sea-weed, is used as manure. The importance of this colony has exclusively arisen from its fisheries. The different settlements amount to be¬ tween sixty and seventy in number, and are scattered on the shores of the eastern and southern sides of the island, but principally on the former. There are, indeed, some inhabitants on the western shore, near its southern extre¬ mity; but they do not extend to the northward of St George’s Bay, although the vicinity of that bay has proved extreme¬ ly fertile. The settlements are generally formed at the heads of the bays, particularly Conception Bay, thence to St John’s, and southward to Cape Race. The principal are, besides St John’s, the Bay of Bulls, Brigus, Cape Broyle Harbour, Ferryland, Fermore, and Renowes. St John’s, the capital of the island, is a place of considerable strength, situated about seventy miles to the north of Cape Race, and about one hundred and twenty south of Twilingate Island in the Bay of Exploits, which is the most northerly settlement, latitude 47. 35. north, longitude 52. 48. west. The harbour is one of the best in Newfoundland, being formed between two mountains, the eastern points of which leave an entrance, called the Narrows. This is the only assailable part, but it is so well defended, that any vessel attempting to force an entrance would inevitably be de¬ stroyed. There are about twelve fathoms of water in the middle of the channel, with tolerably good anchorage ground. The most lofty perpendicular precipices rise to an amazing height upon the north side, and the southern shore appears less striking in its altitude, only from a com¬ parison with the opposite rocks. There is a light shown every night on the left side ot the entrance, where there are also a small battery and a signal-post. Other batteries of greater strength appear towering above the rocky emi¬ nences towards the north. At about two thirds of the dis¬ tance between the entrance and what may properly be term¬ ed the harbour itself, there is a dangerous shelf called the Pancake, opposite the chain rock, so called from a chain which extends across the strait at that place, to prevent the admission of any hostile fleet. There are other forti¬ fications besides those already noticed, planted upon the heights around the town, so as to render St Johns perfect¬ ly secure against any sudden attack. Fort Townshend is situated immediately over the town, and is the usual resi¬ dence of the governor. Forts Amherst and Yv iiliam are more to the north; and there is also a small battery perch¬ ed on the top of a single pyramidal mount, called the Crow s Nest. The town itself forms one long straggling street, extending nearly parallel to the shore on the north side of the port, from which branch out several narrow lines of houses, that can only be called lanes. The houses are chiefly built of wood, although diversified by some of brick and a few of stone ; but they are most irregularly placed, in consequence of an act of the British legislature, passed in 1820, after the great fires, which directs, that where the houses are built of stone, the street shall be forty feet in width, and where of wood, fifty; so that all the stone houses project ten feet into the street. The principal fea¬ ture of the town consists in its multitude of wharfs and fish¬ ing stages, which entirely line the shore. The government wharf is a fine broad quay, open to the accommodation of the public. The roadway of the main street is very rugged and irregular, and the general appearance of the town in¬ dicates exactly what it is, viz. a fishing station. St John’s has repeatedly and severely suffered from fires. In 1815, a great amount of property was destroyed by a visitation of this sort, which was repeated in November 1817, with increased severity, property to the amount of L.500,000 Newfbu^n having been destroyed. Within a few days afterwards, an- land ^ other conflagration consumed nearly all of the town that had been left by the former one ; and in August of the same year a fourth calamity nearly completed its destruction. There are places of public worship of various denomina¬ tions at St John’s, two school-houses, and a book society ; and five newspapers are also published. The population of the town is constantly fluctuating. At the height of the fishing season it is perfectly crowded, but the greater part of these are strangers, who return with their vessels to Europe. The resident population may be estimated at 11,000. The society of this town has for some years ra¬ pidly advanced in respectability and civilization ; partly on account of several merchants deeply engaged in trade hav- ino- settled here, and many of the industrious inhabitants having raised themselves to comparative^ opulence; and partly^owing to the administration of justice having been placed upon a more permanent footing than formerly, ihe settlements extend almost continuously along the southern shore, as far as Fortune Bay ; and at most of the harbours there are places of public worship. The establishment at St George’s Bay is perhaps more agricultural than any other on the island; but Conception Bay, being the most populous, requires more particular notice. “ Harbour Grace is a good port, ’ says Captain Robinson; u and the town is considerable, and of a respectable appearance. Con¬ ception Bay, in which it is situate, is the-richest and most populous country district in Newfoundland, containing al¬ together about 14,600 inhabitants, a large proportion of the 86J)00 which the most recent census (1820) gave for the whole population of the island. They are distributed in a number of small towns, or fishing and agricultural ham¬ lets ; near another of which, Port Grace, a remarkable basin is hollowed out in the cliffs by the action of fiost, or the more certain operation of time, in the decaying slate clay of which the rocks are composed. First an arch is en¬ tered twenty feet wide by twenty feet high, and beyond is the basin itself, which is about 300 feet in circumference, and surrounded by perpendicular rocks 120 feet in height, with a border of dwarf spruce at top. At one corner, a little exit among broken masses of rock carries off the su¬ perfluous water ; the depth near the centre of the cavity is about fourteen feet.” On leaving the harbour, the same writer observes: “ The harbour is good; and though the space between the end of the bar and the north shoie is rather narrow, a large ship, well handled, may beat through, or back and fill in and out, with the tide. Near the extremity of Port Grace Harbour are the re¬ mains of a supposed ancient colony, which some have at¬ tributed to the Danes or Icelanders; a sea-king of the lat¬ ter people having, according to tradition, been driven by stress of weather upon this part of the coast about the year 1000. The ruins were discovered by a party ot settlers, who, proceeding up a river which falls into Conception Bay, observed, at the distance of six or seven miles above the bay, the appearance of stone walls rising just above the sur¬ face. “ On removing the sand and alluvial earth, they as¬ certained these to be the remains of ancient buildings, with oak beams, and mill-stones sunk in oaken beds. Enclosures resembling gardens were also traced out, and plants of va¬ rious kinds were found growing about the place, not indi¬ genous to the island ; but the most decisive proof of these ruins being the remains of an ancient European colony, was drawn from the different kinds of coins found about them, some of Dutch gold, which the inhabitants consi¬ dered to be old Flemish coins ; others of copper without in¬ scriptions.” Captain Robinson, however, throws doubt on the antiquity of the buildings, and asserts that they are not older than the settlement of Lord Baltimore in 1623. Newfoundland is justly considered as a very important NEWFOUNDLAND. 161 colony, both from the value of the fisheries there esta- early trade of the colony, so that, in order to show its pre-Newfound- blished, and also on account of the hardy race of seamen sent condition, it may be sufficient to give the returns ap- land> who are trained up in that useful pursuit. In the article plicable to a recent period. The following table shows the Fisheries in this work will be found an account of the progress of trade since 1822. Years. 1822 1823 1826 1827 1829 1830 1831 1832 1833 Inwards from Great Britain. No. 297 289 279 279 275 286 274 268 251 Tons. 38,167 39,813 35,196 37,595 38,608 39,856 37,577 36,265 35,171 British Colonies. No. 274 254 295 268 319 321 385 362 419 Foreign States. No. 178 201 277 Tons. 20,818 21,015 24,594 22,417j 239 17,507j 197 26,363j 221 30,643 218 27,881 33,287 215 222 Tons. 22,037 23,650 33,316 30,368 24,915 28,204 20,349 25.783 26.784 TotaL No. 749 753 851 786 791 828 877 845 892 Tons. 81,022 84,478 93,406 90,380 91,030 94,423 96,569 89,929 95,242 Outwards to Great Britain. No. 146 116 171 164 147 158 181 167 151 Tons. 17,457 12,238 19,770 20,182 17,766 19,054 21,764 20,221 18,515 British Colonies. No. 281 272 326 311 350 357 432 430 450 Tons. 24,299 25,725 30,557 33,114 36,544 37,610 43.159 223 39,113 199 42,327j'244 Foreign States. No. 321 353 328 291 278 284 Tons. 38,859 42,569 40,223 35,667 34,883 35,718 27,575 836 25,111 796 30,118' 845 Total. No. 748 741 825 776 775 799 Tons. 80,615 80,532 90,550, 88,963 89,193 92,382 92,498 84,445 90,960 A more detailed view of the shipping employed with different countries is thus shown by custom-house returns. United kingdom Guernsey and Jersey British West Indies British North America Foreign) British vessels.... Europe J Foreign vessels... United) British vessels States j Foreign vessels.... Madeira.. Azores Brazils Gibraltar St Pierre.- Porto Rico Total. Year ending 5th January 1833. Inwards. No. 245 6 54 363 132 5 68 5 Tons. 34,322 849 5,490 27,522 16,276 565 7,938 849 458 415 275 112 171 Men. 1969 53 356 1535 1017 40 451 42 27 23 14 12 13 Outwards. No. 150 1 73 371 183 '29 6 23 6 3 Tons. 18,280 235 7,796 33,748 22,137 3,515 458 3,896 789 112 Men. 1110 12 503 1867 1413 206 26 225 44 12 Year ending 5th January 1832. Inwards. No. 257 11 54 308 159 50 3 2 1 Tons. 34,704 1,561 5,605 22,276 19,995 5,i46 409 163 70 Men. 2024 103 379 1158 1413 279 14 10 5 892 95,242 5552 845 90,966 5418 845 89,929 5385 796 83,745 4870 Outwards. No. 164 3 71 355 173 2 21 1 1 1 4 Tons. 19,728 493 7,821 30,871 21,500 336 2,330 73 102 70 421 Men. 1203 33 515 1595 1333 14 137 4 6 4 26 The following table presents a view of the principal ex¬ ports from Newfoundland. Dry cod fish quintals Seals’ skins...No.of casks Cod and seal oil tons ®taves number Salmon casks Herrings barrels Mackerel Jq. Tongues,sounds,) and caplins..../casks 848,463 300,682 8,306 25,204 4,439 1,083 390 1,759 1831. 755,667 559,342 12,371 32,568 3,606 1,799 456 2,092 1832. 654,053 682,803 13,118 29,000 2,924 1,064 984 1,646 663,787 501,436 10,539 40,679 2,705 3,969 606 819 Besides these articles, various kinds of skins are exported, and also whalebone, pine-board, juniper plank, billets, knees, oars, staves, and the like ; but the above returns show that the cod and seal fisheries are by far the most important branches of the trade of Newfoundland. For an account of the nature of the Newfoundland fish¬ eries, and their importance to Great Britain, the reader is referred to the article Fisheries. The principal imports consist of bread, flour, pork, and beef, butter, rum, molasses, wine, brandy, and gin, coffee, tea, sugar, oatmeal, salt, pease and beans, lumber, shingles, and the like. ^ The value, together with that of the exports, has been as follows. Imports valued in Sterling Money. . Years. 1822 1826 1827 1830 1831 From Great Britain. L. 656,327 204,753 549,816 546,839 530,954 From British Colonies. L. 177,423 131,090 157,731 130,286 177,958 VOL. XVI. From Foreign States. L. 34,002 179,600 181,714 91,291 102,441 Total Value of Imports. L. 867,752 512,443 889,261 768,416 829,353 Exports valued in Sterling Money. To Great Britain. L. 245,578 293,745 316,596 252,389 393,584 To British Colonies. L. 82,952 121,746 116,513 140,520 132,258 To Foreign States. L. 400,668 343>814 331,477 292,771 277,690 Total Value of Exports. L. 729,198 759,305 764,586 685,680 803,532 x 162 Newfound land. NEWFOUNDLAND. • The total value of the Newfoundland trade may be es¬ timated, in round numbers, at L.2,000,000 sterling per an¬ num, independently of its great importance in a maritime point of view. But besides the trade in fish and oil car¬ ried on by Great Britain in the British seas, that of Ame¬ rica and France is also of immense extent and importance. To France it averages about 300,000 quintals of fish, and not only are bounties given for this article, and for the vessel so much per ton, but also for those men employed who have never before been at sea. No bounty whatever is paid by our government, so that our fishermen have to compete under the greatest disadvantages. But this is not all. In 1814, the French obtained a right to a large extent of the coast fishery, or rather the right which they had enjoyed previously to 1792 was then restored, and the islands of St Pierre and Miquelon were ceded to them, to serve as a shelter for the French fishermen. This privi¬ lege, which was conferred by treaty, they have rendered exclusive, and so late as 1833 drove some English vessels off the coast of Newfoundland, not allowing them to fish upon the shores of their own island. The Americans also take every possible advantage of the privileges granted by us as regards the latitude fixed, fishing close to the land during night; and they likewise injure their neighbours by throwing their offal into the sea. Of the entire quantity of cod-fish which they take, not less than 1,500,000 are reckoned as caught on our own shores. The regular trade of Britain, besides suffering from the causes mentioned, is seriously injured by the extensive smuggling which the fo¬ reign fishermen carry on. From 1815, when the French and American vessels were allowed the privilege of fishing in the British seas, till 1820, the tonnage of the British ves¬ sels employed in the trade fell off about one third. I he deep-sea fishery, in particular, is now almost abandoned by the English to the Americans and French. Indeed every thing relating to British interests, in connection with the Newfoundland fisheries, appears to have been grossly mis¬ managed or neglected. The affairs of the island are administered by a house of assembly, consisting of fifteen members chosen by the people, to which is added a legislative and executive coun¬ cil. The laws are in the English language, and are admi¬ nistered by circuit courts. There is no militia in the island, and the police force is small. The revenue is derived from custom-duties, amounting to about L.15,000 per annum, and licenses, L.1000. To meet the expenditure, a parliamen¬ tary grant of about L.10,000 was for several years given ; but this was withdrawn in 1832, and since then the reve¬ nue has not covered the expenditure by about that amount, so that its restoration has been found necessary. The moral aspect of Newfoundland is rather encouraging. Con¬ siderable unanimity has usually existed amongst the differ¬ ent religious persuasions, consisting of Wesleyans, Roman Catholics, and Congregationalists ; the dissenters being ge¬ nerally more numerous than the Episcopalians, over whom there is an archdeacon. The Catholic church is governed by a bishop. There are several newspapers published in the island, and of late years a taste for literature has been diffusing itself. There are between thirty and forty schools, as well for adults as for children. At St John’s there is a commercial society, out of which a chamber of commerce is chosen annually, to watch over and promote the trade and fisheries. There are several benevolent societies and two benefit societies. The population of Newfoundland for several years was as follows: Males. Females. Total. 1822-23 31,746 20,411 52,157 1827-28 34,617 23,471 58,088 To these numbers must be added 2000 individuals distri¬ buted over distant parts of the coast, which could not be visited by those who took the census. The population ne- Newfinm cessarily fluctuates greatly, so that much difficulty is expe- rienced in obtaining correct returns. The resident inha¬ bitants are now (1837) reckoned at about 90,000. When Newfoundland was first visited, it was found to contain two distinct races of aborigines ; the one termed Red Indians, and the other Esquimaux. Both are now al¬ most extinct; the former, it is supposed, is entirely so, as deadly feuds were waged between them and the early set¬ tlers. Besides, the Mic-mac Indians, who were introduced into the island from Cape Breton and Nova Scotia, carried on with the Red Indians an exterminating war, which proved far more fatal to them than the hostilities of the Europeans. A female of this tribe was captured in 1818, and from her a vocabulary of their language was obtained.; Without dwelling upon the tradition which represents Newfoundland as having been settled at a very early pe¬ riod by one Biron, a sea-king or pirate of Iceland, we have authentic evidence of its re-discovery by John Cabot, on the 24th of June 1497. Sailing under the commission of Henry VII. in these seas, he descried a headland, which, as a lucky omen, he called Bonavista, a name which it still retains. It was at that time inhabited by native Indians, three of whom he brought home, clothed in skins, and speaking a language which no person understood. It was afterwards visited by navigators from trance and Portugal, who reporting favourably of the abundance and excellency of its cod fishery, European fishermen were soon attract¬ ed to its coasts. In 1536 an English vessel attempted to winter upon the island, but the crew nearly perished from starvation. Not deterred by this failure, however, nor by that of a former attempt, Sir Humphrey Gilbert, in 1583, landed on the island with two hundred followers, and, un¬ der a patent of Queen Elizabeth, took quiet possession of the country. But too desirous of prosecuting his discove¬ ries, his crews became disaffected, and having separated in¬ to two parties, one of them returned home. Most of those who followed him were lost in a gale of wind off the Sable Island, and the remainder perished, along with himself, on their voyage homewards. Subsequent attempts were made to explore and settle Newfoundland, but it was not until the year 1623 that the first colony was established under Sir George Calvert, afterwards Lord Baltimore. His son was made governor of the colony, which he named Avalon, and soon afterwards proceeding thither himself, it increas¬ ed and flourished under his auspices. Ten years subse¬ quently Charles I. issued a regulation for “ governing of his majesty’s subjects inhabiting in Newfoundland, or traf¬ ficking in bays,” &c.; and about the same time Lord Falk¬ land sent a colony from Ireland. Other individuals ob¬ tained grants of land; and about the year 1654, fifteen settlements, comprehending three hundred families, had been made on the island, notwithstanding the constant bickerings between the English and French, the latter having established a colony at Placentia. On the break¬ ing out of the war after the accession of William III., these assumed a more serious character, and, after various recri¬ minations, St John’s was compelled to surrender to the French in 1696. The captors set fire to the fort and town, and destroyed most of the British settlements. To repair these losses, our government despatched a squadron; but the cowardice of one commander and the ignorance of another frustrated the design. The re-establishment of peace put an end to hostilities for the time; but they were resumed in 1702, during which year most of the French settlements were destroyed, and a great many fish¬ ing-boats were burned or captured. In the following year an expedition miscarried, and this circumstance encouraged the French to attempt the conquest of the whole island in 1705. For this purpose five hundred men were despatch¬ ed from Canada; but being repulsed from Petty Harbour, NEW NEW ew al¬ low j" Ni Ha i- shl a port within nine miles of St John’s, they extended their ravages over the different settlements as far as Bonavista. In 1706 the French trade received a severe blow from an English commander, who, with only ten vessels, crippled the armed force on the station, and destroyed a number of ^ the enemy’s vessels in the harbours along the coast. These disasters, however, did not deter the French from attempt¬ ing the permanent expulsion of the English. In the year 1708 they completely demolished the town of St John’s; and shortly afterwards Carbonia, the only settlement of consequence remaining in our hands, was partially de¬ stroyed. From this time until the conclusion of the peace of Utrecht the French remained in quiet possession of New¬ foundland ; but by this treaty the island, with all the ad¬ jacent ones, was declared to belong to Great Britain, the French being only allowed the use of the two islets of St Pierre and Miquelon. The final conquest of all the Ame¬ rican colonies extinguished any claims which the French might set forth to possession in these seas ; and they were glad to receive back at the peace of 1763 the privilege above conferred. The revolutionary war in America oc¬ casioned fresh disputes as to the right of fishing upon the banks of Newfoundland. The New Englanders had hi¬ therto enjoyed the right of taking fish, and on this being resisted, they retaliated, by refusing to supply the colony with many articles of provision upon which it depended. This reciprocal annoyance caused the subject to form one of the articles of the treaty of peace, signed at Paris in 1783, by which it was stipulated that the inhabitants of the United States should have liberty to take fish of every kind on such part of the coast of Newfoundland as Bri¬ tish fishermen should use, but not to dry or cure their fish upon the island. The question of supplies from America was a long time agitated, but finally authorized by act of parliament in 1822, confining the transit of goods to Bri¬ tish bottoms. Newfoundland has had a resident governor ever since the year 1728. Civil and justiciary courts were early established ; and about the year 1750, a superior court was added. But for many years the imperfect ad¬ ministration of justice continued to be a subject of com¬ plaint amongst the colonists. Bills have been repeatedly passed for the purpose of placing matters upon a more sa¬ tisfactory footing; and in 1832 a representative govern¬ ment was granted to Newfoundland, similar to that enjoy¬ ed by Nova Scotia. (r. r. NEW GALLOW’AY, a small royal burgh of Scotland, in the centre of the stewartry of Kircudbright. It is plea¬ santly situated on the western bank of the Ken. The town is formed of a single street, stretching along the public road. The parish church is about half a mile from the town, on the north side. There is attached to the town- house a criminal and debtor’s jail, surmounted by a steeple and town clock. Below the town a handsome stone bridge was erected over the river in 1822. The inhabitants are entirely supported by the retail trade arising from the de¬ mands of the population of the surrounding country. It was erected into a royal burgh in 1629. By the set or con¬ stitution which, in 1708, received the sanction of the con¬ vention of royal burghs, the town ought to be governed by a provost, two bailies, a treasurer, and fifteen councillors; out as the parliamentary constituency do not amount to that number, the council is never complete. It has no funds or property of any description, with the exception of cus¬ toms and small dues, which do not amount to L.3 yearly, it returns a member to parliament along with Wigton, Stranraer, and Whithorn. The population amounts to about 163 NEW HAMPSHIRE, one of the United States of or i America, is bounded on the north by the mountain¬ ous ridges which separate Canada from the states of the union, on the east and south-east by Maine and the Atlan¬ tic Ocean, on the south by Massachusetts, and on the west by Vermont. It is situated between 42. 41. and 45. 11. of north latitude, and between 70. 40. and 72. 23. of west, longitude; extending in length about 168 miles, whilst its average breadth is about fifty miles, and its area is com¬ puted at 9491 miles. On the map its shape nearly resem¬ bles a wedge inserted between the states of Maine and Vermont, and having Massachusetts for its base. New Hampshire, for its narrow extent, differs more in relative elevation than any other state of the union, and of course the extremes of temperature are in corresponding excess. The line of coast is indented with small inlets of the sea, and skirted by a narrow sandy plain. At no great distance the country swells into a mountainous region, and New Hampshire has justly been called the state of hills, and also the granite state. The highest peaks of the White Mountain range, some of them 7000 feet in height, are more elevated than any others in the United States, with the exception of the Rocky Mountains. Between the Merrimack and the Connecticut are situated many consi¬ derable mountains; the names of the principal heights being Monadnock, Sunapee, Kearsarge, Carr’s Mountain, and Moosehillock. As a whole, the physiognomy of New Hampshire is bold and prominent, and, although rugged, often sublime in the highest degree. The mountains of the state are in the centre, with a zone of finely-diversified hill and dale country around, the hills consisting generally of stony and moist land, and affording excellent pasturage. There are no extensive barrens, and most of the land is capable of cultivation. Many of the valleys are beautifully green, sheltered, and fertile. The rivers in particular have rich alluvial bottoms or intervale lands, the soil, al¬ though encumbered with stones, having a considerable degree of fertility. The state originally was heavily tim¬ bered, and in the interior there are still considerable tracts of forest country. There are extensive plains of warm, light, sandy, and peculiar soil, resembling, when cleared, the poorer lands of the high western prairies, covered in their natural state with white pine, and called pine plains. Mount Washington, one of the White Mountains, often visited by travellers, Mr Hinton thus describes: “ After climbing the side of the mountain for some distance, the forest trees begin to diminish in height, till, at the ele¬ vation of about four thousand feet, you come to a re¬ gion of dwarfish evergreens, about the height of a man’s head, which put forth numerous branches, and surround the mountain with a formidable hedge, a quarter of a mile in thickness. On emerging from this thicket, you are above all woods, at the foot of what is called the bald part of the mountain, which is very steep, and consists of a huge pile of naked rocks. After attaining the summit, the traveller is recompensed for his toil, if the sky be se¬ rene, by a most noble and extensive prospect. On the south-east there is a view of the Atlantic Ocean, the near¬ est part of which is sixty-five miles distant in a right line; on the south, Winnipiseogee Lake lies full in view ; m the south-west is the lofty summit of Moosehillock; and far away in the horizon is the Grand Monadnoc. The barren rocks, which extend a great distance in every di¬ rection from the summit, add a melancholy cast to the grandeur of the scene. The notch or gap in the White Mountains is also frequently visited as a curiosity. It is on the west side of the mountains, near the source of Sa¬ co River. It is a deep and narrow defile, in one part only twenty-two feet wide. I he mountain appears as if clo¬ ven quite to its base, perpendicularly on one side, and on the other at an angle of forty-five degrees.” The Lake of Winnipiseogee, mentioned above, is the largest sheet of water in New Hampshire, being about twenty-three miles in length. It is sprinkled with numerous islands, and abounds in the finest kinds of fresh-water fish. Umbagog New Hamp¬ shire. 164 New Hamp¬ shire. NEW HAMPSHIRE. Lake is situated partly in this state and partly in Maine. Squam, Ossipee, Sunnapee, and Newfound Lakes, are also large collections of water. Five of the largest rivers of New England have their sources in this state, viz. the Connecticut, Merrimack, Androscoggin, Saco, and Pasca- taqua. There are also a number of inferior streams ; and, throughout, New Hampshire is remarkably well watered, the water being generally of the purest quality. In re¬ ference to the geological features of the state, it may be mentioned, that the high ridge of mountains which di¬ vides the waters of the Connecticut from those of the Merrimack is composed ol the older primitive rocks. Gra¬ nite prevails in the northern and more elevated part, and mica slate in the southern. A beautiful fine-grained gra_ nite occurs in many parts of the state, and great quantities of it are transported to Boston as a building stone. Io the eastward of the great ridge, mica slate, gneiss, and greenstone, are found. Steatite or greenstone of good quality is found at Ortord and Francestown, and primitive limestone abounds in several places. New Hampshire also possesses beds of iron ore of excellent quality, and coppei ore has likewise been discovered. Plumbago is found, at some places in large quantities, and of excellent quality. These are the principal minerals which this state pro¬ duces in such quantities as to be much regarded by the in¬ habitants. The climate of New Hampshire is subject to the ex¬ tremes of heat and cold, and to great and sudden changes, yet it is reckoned healthy, the air being generally pure and salubrious. Winter commences in November, and continues till April, the lakes being ordinarily frozen four months in the year, during six wTeeks of which travelling by means of a species of sledge is quite common, both on the ice and on terra firma. The open fields are commonly cleared of snow by the end of April; but the cold wea¬ ther, which commences as early as the first of September, continues till May. In all the states in this neighbour- hood the autumn is a delightful season. New Hampshire is an agricultural state, and by far the greater number of the inhabitants are engaged in the cultivation of the soil. The articles principally cultivated are, wheat, rye, Indian corn, oats, barley, pulse, and flax. I he quantity of live stock is considerable, consisting of horned cattle, sheep, swine, and horses. Apples are abundant, and no goo husbandman considers his farm as complete without an 01- chard ; but other kinds of fruit are not so extensively cul¬ tivated. The principal articles of export are, lumber, fish, beef, pork, horses, neat cattle, sheep, flax-seed, and pot and pearl ashes. The manufactures of New Hampshire have of late years greatly increased. In 1831 there were forty cot¬ ton mills, which manufactured during that year 29,060,500 ^ yards of cloth, and employed 875 males and 4090 females, besides some children. There are likewise some woollen establishments, ten or twelve paper mills, a number of iron founderies, and works for preparing the ore; and glass is also manufactured. In this and in some other states, large quantities of carpeting, of an inferior quality, are made in families, but these are not noticed in the estimated amount of exports. Mr Pitkins, in his statistics of the United States (1835), observes regarding this manufacture in New Hampshire : “ The agent for New Hampshire, in his return to the secretary, says that the amount of carpeting made in the counties of Rockingham, Strafford, Grafton, and Coos, mostly in families, and sold in other states, ex¬ ceeds, in his opinion, the amount of foreign articles con¬ sumed.” The value of the imports from December 1832 to December 1833 was 167,754 dollars ; and the value of the exports for the same period was, of domestic produce, 145,355 dollars, and of foreign produce, 9903 dollars; total, 155,258 dollars ; the tonnage entered being 17,126. From the same source (the American Almanac) we learn, that for the year ending the 30th of September 1835, the value of the imports was 71,514 dollars; that of the exports, of domestic produce, 75,076 dollars, and of foreign pro¬ duce, 6605 dollars, total, 81,681 dollars ; whilst the ton¬ nage which entered was, 6564, and that which departed, 3996 tons. This remarkable falling off in the trade of the state we have no other means of accounting for, than by supposing that the trade in this part of the United States is becoming more and more concentrated at Boston, where goods of all kinds can be more readily disposed of; and this, we have been informed by a native of the country, is the fact. Amongst the towns where the principal ma¬ nufacturing establishments are situated may be mention¬ ed Exeter, Dover, Peterborough, Franconia, Pembroke, New Ipswich, Keene, and Durham. In 1835, there were in New Hampshire twenty-six banks, having a ^capital of 2,655,008 dollars, and a circulation of 1,389,970 dol¬ lars. The number of post-offices was 289, and the amount of postages for the preceding year was 23,429 dollars. There are several savings’ banks and insurance offices in this state. At the commencement of the war in 1775, New Hampshire had only one newspaper; but in 1834 twen¬ ty-seven were published, besides a few other periodicals. The following table exhibits a view of the counties and county towns. New Hatnp. shire. Counties. Population in 1820. Population in 1830. Rockingham. Strafford. Merrimack..., Hillsborough, Cheshire Sullivan Grafton Coos Total 243,986 40,526 51,415 32,743 35,781 26,753 18,628 32,989 5,151 44,452 58,916 34,619 37,762 27,016 19,687 38,691 8,390 County Towns. Population. Distance from Concord. Washington. 269,533 J Portsmouth. \ Exeter f Dover J Gilmanton.. } Gilford (Rochester.., Concord Amherst.... Keene Newport.... f Haverhill... (Plymouth.., Lancaster.., 8082 2759 5449 3816 1872 2155 3727 1657 2374 1913 2153 1175 1187 45 39 40 20 30 40 30 55 40 67 40 116 491 474 490 500 504 500 474 448 431 467 509 515 558 Portsmouth, the largest town, and the only seaport in three miles from its junction with the sfa,^ J the state, is situated on the south side of Piscataqua River, north, and longitude 70. 4o. west. I he NEW HAMPSHIRE. N dered as excellent, having sufficient depth of water for ves- ^ sels of any size, being easy of access, protected from every s 'r wind, and, owing to the rapidity of the tide, never frozen, “[it is so well fortified by nature, that it can be made secure against any attack, with little trouble or expense. Seve¬ ral forts have been planted upon commanding positions. A lighthouse on Great Island indicates the entrance, and the largest ships can come close up to the wharfs. Ports¬ mouth is well provided with houses of public worship, and contains a custom-house, an insurance office, and several banks. This town enjoys considerable trade; but as a great portion of that from the interior of the state centres at Boston, and a part at Portland, its commerce is not so ex¬ tensive or flourishing as it would otherwise be, and, as has already been shown, it is on the decline. In Navy Island, on the Piscataqua, opposite to Portsmouth, there is a navy yard of the United States. The island belongs to the ge¬ neral government, and is convenient for building ships of war, being well furnished for this purpose. Portsmouth has suffered much from fires at different periods, the places of the buildings destroyed being supplied by brick edifices. A very handsome bridge across the Piscataqua connects it with the state of Maine. This town was settled in 1623, and incorporated by charter in 1633. Concord, the capital of New Hampshire, and the seat of government, is situated on both sides of the river Merri¬ mack, in latitude 43.12. north, and longitude 71. 29. west. The principal portion of the town is exceedingly plea¬ sant, extending along the western bank of the river for nearly two miles. It contains a state-house, a state-prison, a court-house, several places of public worship, and above two hundred dwelling-houses. Two bridges connect the chief village with that on the opposite bank, and much of the trade of the upper country centres here; whilst the im¬ portance of the town is increased by the boat navigation which has been opened between this place and Boston by means of the Merrimack River and Middlesex Canal. The town of Concord issues three or four gazettes, and is alto¬ gether a place of large and growing business. Exeter is a handsome village, fifteen miles south-west of Portsmouth; it is situated at the head of tide-water on the Exeter River, and small vessels ascend to it. This village contains a number of public buildings, with three or four churches, and j rs the seat of very considerable manufactures. Philips’ Exeter Academy, in this place, is one of the most ancient, opulent, and useful institutions in the United States, hav¬ ing many of the advantages and endowments of a college. Hover is a large manufacturing village, situated on the , western bank of the Piscataqua, twelve miles north-west of Portsmouth, and through it flows the Cochecho. This river has several falls, the largest of which, being upwards of lorty feet perpendicular, is at the centre of the town, and affords water-power equal to any in New England. Lame iron and cotton manufactories have been erected upon these falls, and upon others a few miles higher up the river. Dover contains a number of good public buildings, has a consider¬ able share of shipping, and is one of the most flourishing erHVnln v6 Stue' 1?e greatest Part of the timber export- ed from New Hampshire is brought to this place. Keene on the TJT it(;wnmun the south*west Part of the state, River w6 i ^ PrinciPal towns on the Connecticut Charted Wap0?’ thlrteen miles north-west of Keene; “e ea,„f"ntW,el,C f"68 Walpole; Hanover mUes north S‘S'n0U “'f8*5 Haverhill> twenty-even tTe head If ^”7“and Bath’ adjoi”i”g Haverhill, at rous thriving E navlgation. There are, besides, nume- - tlmving and beautiful villages. The common schools 165 ai-p wpll . 7 T ,111£*scs. common schools ished in mST^i ^ flourishing academies are estab- u in many of the towns. Dartmouth College at Hu nover, was founded in 1770 i a,tll,uulil ,-oiiege, at Ha- institution i„ NeXS ed with it ten instructors, 1858 alumni, 512 ministers, ahd 186 students, with 6000 volumes in the college libraries, and 8500 volumes in the students’ libraries. The funds of\ this institution are considerable, the annual income being above 4000 dollars. It has likewise a medical school of de- sci ved reputation at Hanover, where there are three profes¬ sors and about eighty students. Philips’ Exeter Academy, at Exeter, is an old and flourishing institution. It has funds amounting to about 80,000 dollars, a library of 700 volumes, and a handsome philosophical apparatus. Its officers are, a principal, a professor of mathematics and natural philoso- pny, and an assistant. Ihe funds are appropriated in part to the support of theological students. There are a great number of less extensively-endowed academies, and the primary and other schools established throughout the state are upon the general footing of the New England sys- t,ei|1?' Vie state has a library fund amounting to 64,000 dollars, formed by a tax of one half per cent, upon the capi¬ tal of banks. The proceeds of this fund, and also an an¬ nual income of 9000 dollars derived from a tax upon banks are appropriated for the support of schools ; and for main¬ taining common schools, 90,000 dollars are annually rais¬ ed by a separate tax. There are in New Hampshire 159 churches for Congregationalists, and eleven associations; the Baptists have ninety churches and six associations; the .Tree-will Baptists have a hundred congregations ; the Me¬ thodists, seventy-five ministers; the Presbyterians,ten con- gregations; the Christians, twenty-three congregations; the Unitarians, seventeen congregations; the Friends, fllteen societies; the Episcopalians, nine congregations; the Roman Catholics, two congregations; and the Shak¬ ers, two societies. The clergy of New Hampshire are supported by salaries, which are raised by subscription, or by voluntary taxation on property, or by contribution. The sa,a7 °* Congregational ministers is about 40° doliars, that of the Episcopalian 600 dollars, that of the Unitarian 500 dollars, that of the Baptist 300 dollars, but those of other persuasions have still less. The inha¬ bitants are a strong, healthy, industrious, and well-inform¬ ed people; frugal, religious, and jealous of their rights. Ihe salubrity of the climate is proved by the fact, that many instances of considerable longevity occur in the state. As in the other states of the Union, internal improve¬ ments have within the last ten years made considerable advances in New Hampshire. Several canals have been constructed around falls in the Merrimack, viz. Bow Ca¬ nal, three miles below Concord, with four locks, and pass¬ ing a fall of twenty-five feet; Hooksett Canal, fifty rods long, with three locks, and a lockage of sixteen feet, pass¬ ing Hooksett Falls; Amosheag Canal, with nine locks, and a lockage of forty-five feet, passing Amosheag Falls, nine miles below Hooksett Falls; Union Canal, immediate¬ ly below Amosheag, overcomes seven falls in the river ana lias seven locks in nine miles. A canal is now in pro¬ gress around Sewali’s Falls, in Concord. The Nashua and Lowel Railroad, extending from Nashua, New Hampshire, to Lowell in Massachusetts, about fifteen miles in length was incorporated in the year 1836, and is now (1837) in progress. This railroad is expected to be continued from Nashua to Concord. The Concord Railroad Corporation nas been organized. The early history of New Hampshire will be found in the article New England. In the year 1741 a final separation took place between it and Massachusetts. A constitution was established in 1784; but in 1792 this constitution was altered and amended by a convention of delegates held at Concord, and it is that now in force. The legislative power is vested in a senate and house of representatives, which together are styled The General Court of New Hamp- sme. Every town or incorporated township having one hundred and fifty rateable polls may send one representa- New Hamp¬ shire. 166 NEW New Haven. tive, and for every three hundred additional polls it is en¬ titled to an additional representative. The senate consists ' of twelve members, who are chosen by the people in dis¬ tricts. The executive power is vested in a governor, and a council which consists of five members. The governor, council, senators, and representatives, are all elected an¬ nually by the people, their term of service commencing on the first Wednesday in June, upon which day the general court meets yearly at Concord. The right of suffrage is granted to every male inhabitant of twenty-one years ot age, excepting paupers, and persons excused from paying taxes at their own request. The judiciary power is ve^ in a superior court and a court of common pleas. I e judges are appointed by the governor and council, and hold their offices during good behaviour, but not beyond the age of seventy years. v *lR’ tt •*. NEW HAVEN, a city of Connecticut, one of the Unit¬ ed States of North America. It lies round the head of a bay, which stretches inwards about four miles from Cong Island Sound, seventy-six miles north-east from Nevv York, and stands on a large and beautiful plain, which is border¬ ed on the north partly by eminences called East and West Rock, presenting bold and almost perpendicular columns of bare trap rock from three to four hundred ieet in height. Upon the eastern and western sides the city is skirted by small rivers, and extends from east to west three miles, be¬ ing about two miles in width. It is regularly laid out, and consists of two parts, the old and the new town. The for¬ mer was originally laid out in one large square, and is di¬ vided into several smaller squares. The central square is intersected by a very fine street, in which three handsome churches have been erected; and it also contains a new state-house, built after the model of the Parthenon, and ranking with the best American buildings. The public square and the principal streets are ornamented with trees ; and a great part of the dwelling-houses have gardens filled with fruit trees, which give to the city a rural and delight¬ ful appearance. New Haven contains eight or nine places of public worship, Congregationalists and Episcopalians be¬ ing the most numerous sects. There is a jail, an alms¬ house, a custom-house, a museum, two banks, two insur¬ ance offices, an institution for popular lectures, and a num¬ ber of printing offices, from which five or six newspapers and a few other periodicals are issued. Yale College con¬ sists of ten buildings; four halls one hundred feet by forty, and four stories in height, containing thirty-two rooms each for students, a chapel, a medical college, a laboratory, and other necessary apartments. According to the Ameri¬ can Almanac for 1837, the state of this institution was as follows: Instructors, twenty-seven ; alumni, 4485 ; minis¬ ters, 1297 ; students, 413 ; volumes in the college libraries, 10,500; and volumes in the students’ libraries, 15,000. The philosophical and chemical apparatus are good, and the cabinet of minerals is the most valuable in the United States. In connection with this establishment there are the¬ ological, medical, and law schools ; and the place is celebrat¬ ed for the number of its boarding schools, there being seldom fewer than one thousand persons who come hither from abroad for the purpose of education. The harbour of New Haven is well defended from winds, but is shallow, and gra¬ dually filling up with mud; an evil which has been reme¬ died in part by the construction of a wharf, about a mile in length, extending into the harbour. The maritime com¬ merce of this city is greater than that of any other place in Connecticut, and it owns a considerable amount of ship¬ ping. Both the foreign and the coasting trade are extensive, and packets and steam-boats ply regularly between New Haven and New York. It was first settled by the English in the year 1638, and, as the capital of the colony of New Haven, continued distinct from that of Connecticut till the year 1665. The legislature of the state meets alternately NEW here and at Hartford. The population in 1820 amountedNewhs to 7147, in 1830 to 10,678, and in 1837 to about 13,000. « Long. 72. 57. W. Lat. 41. 18. N. J ^ Newhaven, a town of the county of Sussex, and the. ^ hundred of Holmstrough, sixty miles distant from London. It stands at the mouth of the river Ouse, and is the port of Lewes, where the custom-house is established. It was formerly a place of more importance than at present; but the harbour has been neglected, and nearly choked up by sand. It is sometimes called Meeching. The population amounted in 1801 to 584, in 1811 to /55, in 1821 to 927, and in 1831 to 904. Newhaven, an ancient and considerable fishing vil¬ lage, situated on the Frith of Forth, less than two miles north from Edinburgh, and one mile west from Leith. The village is formed by a street running contiguous with the shore, with several back lanes, and in appearance it has nothing to recommend it to attention. It possesses a low-water pier, which affords shelter to the fishing boats of the station, and accommodation to the ferry and other steamers in the taking up and landing of their passengers and goods. A handsome chapel has lately been erected at the west end of the village, and forms a subsidiary place of worship, or chapel of ease, to North Leith church. The inhabitants are a most industrious race, both sexes being busily employed, the men in procuring the fish, and the females in carrying them to the market. The oyster-bank is valuable, and yields fish of excellent quality. Were it turned to its proper account, it would yield a tar greater amount of revenue to the proprietors. At the west end of the village there has been erected within these few years^ a considerable suburb, called Trinity, consisting chiefly ot houses built in the villa style, and cottages for sea-bathing quarters. There is a chain-pier here, built by Captain Brown, from which steamers for various quarters hourly de¬ part. A bill passed last session (1836—37) for constructing^ a harbour here, in order to accommodate the large class ot steamers plying between the English and Scotch capitals. At Granton, about a mile farther west, a harbour is consi¬ derably advanced for the same purpose. 1 here is no mu¬ nicipal government in Newhaven, the superiors of the place being the town-council of Edinburgh, who purchased it in the year 1511, with all the privileges and rights with which James IV. had endowed it. Along with Leith, Por- tobello, Musselburgh, and Fisherrow, it returns a member to Parliament. NEW HOLLAND. See Australasia. NEWINGTON, a parish of the county of Surrey, in the hundred of Brixton. It is nearly adjacent to London, or rather to Southwark, and by the reform act contributes to the election of two members of parliament along with Lambeth and Camberwell It is frequently called Newing- ton-Butts, from having formerly been the place where the citizens of London practised archery. The population amounted in 1801 to 14,847, in 1811 to 23,853, in 18» to 33,047, and in 1831 to 44,526. Newington-Stoke, a parish in the county of Middle¬ sex, and hundred of Ossulton, two miles and a half from London, on the road from Shoreditch. The population amounted in 1801 to 1462, in 1811 to 2149, in 1821 to 2670, and in 1831 to 3480. . NEW LONDON, a city and port of entry in Connec¬ ticut, North America, situated on the western bank of the river Thames, about three miles from its mouth, the town is irregularly laid out, but has convenient public buildings, and several churches for various denominations of Christians. The harbour is the best in the state. It18 defended by Fort Trumbull on the western side ot the river, and by Fort Griswold on the eastern side, in Groton. A lighthouse has been erected upon a point which projects considerably into the Sound. The commerce is extensive, NEW NEW 167 wn s 'W[ . jgr.' -Y •• and packets and steam-boats ply regularly between this port and New York. The population in 1836 was about 6000. Long. 72. 9. W. Lat. 41. 22. N. NEWMILLS, a considerable burgh of barony, situated on the right bank of the river Irvine, in the parish of Lou¬ don, Ayrshire. It was erected by royal charter in 1490. The inhabitants are generally weavers. There are about 140 burgesses, who pay a small sum at admission, which is applied in keeping the streets in repair. The whole in¬ come of the burgh consists in the customs, public green, and feu-duties, which in all do not yield L.10 per annum. In the town there is the parish church, and a meeting¬ house belonging to the United Secession body. A good market is held weekly, and five annual fairs may likewise be held. The burgh is governed by two bailies, a chan¬ cellor, treasurer, twelve councillors, and a town-clerk. The population in 1821 amounted to 1543, and in 1831 to 1650. NEW ORLEANS. See the article Louisiana. NEWPORT, a small town, or rather village, of Cornwall, in the parish of St Stephen, near to Launceston, which had long the privilege of sending two members to the House of Commons; but it has been disfranchised. The parish in which it stands contains 1084 inhabitants, few of whom live within the limits of the borough. Newport, a market-town of the county of Salop, in the hundred of South Bradford, 140 miles from London. It is situated upon a plain on the borders of Staffordshire, and has a market, which is held on Saturday. The population amounted in 1801 to 2307, in 1811 to 2114, in 1821 to 2343, and in 1831 to 2745. Newport, a town of the county of Pembroke, in the hundred of Kemmess, in South Wales, distant 244 miles from London. It is situated on the river Nevern, which is navigable, and runs into the Bristol Channel. It is a corporate town, governed by a mayor, twelve aldermen, and a recorder ; but the market, having long declined, has at length disappeared. The population amounted in 1801 to 1392, in 1811 to 1433, in 1821 to 1666, and in 1831 to 1798. Newport, a market-town of the county of Monmouth, and hundred of Wentlodge, 147 miles from London. It stands at the mouth of the river Usk, across which there is a fine bridge. A canal, divided into two branches, and run¬ ning into great coal-fields, has created a large trade in coals between this town and the opposite ports of the Bristol Channel in the counties of Somerset and Devon. In the neighbourhood there are many ruins of ancient castles and of religious houses. The market is held on Saturday. The population amounted in 1801 to 1135, in 1811 to 2346, in 1821 to 4001, and in 1831 to 5441. Newport, a town situated within the parish of Caris- brook, in the Isle of Wight, and the capital of that island. It is seventy-nine miles from London, and stands upon a gentle elevation close to the river Medina. It is a well- built town, with a good market-place, wide streets, and respectable dwellings. It has a corporation, consisting of a mayor, twelve aldermen, and twelve burgesses, in whom was formerly vested the right of electing two members to the House of Commons; but this is now extended to all the inhabitants. There are good markets, which are held on Wednesday and Saturday, and at the latter the greater part of the corn grown on the island is sold. About one mi e from the town is Carisbrook Castle, a remarkable pile, celebrated for the imprisonment of Charles I. within its walls. It is still in tolerable preservation. The population amounted in 1801 to 3585, in 1811 to 3855, in 1821 to 40o9, and in 1831 to 4081. Newport. See the article Rhode Island. ewport-Pagnell, a town of the county of Bucking- am, in the hundred of the same name, fifty-one miles dis¬ tant from London. It stands on the river Ouse, where the New Itoss water of the small river Lovett falls into that stream. The II church, situated upon an elevation, is an ancient and mag- 1 ewsPa' nificent building ; and near it there are several alms-houses v ^eJS‘ , endowed by a citizen of London. Considerable occupation is afforded in making bone lace, and there are paper-mills. It was long the residence of the poet Cowper. There are markets, which are held on Wednesday and on Saturday. The population amounted in 1801 to 2048, in 1811 to 2515, in 1821 to 3103, and in 1831 to 3385. NEW ROSS (anciently Roseponte) is not, as its name might import, a new town, but one of considerable anti¬ quity, and is called new only to distinguish it from an older place in the neighbourhood, also called Ross, but now of no importance. New Ross is denominated an ancient bo¬ rough in the charter which was granted to it by James I. It is situated on the left bank of the river Barron, in the county of Wexford, at the distance of eighty-six statute miles from Dublin. The river is navigable up to the town for vessels of 200 tons burden. On the banks are exten¬ sive quays and lofty warehouses. A wooden bridge over the Barron connects the town with the county of Kilken¬ ny. A thriving export trade is carried on in agricultural produce, and the commerce of the town is increasing, and likely to increase considerably. Great advantages are ex- v pected to accrue from the port having been opened by the lords of the treasury for the importation and bonding of customable goods ; and a communication is contemplated with Kilkenny by means of inland navigation. The place was formerly enclosed by walls, and regularly fortified, yet it made but a feeble resistance to the army of Cromwell. In 1798, an obstinate and bloody conflict ensued here be¬ tween the king’s troops and the insurgents. The borough of New Ross returns one member to parliament. In 1831 the population stood thus: Males, 2173; females, 2838; total, 5011. The families chiefly employed in agriculture were eighteen; in trade, manufactures, and handicraft, 532; not comprised in the two preceding classes, 578; total, 1128. NEWSPAPERS are publications issued in numbers, consisting generally of single sheets, which, appearing at short and regular intervals, convey intelligence of pass¬ ing events, and at the same time advocate certain princi¬ ples in politics, literature, and religion, but chiefly in the first of these departments. One of the most remarkable characteristics of modern, The na- as compared with ancient times, is the periodical press, anture and engine affecting society in all its relations, and forming 0nePra(;tical of the most important safeguards of public liberty. Under utility of this head are usually included reviews, magazines, and other newspa' publications of a similar kind, as well as newspapers. But^er although, upon certain grave and important questions, the former sort of periodicals may contribute more to enlighten the public mind, and to guide public opinion into safe and proper channels; yet the wide diffusion of newspapers, their rapid communication of intelligence on subjects ofimmediate interest, their hasty and rough but often vigorous comments on the leading events of the day, and the means which they thus afford of acting immediately and constantly upon the public mind, in all its varied states, render them much more powerful as instruments of political influence, and thus secure to them a prominence to which, intrinsically, they are by no means entitled. They circulate every kind of information with equal celerity and regularity ; they bring to every man s home and fireside intelligence of all that is passing in the great world, whether at home or abroad, in war, in politics, in government, in commerce, and in the common affairs of life ; they are registers of extraordinary events, as well as of ordinary occurrences, of discoveries and inventions, as well as accidents, offences, calamities, or crimes; they often diversify their contents with scienti- 168 NEWSPAPERS. Newspa¬ pers. Historical notices of their ori¬ gin and progress. fic and literary notices ; and from the variety of facts and information which they contain, they are indispensable to many classes of society, and more or less agreeable or in¬ structive to all. To persons engaged in mercantile trans¬ actions they are peculiarly important, inasmuch as, from the advertisements they circulate, and the details they fur¬ nish respecting the supply and demand of commodities in all parts of the world, with the prices 'and the regula¬ tions by which these are affected, newspapers supersede a great mass of epistolary correspondence ; place merchants in remote situations upon an equality, in point of informa¬ tion, with those frequenting the principal marts ; and won¬ derfully quicken all the movements of commerce. Besides, these publications have themselves become a considerable article of commerce, in the production of which skill, ta¬ lents, and capital are equally requisite. An historical account of newspapers, and of periodical publications in general, is still a desideratum in literature ; nor can it be doubted, that if the task were undertaken by an individual of competent ability, and executed with the requisite care and research, the result would be a work of the greatest interest and importance. From the researches of Mr Chalmers, it appears that to the state of Venice be¬ longs the honour of having produced the first gazetta ov newspaper, which appeared as early as the year 1536. Ihe war which the republic of Venice then waged against Sulei¬ man II. in Dalmatia, appears to have given rise to the cus¬ tom in that state of communicating both military and com¬ mercial information in written sheets (notizie scrilte), which were read at a particular place by those desirous of learning the news, and who paid for this privilege in a coin that is no longer in use, called gazetta. From this circumstance, it would seem, the name was, in course of time, transfer¬ red to the newspaper itself, not only in Italy and France, but at length also in England and in other countries.1 The first of these notizie or gazettes was a monthly paper, circulated, or rather read, at Venice. The jealousy of the government prevented its being printed; and the gazetta continued to be distributed in manuscript till towards the close of the sixteenth century. In the Magliabecchi library at Florence there are still preserved thirty volumes of these gazettas, all of them in manuscript. Those who first wrote newspapers in Italy were commonly called menanti, be¬ cause, according to Vossius, they intended, by these loose papers or sybilline leaves, to spread about defamatory re¬ flections ; and for this reason all such gazettes were prohi¬ bited by Gregory XIII. in a bull entitled Minantes, from the Latin minari, to threaten. But Menage, with more pro¬ bability, derives the name from the Italian verb menare, which signifies to lead, direct, or produce. The first English newspaper appeared in the reign of Queen Elizabeth, during the alarm occasioned by the ap¬ proach of the Spanish Armada to our shores. In the Bri¬ tish Museum, there are several copies which were printed in 1558, whilst the Spanish fleet was in the English Channel; in order that, during a moment of general anxiety, the cir¬ culation of false reports might be prevented by publishing real information. This newspaper is entitled The English Mercuric, which, by authority, “ was imprinted at London, by Christopher Barker, her highnesses printer, 1583.” Bur¬ leigh’s newspapers, however, were all extraordinary ga¬ zettes, not regular journals, and they were published from time to time, according as that skilful statesman desired to soothe, inform, or exasperate the people. Periodical papers appear to have first come into general use during the civil wars in the reign of Charles I., and in the time of the com¬ monwealth ; in fact, each party had their newspapers, to dis» kewspj seminate sentiments of loyalty, or to foster a spirit of resist- Pers, ance against the inroads of power. The country was ac¬ cordingly overflowed with tracts of every size, and of vari¬ ous denominations, many of them written with great ability, and displaying uncommon courage. Mercury, however, was the prevailing title, although generally qualified with some epithet; and the quaintness peculiar to the age is curiously exemplified in the names of some of the 4t news-books, as the Dutch Spye, the Scots Dove, the Parliament Kite, the Secret Owle, Heraclitus Ridens, the Parliament Vulture, the Parliament’s Screech Owle, the Loyal Scout, and so forth. A catalogue of the different Mercuries would ex¬ hibit a curious picture of those singular times. Mercurius Acheronticus brought hebdomadal tidings from the infer¬ nal regions; Mercurius Democritus communicated marvel¬ lous intelligence from the world in the Moon ; the Laugh¬ ing Mercury gave exact information of proceedings at the antipodes ; and the Mercurius Mastix lashed unmercifully all other Mercuries, Scouts, Posts, Spies, Discoverers, and Intelligencers. The Restoration and the Revolution occa¬ sioned each the establishment of a number of newspapers in England, all of which have long since disappeared; nor was it until the reign of Queen Anne that London could boast of a daily paper. The first of the class published in Great Britain was the Daily Courant, which for a consider¬ able time occupied the field alone ; but at length two rivals appeared in the Daily Post and the Daily Journal, and, in 1724, we find that these three papers were simultaneously published. Little change seems to have taken place dur¬ ing the reign of George I.; but in that of George II. every kind of periodical publication increased abundantly. The number of newspapers annually sold in England,^accord¬ ing to an average of three years ending with D53, was 7,411,757; in 1760 it amounted to 9,464,790; in 1767 it rose to 11,300,980; in 1790 it was as high as 14,035,636, and in 1792 it amounted to 15,005,760. The victorious arms of Cromwell communicated to Scot¬ land the first newspaper. It appeared at Leith in October 1653, under the title of Mercurius Politicus, but, in Novem¬ ber 1654, was transferred to Edinburgh, where it continued to be published until the 11th of April 1660, when it came out under the name of Mercurius Publicus. This paper was a reprint, for the information of the English soldiers, of a London publication, entitled a Diurnal of some Passages and Affairs. But a newspaper of native manufacture soon made its appearance, under the title of Mercurius Caledo- nius. The first number of this journal was published at Edinburgh on the Slstof December 1660, “comprising,” as its title bears, “ the affairs in agitation in Scotland, with a summary of foreign intelligence.” The publication, how¬ ever, extended only to ten numbers, which, as Chalmers says, “ were very loyal, very illiterate, and very affected. Even after the Restoration the newspapers published by authority continued to be reprinted in Edinburgh, and the Mercurius Publicus instructed the natives until it was su¬ perseded by the Kingdom’s Intelligencer. At the era of the Revolution there was not a newspaper printed in Scot¬ land ; nor was it until after ten years had elapsed that the Edinburgh Gazette was published, in the month of February 1699, by James Watson, author of a History of Printing, who, after the publication of forty numbers, transferred it to one John Reid, whose son continued to print the paper even after the union. In February 1/05, Matson establishe the Edinburgh Courant, which he relinquished, after the publication of fifty-five numbers ; and, in September 1706, ? 1 Some have thought that the word gazetta is derived from gazza or gazzera, a magpie, or chatterer ; whilst others deduce it from the Latin gaza, colloquially lengthened into gazetta, and therefore signifying a little store or treasury of news. From the Italian the word passed into the Spanish language, which has also gazetista, signifying one fond of or partial to the gazette. In German, zeilung is formed from the ancient theidinge or teidung, identical with the English tiding and the Swedish tidingar. NEWSPAPERS. 169 Gazette, or Scots Postman, twice a week; and, in Decern- ber 1718, the town-council gave an exclusive privilege to James M‘Evven to publish three times a week the Edin¬ burgh Evening Courant; upon the condition, however, that “ the said James’ should, before publication, “ give ane coppie of his print to the magistrates.” This journal still continues to be published, but whether or not the original stipulation be complied with, we are unable to say. The establishment of the Courant was followed by that of the Caledonian Mercury, the sequel of Mercurius Caledonius, the first number of which appeared on the 28th of April ndoi ■■spa >a- he commenced the Scots Courant, which he continued to ers and nthm-c imnn v t . j A . „ , „ „ print until after the year 1718. To these papers were add- L 180 • and if t • t fobhshment, do not fall short of Isewspa- Scowr:etii?Au- report>the^ by John M„„cU a d i„ Makh 17.0 the North xX! LT/kS ttol the title of the Glasgow Courant; but this did ™t prevent commencratvTth theZblii ^o7,he PnnC,pal edlt,°r »ssr.-ii2=»£SSS He generally remains at his post until a late hour, prepar¬ ed to write comments on the foreign journals as they ar¬ rive (a duty in which he is generally assisted by the sub¬ editor), and also to direct attention, in a leading article, to any topic of public interest. During the sitting of parlia¬ ment, he is frequently obliged to remain at the office of the paper until two or three o’clock in the morning; and such is the energy with which the metropolitan press is direct¬ ed, that it is not uncommon to see a leading article of near¬ ly a column in length written on a subject which had been editor, and continued in his family until May 1772 when ImEi - . “ ,mPuIses !'“',llar >° tllc occaston. it was sold by the trustees of hi/t-randdiildren Z John !,erllE‘[ls the most extraordinary part of the machinery “"s aweT’ ^ ^ C°™> h- ;7; sontetipXsTat S Having given this slight sketch nf ihc cri’crir. 1 ^ and int5 JfSence*. Hunng the session of parliament, the of newspapers, we now proceed to consideAhe actual°ftate from the"time th^^^^ paperS attend by turns each day, and condition of this portion of the press amongst ourseves other Ac , SineSS commences’ one succeeding the dity with which they are printed and circulated, and the fhl- enter” a^mairapartmen" at ?he endTthelobb relie5el1’ ssatacsttrifaraSifi “■ - »^ Ring sent a body of troops to Portugal in comnhAce , A i • V i hen Proceeds at once to the office of the paper on a demand made by the government of that countrv reAV 7 n^h c6 18 e,1gaged> and by him the attention of the edi- ers belonging to several London journals accompanied the nAy have AmisniroT H? 0f.C0mm^dinS interest which expedition; and since the commoncpmcni nfrni d- i may nave tianspired. His slips, as they are written, are in Spain, the head-quarters of Don Carlos and tlmAofTA Anded 11G Prmter to the compositors, whose number Christine generals,^avTresictiAlv bA; ?^ duiilng the SeSSIon of Parliament is generally increased ; emissaries of the leading moaning papers lienorm nf thl Tf f °nie r1ePu°rter foliovvS another’ 11 is not unusual for a .... .. ug.morning paper,. Keports of the debate which has terminated at midnight to be set up in types, and ready for printing, by two o’clock in the morn- mg. On nights of prolonged discussion, when the houses sit late, some of the reporters, particularly those whose pre¬ vious task may have proved least onerous, are required to return to the gallery, and take what is called “ a double turn. In general, however, owing to the subdivision of labour, the duty ot an individual reporter is by no means burdensome, and requires promptitude and facility rather than prolonged exertion. The expertness produced by labit is remarkable, and it not unfrequently happens that — -.v, saving uiuiimjg papers, iteports or 1 proceedings in the Spanish Cortes, and the discussions in e French Chamber ot Deputies, have on particular occa¬ sions accompanied those of the debates in the British houses rpiA Indeed there is almost nothing beyond the reach of their enterprise and activity. tll(~mployed “P00 each morning paper of the first class Ihere are awed,tor and sub-editor / from te„ to twelve, or en fourteen, regular reporters, at salaries of from four to six guineas each per week; from thirty to thirty-five com- F]?p nA 7 t le Pnnting-office; several readers, who correct uie proors as they come from tho • • i ^ 1XV,° unncuudiuy Happens mat number ofmen and boys to‘ittcnd in tl1 \ ’ , •am a singJe reporter, from the notes taken in three quarters and take off the papers as they fall fromAlA r ^ A*011116’ 0t 30 hour’.suPPlies fr°m one to three columns ofVmted Publisher and sub-^Lt^ matter f .the,paper on which he is engaged. Besides the the office to receive advertisements and keen the t U C°rpS ° 1fgu ar. rePorters attached to a newspaper, there with various other individuals emme-ed inAfe J S’ T severaloccasi°nal ones,called “penny-a-line men,”from of subordinate duties. The salary of an ed nCe 16 c‘.rcu™stance of burnishing articles of intelligence L.600 to L.100Q per annurand foat of A ?0m at a,fixued Price Per ‘me. The reporters of this class are L.400 to L.600. The largesAkerntn the e^nen' A °A t0 4 ? 7 °f' the preSS what the Cossacks are to a dis‘ 1 morning paper is that clfarged under the heJd nfrA6 r uipuned army; a species of active but irregular troops, who ng, which generally amounteCupwardAof J ^000 IT ^ T* m a!1 directions, pick up every scrap that I ium. In fact, the salaries paid weekfo ro ° P an' C°TeS 10 their way’ and iiavinS dresSed b up in their best vol. xvi. aneS Paid weekly t0 edltors> ^port. style, straightway offer it for sale at the newspaper offices. 170 Newspa¬ pers. newspapers. In obtaining intelligence by express, and also in forward¬ ing it in this manner, some of the evening papers have 'latterly made great exertions. The Courier and the bun have sometimes published the speech of the king ot the French twenty-six or twenty-seven hours after it had been obtained by their agents at Paris; and the latter jouma has, on many occasions, forwarded “ express editions to all parts of the'country, containing the conclusion of an im¬ portant debate which terminated several hours after the departure of the mail, and thus anticipating by a day the ordinary course of publication. , j . Newspapers, in London, are, for the most part, sold to newsmen or news-venders, by whom they are distributed to the purchasers both in town and country. The newsmen, therefore, are the retailers, and for the business ot distri¬ bution they receive a certain regulated allowance, amount¬ ing to two shillings and threepence upon a quire (as it is called) of twenty-seven papers. Some of the clerks at the post-office, called clerks of the roads, are likewise con¬ siderable news-agents. The stamp-duty charged upon each newspaper was formerly fourpence, with a discount however, of twenty per cent, on such as were sold a price not exceeding sevenpence, which reduced the stamp-duty actually paid to threepence and one fifth. But, by the act 6 and 7 William IV. c. 76, this duty has been repealed, and the following duties are now imposed in its StCFor every sheet, or other piece of paper, whereon any newspaper shall be printed, one penny. But where such sheet or piece of paper shall contain on one side a super¬ ficies, exclusive of the margin of the ,e,XtC-ee^ ing 1530 inches, and not exceeding 2295, the additional duty of one halfpenny is charged; and where the same shall contain on one side a superficies, exclusive of mar¬ gin, exceeding 2295 inches, a further duty of one penny; provided always that any sheet or piece of paper con¬ taining on one side a superficies, exclusive of the margin of the letter-press, not exceeding 76o inches, which shall be published with and as a supplement to any newspaper chargeable with any of the foresaid duties, shall in that case be charged only with the duty of one halfpenny. Then follow definitions of what are to be deemed anu taken to be newspapers chargeable with these duties. These are, 1st, Any paper containing public news, intelligence, or occur¬ rences, printed in any part of the united kingdom, to be dispersed and made public; 2dly, any paper printed in any part of the united kingdom weekly or oftener, or at intervals not exceeding twenty-six days, containing only or principally advertisements ; and, 3dly, any paper con¬ taining any publicnews, intelligence, or occurrences, or any remarks or observations thereon, printed in any part ot the united kingdom, for sale, and published periodically, or in parts or numbers, at intervals not exceeding twenty-six days between the publication of any two such papers, parts, or numbers, where any of the said papers, parts, or num¬ bers shall not exceed two sheets of the specified dimen¬ sions, exclusive of any cover or blank leaf, or shall be pub¬ lished for sale for a less sum than sixpence, exclusive ot the duty imposed by the act. With reference to this last description of newspapers, it is provided, that no quantity of paper less than a quantity equal to twenty-one inches in len°th by seventeen inches in breadth, in whatever way or form the same may be made or divided into leaves, or "in whatever way the same may be printed, shall, with reference to any such paper, part, or number, as has been above described, be deemed or taken to be a sheet. And it is also generally provided, that any of the several papers before described shall be liable to the duties imposed by the act, in whatever way or form they may be printed or folded, or divided into leaves or stitched, and whether the same shall be folded, divided, or stitched, or not. I he exemptions are, the Police Gazette or Hue and Cry; daily Xe**. accounts or bills of goods imported and exported ; warrants or certificates for the delivery of goods, and the weekly bills of mortality ; and also papers containing lists of prices cur¬ rent, the state of the markets, accounts of the arrival, sail¬ ing, or other circumstances relating to merchant ships or vessels, and generally any other matter wholly of a com¬ mercial nature ; provided such bills, lists, or accounts do not contain any other matter than that which has usually been comprised in them. . „ „ . The regulations prescribed by this act are the following, viz. A discount of twenty-five per cent, on the above du¬ ties is allowed to newspapers printed in Ireland. 1 o pre¬ vent fraud in the returns as to newspapers, it is enacted that, from the 31st of December 1836, a separate or dis¬ tinctive stamp or die must be employed for each paper. No person can print or publish a newspaper until alter a declaration has been made and lodged at the stamp-office, containing certain particulars specified in the act as to the names and addresses of the printer and certain of the pro¬ prietors, &c. of such paper, under a penalty of fifty pounds; and persons wilfully making a false or defective declara¬ tion are, upon conviction, to be deemed guilty ot a mit>de‘ meanour. There are also a number of regulations intended to provide for the discovery and liability ot the printer and proprietors, the security of the duties, and the prevention of the sale of unstamped papers. Any person publishing, selling, or disposing of newspapers not duly stamped, is subjected to a penalty of tw enty pounds; and it is de¬ clared to be lawful for any officer of stamps, or any person authorized by the commissioners for that purpose, to seize any such offender, and take him before any justice ha\ung jurisdiction where the offence is committed, who shall summarily determine the matter, and, in default or pay¬ ment upon conviction, commit such offender to prison lor some term not exceeding three calendar months, nor less than one. The penalty for sending abroad newspapers not duly stamped is L.50. Justices may grant warrants to search for unstamped newspapers, to seize presses, &c. used in printino- them ; on admittance being refused, officers and others may enter forcibly ; and persons offering resistance to officers in the discharge of their duty incur a penalty ot twenty pounds. . . f Such are the provisions, exemptions, and regulations ol the act 6 and 7 William IV. c. 76. The duty, which for¬ merly amounted (deducting the discount) to threepence one fifth, being thus reduced to one penny, the price ot the great majority of the London papers has in COD*e quence been lowered from sevenpence to fivepence ; but provincial papers, which are got up at comparatively little expense, are now generally sold for fourpence halfpenny or fourpence; and this is also the case with one or two ot the metropolitan journals. The reduction of the price oc¬ casioned a considerable increase in the demand for the esta¬ blished journals; and, since the reduction of the duty, considerable number of new weekly papers also started in¬ to existence, both in the metropolis and throughout tn country ; but hitherto no new daily paper has been es blished, and several of the weekly prints have already dis¬ appeared. Supposing it to have been expedient to reduce the duty, and to fix it at an uniform amount upon all papers, the arrangements prescribed in the act 6 and < V i IV. are perhaps as unexceptionable as any that coul devised; but some persons are of opinion that u have been better to assess the duty upon an ad™ { principle, making it in every case a certain aliquot par t.li6 price. » The returns of the London journals arise from two sour¬ ces ; the profits on the circulation, and those derived advertisements. Each paper being now sold to the ne man at fourpence, the sum received by the propneto ^3 NEWSPAPERS. m paper, printing, and the expense of his establishment, is threepence, or one halfpenny more than under the former ^aw. Advertisements form a considerable source of pro¬ fit to newspapers ; indeed, without this, some of the most widely circulated of their number could not support the great expenditure necessary for carrying them on. Each advertisement published in Great Britain is now charged with a duty of one shilling and sixpence, without distinc¬ tion of length ; but until the year 1833 the duty charged was three shillings and sixpence. In 1832, the advertise¬ ments produced L.155,400 in Great Britain, and L.15,249 in Ireland, at least three fourths of which were derived Newspa- from newspapers. pers. The follow ing table has been constructed from detailed returns showing the number of stamps issued to each news~ paper in Great Britain and Ireland, with the number of advertisements published, and the amount of advertise¬ ment duty paid, by each paper during the first six months of the year 1837. The duty is charged at one shilling and sixpence upon each advertisement published in Great Britain, and at one shilling upon each advertisement pub¬ lished in Ireland. Number of Papers. London Papers English Provincial Papers. Welsh Papers Edinburgh Papers Scotch Provincial Papers.. Dublin Papers Irish Provincial Papers Total in Great Britain and Ireland. 93 217 10 13 46 21 GO Number of Stamps. 15,100,197 7,290,452 190,955 768,071 1,121,658 1,493,838 1,049,358 Number of 1 Amount of Advertise- ; Advertisement ments. , Duty. 292,033 317,474 6,499 20,579 45,371 45,848 41,284 460 27,014,529 769,088 L. t. 21,902 9 23,810 11 487 6 1,543 9 3,402 16 2,292 8 2,064 4 55,503 5 2 In 1832, when the government duty was charged at three shillings and sixpence upon each advertisement, the produce of this branch of the revenue in Great Britain and Ireland amounted to L.170,649. The portion of this sum derived from newspapers, as distinguished from other periodical publications, has not been stated; but it may fairly be taken at not less than three fourths of the whole, or L.127,986. From the above table, however, it appears that the newspaper advertisement duty, for the first six months of 1837, amounted to L.55,503s. 5s. 2d. which, for the whole year, would give a return from this source alone of L.l 11,006. 10s. 4d. But in 1833 the duty was reduced to one shilling and sixpence in Great Britain, and one shilling in Ireland, at which rates it is nowr charged upon advertisements in each country respectively; yet notwithstanding this reduction, it appears that, if the se¬ cond half of 1837 equal the first, the total produce of that year, arising from advertisements, will fall short of the total produce of 1832, the year before the duty was re¬ duced, by only L.16,980. Newspapers were of later origin in France than in Eng- land. The earliest notice we have of any publication of this kind is that contained in Saint Foix’s curious Essai Historique sur Paris, where it is stated that Renaudot, a physician of Paris, sought to amuse his patients by collect¬ ing and circulating news, and thus greatly increased his practice. As the seasons were not always sickly, and the doctor had a taste for newsmongering, he considered that e might turn both his time and his talents to account by giving weekly to his patients some fugitive sheets contain¬ ing the news of various countries ; and for this he obtain- e a privilege in 1632. But there was really no political press in France until the year 1789, when the Constituent h 6 \ u m tlie declaration of> rights, decreed (5th Oc¬ tober) that the free communication of thoughts and opi¬ nions is one of the most precious rights of man, and that every citizen may therefore speak, write, and print freely, sau a repondre de 1’abus de cette liberte dans le cas de- ^rn\in^ P^.r a l0*- This decree, which formally recog¬ nised the liberty of the press, at the same time called it in o existence. But no distinction was made between the V an(?us jr’odes of publication, and no greater securities were mjuired for newspapers than for books and pamphlets, me periodical press was a stranger to the habits of the country, and the public were not prepared for it. Violent and witty pamphlets were indeed written, but no one had yet learned either to write or to read a journal. In this re¬ spect the Moniteur, an official paper, began the education of the community in France. No journals were previously known, except the Mercure, the Gazette de France, and the Courrier de Provence, which had been the depository of Mirabeau’s harangues, before the opportunity had ar¬ rived for launching them in the National Assembly. As the passions of men became heated, a new brood was hatch¬ ed, amongst which Marat’s Ami du Peupie, and Hebert’s Pere Duchesne, enjoyed a bad pre-eminence. The rapidity and acerbity of the pamphlets of the time were suited to the taste of a people which lived upon excitement. But still a journalist was, in fact, an individual who united and confounded all the branches of the work in his own per¬ son ; it was Marat, or Hebert, or Camille-Desmoulins. Vio¬ lent alternations of license and despotism distinguished the most stormy period of the Revolution ; yet, in spite of the extravagance of the one, and the disproportionate severity of the other, the press continued to make way. Under the consulate and the empire it was subjected to systematic control. No journal could appear without the authority of the minister ot the interior; the number of provincial pa¬ pers was limited to one for each department, and these were placed under the authority of the prefects. On some occasions, however, Napoleon himself became a journalist, and replied in the Moniteur to the manifestoes of the Bri¬ tish government. He also encouraged a revival of religious doctrines, the influence of which was felt in literature be¬ fore it reached the sphere of politics. Of this school the Journaldes Debats v/as, the centre, and Chateaubriand and Bonald wrere the organs. Things proceeded in this way till af ter the disastrous campaign of Moscow, when the liberty of writing and speaking began to be once more asserted, and public opinion was ardently supported by the rising genera¬ tion ; so that, upon the whole, when the French empire was broken up, the press had in some measure taken root in the habits of the country, and the demand for newspapers had become general. Even whilst the expression of opinion was checked, the means of publicity were established and increased. The Moniteur, the Bulletin des Luix, and the Journal de la Librairie, awakened attention to the public interests ; each department had a paper of its own; and 172 NEWSPAPERS. Newspa¬ pers. Paris had already several journals, particularly the Gazette, the Journal de Paris, the Quotidienne, and the Journal 'des Debats, which, under the title of Journal de [Empire, had as many as 20,000 subscribers. Literary criticism was installed in the daily papers, and gave birth to the Feuileton, to which the pens of Dussault and Geoffrey im¬ parted that sharp and sparkling vivacity which still pre¬ serves its traditional charm. At first, however, it was no better treated by the government of the restoration than it had been by that of the empire. Its history during this period is tilled with laws and ordinances, succeeding each other at short intervals, and marking the various turns of the conflict between the men of the past and those of the present time, the restored government, and the liberal party, as it is called. But in 1819 a law was passed which had the merit of acknowledging sound principles x’especting the rights of publicity ; and by another enactment, made in 1828, a sort of compromise was entered into between the rights of the press and the prejudices of the government. Since the revolution of July 1830, however, a material change has taken place. In 1819, the interest and the position of the parliamentary tribune and the press were identical; since 1830, they have become two distinct and rival powers, one or other of which must ultimately give way. In the meanwhile, the gagging enactments of the year 1835, which characterize the existing legislation, have given a decided preponderance to the tribune, and, through it, to the government. The French journals fluctuate so greatly that they can only be described generally in connection with the events of the time. When M. de Villele came into office, the two organs of the liberal party were the Constitutionnel (established in 1815), the Courrier Frangais, the Journal du Commerce, and the Journal de Paris ; whilst the royal¬ ist party divided their patronage between the Journal des Debats, the Gazette de France, and the Quotidienne. I he Aristarque and the Oriflamme were then set up by the ultra-royalists ; and Villele established the Etoile, an even¬ ing paper devoted to the personal defence of the minister. The Journal des Debats now seceded from the side of go¬ vernment, and brought over to the liberal party the sup¬ port of that portion of the middle classes which had es¬ poused the interests of the restored monarchy. The Globe and the Producteur led on the public to the study of science, literature, politics, political economy, and philosophy, and sowed the seeds of instruction in many minds where they have since ripened into an abundant harvest, f he daily papers obtained an entire mastery over public opinion. The Constitutionnel and the Journal des Debats were really the kings of the multitude ; and their slightest hint acted sympathetically upon the resolutions of the community.1 The administration of M. de Martignac, which was a com¬ promise with the liberal party, abolished the censorship, and reduced the securities paid in by the journals. It only gave birth to one ministerial paper. But that of M. de Polignac, which was openly hostile to the liberty of the press, elicited a new class, resolved to go all lengths, and to yield to no obstacle. Then appeared the Universel, a partisan of absolute power; the Temps, representing the centre gauche; the National, detached from the Constitu¬ tionnel, and conducted by M. Thiers, in the interest of the house of Orleans; and the Globe, which now became a daily paper. In the provinces appeared the Tribune, des De- partements, and the Courrier des Electeurs ; but the great body of the people still clung to the old-established and well-known papers. The popularity of the Constitutionnel, the Journal des Debats, and the Courrier Fran^ais, in- pers. creased with the danger. When the revolution of July^-yv broke out, the first of these papers had a circulation of 22,000, and the second of 18,000 ; and each of the twelve shares in the former journal, which were originally taken at L.200, though the money was never paid, returned a divi¬ dend of L.2000. In fact, the revolution of July was the royal reign of the press, when the two journals already men¬ tioned enjoyed an almost supreme authority. But since that period it appears to have undergone very considerable changes. The republican party was the first to multiply its organs. In a short time it brought out the National, the Mouvement, the Revolution, the Tribune, the Patriote, the Avenir, the Rejbrmateur, the Populaire, and the Eons Sens. The two last were Sunday papers, which only cost one penny each, and were sold by hawkers. As many as 50,000 copies of the Eons Sens have been sold in this manner in one day. But the law which subjected the public hawkers to the monopoly of the police put a stop to this traffic ; the republican press shared the same fate as the republican emeutes 7 and subsequent enactments gave it the coup de grace. The Eons Sens and the National, however, still maintain a languishing existence as daily papers. From 1832 to 1835, whilst the tiers-parti, headed by Dupin, had a majority in the Chambers and in the country, several journals were published in harmony with that state of affairs, and some of the old ones moderated their tone, or changed their denominations. In 1836, newspapers were founded, not in support of any party or opinion, but purely on speculation, the profits realized by a few fortunate journals having tempted adventurers to embark in such undertakings. We may add, that a few enterprising individuals have undertaken to bring the daily press in France to the level of the humblest fortunes, by publishing newspapers at forty francs, or L.l. 12s. pet an¬ num. The projector of this system was M. Emile Girar- din, deputy of the Creuse, whose own paper, La Presse, has obtained a circulation of about 12,000. But the Ulti¬ mate success of the experiment is far from being certain. We have no means of ascertaining with any degree of precision the actual number of the French journals, and the extent of their circulation respectively. In an arti¬ cle written in 1829, and inserted in the Compilateur, the author, speaking of things as they then stood, says, “ There are in Paris a hundred and fifty-two journals, li¬ terary, scientific, and religious, and seventeen political; in all a hundred and sixty-nine. Of these papers a hun¬ dred and fifty-one are constitutional, or, as they are call¬ ed, liberal, the eighteen others being more monarchical in their spirit. The hundred and fifty-one constitutional journals have, it is stated, 197,000 subscribers, 1,500,000 readers, and produce an income of 1,155,000 francs (L.46,200) ; the eighteen others have 21,000 subscribers, 192,000 readers, with an income of 437,000 francs (L.l7,480). The Moniteur, the official paper, has from 2500 to 4000 subscribers, principally public functionaries; the Constitutionnel, from 18,000 to 20,000 subscribers; the Journal des Debats, from 13,000 to 14,000 subscrib¬ ers ; the Quotidienne, 5000 subscribers; the Courrier Frangais, 4500 subscribers; the Journal du Commerce, 3500 subscribers; the Gazette de France, 7000 subscrib¬ ers; the Messager des Chambres, 2500 subscribers; the Tribune des Departements, a new paper, 100 subscribers, and the Nouveau Journal de Paris, from 1000 to 1500 f ^r » When General Foy died, the daily press called upon the country to provide for his children, and a mffffon of francs^was soon nent hazard of another conflict in the streets of Paris. ew per ''v NEWSPAPERS. rma ers. * subscribers. All these are published in the capital. The journals printed in the provinces are calculated at seventy- five, exclusive of papers for advertisements and ministe¬ rial bulletins. Of these, sixty -six are constitutional, being supported only by subscribers of the same way of think¬ ing. One, the Memorial de Toulouse, is supported by the archbishop of that diocese; four are, it is asserted, paid from the secret funds of the Jesuits; and the other four are monarchical, but possess little influence.” Since the period to which this applies, however, great changes have taken place, and the circulation of some of the leading daily journals has declined. Nevertheless, it appears that a share in the Constitutionnel is still worth twenty-five times its original cost; that the shares in the Gazette des Tribunaux, which, at the outset, were worth only 500 francs, are now sold for 30,000 ; and that the Gazette de France has, for a long time, brought the proprietor an in¬ come of 200,000 francs, or L.8000 a year. In Germany, newspapers originated in the Relations, as they were termed, which sprung up at Augsburg and Vien¬ na in 1524i, at Ratisbon in 1528, at Dillingen in 1569, and at Nuremberg in 1571, and which appeared in the form of letters printed, but without date, place, or number. The first German newspaper in numbered sheets was printed in 1612, and entitled “ Account of what has happened in Germany and Italy, Spain and France, the East and West Indies, and other countries.” Since that time, public pa¬ pers have successively appeared in different places, and under various titles, but all of them subject to a strict cen¬ sorship. In Germany, however, as in France, the periodi¬ cal press was of little importance till the era of the French Revolution, and, in comparison with the state of matters in these countries, it has always remained so. By the reso¬ lutions of the German Diet in 1819, it was placed under strict supervision, and still continues subject to a vigilant censorship. Till the commencement of the French Revo¬ lution, the Hamburger Correspondent was almost the only paper in Germany which derived its information respect¬ ing foreign countries from original correspondence; and at that time its sale was estimated at between 30,000 and 36,000 copies. Subsequently, however, it declined, prin- cipaHy owing to the occupation of Hamburg by the French, and its sale amounted to only a few thousands. In the year 1828, twenty-one gazettes, daily and weekly, were pub¬ lished at Hamburg. But a new kind of periodical sprang up in Germany in the year 1798, and soon outstripped all others. This was the Allgemeine Zeitung, or Universal Gazette, established by Cotta, a bookseller in Tubingen, aJ/? ^estjne^ to become an important political organ. The Allgemeine Zeitung is now published at Augsburg. In all the countries of Europe it has correspondents, who sup¬ ply it with intelligence; and both the German and foreign governments frequently make use of it to influence pub¬ lic opinion by demi-official articles. This has been done uit i much dexterity by the Austrian government, espe- oia y in its transactions respecting paper money and the pub ic stocks; and even the French ministry have, it is said, occasionally made use of it for similar purposes. But 9000 a olnSn advfntages> the sale is small, not exceeding -.000 or 2500, and barely covers the expenses. The de- i.veranceof Germany in the year 1813 gave rise to a num- nf f-° 1 lCa^ PaPers’ ad imbued with the awakened spirit inumnl ,otzebue and Niebuhr each commenced a tinufv] °tk11S descr'Pti°n; but both were soon discon- ~ r of 1816. fho ^“?fi:,S„Ca,ree.r in “l* be.sin'™« 173 servpr wn- i zstereichische Beobaster, or Austrian Ob- MettlrnT h !b lshfd by the Private secretary of Prince na it snl aS organ of the cabinet of Vien¬ na, it speedily acquired a considerable circulation. The German papers of amusement originated with the Zeitung Newspa- fiir die Elegante Welt, which was established at Leipzig in pers. 1801. The number of papers of this description has since been constantly increasing, although many* of them have perished as rapidly as they arose. But of those which have maintained their ground, the most important are, the Mor- genblatt of Stuttgart, the Abendzeitung of Dresden, the Gesellschafter of Berlin, and the Litterarische Wochenblatt, established by Kotzebue. Of all these, however, the Mor- genblatt has the greatest sale. Italy, Spain, and Portugal, present little worthy of notice Journals as respects the newspaper press. Of the Italian journals,ofltaly, the Gazetta di Firenze, the Gazetta di Milano, and the Spain, &c. Diario di Roma, are almost the only ones which are read in foreign countries. - The Giornale Arcadico di Roma em¬ braces literature, the fine arts, and miscellaneous subjects, and the Eco di Milano endeavours to keep up a literary intercourse between Italy and other countries. The Ga- ceta of Madrid has a semi-official character, but in other respects is undeserving of notice. Lisbon has also its or- gan fbi the publication of official documents and commu¬ nications. In Belgium and Holland there are, in French and Dutch respectively, a considerable number of daily and weekly papers, besides monthly publications. In 1830 Switzerland had twenty-four weekly papers, and five others which appealed once a fortnight. The first Russian paper was published in 1703, under Peter I. In 1829 thenum- bei of papers and periodicals published in the Russian em¬ pire was seventy-three; but the only important political journals are the Gazette de St Petersbourg and the Journal de St Petersbourg, both of which are written in the French language. In Sweden there is not much opposition nor independence amongst the newspapers, and political dis¬ cussion is at a very low ebb. An interesting account of the Norwegian journals will be found in Laing’s Residence in Norway, to which the reader is referred. Denmark has about eighty journals, of which twenty-three are devoted to politics, and twenty-five to the sciences. The Greeks have now several newspapers in their own c,-ppV nr, i language, though none of them exerts any considerable in-other pa-* fluence, or has a numerous subscription. A journal is also pers. published at Corfu. In Smyrna the Speciateur Oriental was in 182/ displaced by the Observateur Impartial, and sub¬ sequently by the Courrier de Smyrne, which is conducted in a spirit friendly to the sultan. At Constantinople the Moniteur Ottoman is published in French under the sanc¬ tion of the sultan ; and the viceroy of Egypt has likewise his official organ, in the same language, printed at Boulak, near Cairo. The increase of newspapers in the United States has a™™ been much more rapid than in England. The total num-newspa- ber of newspapers annually issued in the Union has been pers. estimated at from 55,000,000 to 60,000,000, whereas the total number issued in Great Britain and Ireland during the year 1833 was only 34,515,221. It follows that, mak- ing allowance for the difference of population, every indi¬ vidual in America has, at an average, more than twice the supply of newspapers enjoyed by each person in England, brom the low price of the American, as compared with the English and even the French newspapers, they are libe- lally patronised by all classes, and are to be seen in al¬ most every dwelling and counting-house, and in all hotels, taverns, and shops. But we must not estimate the value nor the influence of newspapers by their quantity alone. Regard must likewise be had to its quality, which indeed is the principal consideration to be attended to. But in whatever degree the American may exceed the English or French journals in number, they sink immeasurably be¬ low them in point of quality. In the United States the state of the newspaper press is such that it can scarcely descend lower ; indeed it may be considered as a disgrace 174: NEWSPAPERS. Newspa- to the country. These journals, with but few exceptions, pers. Compara' tive esti¬ mate. io uie uuuutiy. j - --- . indulge in the most offensive, and often brutal personali¬ ties. B Instead of examining the principles of measures, their assail the character and misrepresent the motives of those by whom they are introduced; and, in fact, it would be difficult to name an individual of any distinction who has not been libelled and calumniated by a large portion of the press, to a degree which can scarcely be imagined. Hie magnitude of the evil, however, will in all probability lead to its cure. It can scarcely be supposed that an intelligent and well-instructed people will long continue to patronise a press which traffics in misrepresentation, scurrility, and exaggeration, and which, besides the outrages it commits against individuals, opposes a serious obstacle to wise go¬ vernment and well-considered improvement. . From the immense number of newspapers circulated m the United States, as compared with the population of the country, it follows that the number of subscribers to each paper must be limited ; indeed 2000 is considered as a re¬ spectable list. The consequence is, that one paper is unable to command the talents of several able men, as in France, and that, in the general scramble, the object is t0 flatter the known prejudices, and minister to the bad pas¬ sions of the people, than to enlighten their understandings by inculcating sound principles, or enforcing salutary truths. Their abundance, however, happily neutralises their eftects. Declamation and sophistry are rendered comparatively innocuous by running in a thousand conflicting curren s. But the case would be very different, and the evil alto¬ gether intolerable, if there were in the United States only a few papers, with from 25,000 to 30,000 subscribers, and perhaps five times as many readers. Upon such a supposi¬ tion, journalism would be as influential in America as in France, and in its effects ten times more dangerous, io show the progressive extension of the American newspaper press, it is only necessary to state, that at the commence¬ ment of the revolutionary war in 1775, the number of newspapers published in the United States was only th-rty- seven ; that in 1810 it had increased to 359 ; that in 1828 it exceeded 850 ; and that in 1834 it amounted to no less than 1265. At this time the number of daily papers pub¬ lished within the Union was ninety, and that of other pe¬ riodical journals 130. . . . . , ,. A comparison of the number of periodicals and inhabi¬ tants of different countries, made in the year 1827, gave the following results. At that time there United States upwards of 800 journals to 11,600,000 i habitants; in Great Britain, 483 different newspapers to 23,400,000 inhabitants; in Sweden and Norway, eighty- two journals to 3,866,000 inhabitants ; in Denmark, eighty journals to 1,950,000 inhabitants ; in Prussia, 288 journals to 12,416,000 inhabitants ; in the Netherlands, 150 journals to 6,143,000 inhabitants; in the German confederation, exclusive of both Austria and Prussia, 305 journals to 13,300,000 inhabitants; in Saxony, fifty-four newspapeis to 1 400,000 inhabitants; in Hanover, sixteen newspapers to 1,550,000 inhabitants; in Bavaria, forty-eight newspapers to 3,960,000 inhabitants; and in France, 490 P^odical publications of all kinds to a population of about 32 000,000. A comparison of the number of periodicals and inhabitants in different capitals gives results scarcely less varied. Ihus, Stockholm, with 38,000 inhabitants, has thirty journals; Rome, with 154,000, has only three ; Berlin, with 221 000 has fifty-three periodical works; Copenhagen, with inhabitants, has fifty-seven journals; and in Paris, which contains a population of nearly 900,000, there are H 6 pe¬ riodical works. Since the date to which this comparison refers, however, the numbers in both respects must have varied considerably; but it is probable that the relative proportions remain pretty nearly the same. It may also be observed, that no general conclusion as to the state of intellectual culture or of political information amongst Newspa. a people can safely be deduced from such comparative ex- positions as that which is above given. The proportional number of journals circulated m the United States is much greater than in any other country; yet, as we have already shown, they are the most worthless, and conse¬ quently the least calculated to diffuse useful knowledge, or to excite a spirit of inquiry, of any in the world. Much has been said both as to the absolute and the General comparative effects, moral and political, produced by news-remark, papers, in those countries where they are freely circulated; and there is room for considerable diversity of opinion re¬ specting the degree and the kind of influence which they exert upon the sentiments and opinions of the public. But that this influence must be considerable, in whatever mode or direction it may operate in particular cases, or under pe¬ culiar circumstances, there can be no doubt at all, even amono-st those who differ most widely as to its real character and effects. It will of course vary according to the re¬ lative condition of different classes or communities in point of information; but the joint effect and full result of Us continual appliance can scarcely fail to be very consider¬ able, even where its action is least concentrated, ihe power of the newspaper press depends, not on single and disjoined impulsions, but on the aggregate effects of con¬ stantly reiterated action ; it is a practical exemplification of the proverb, that the drop hollows the stone, non vi sed scepe cadendo. All experience shows, that any agency or force, however small, if continually applied in the same di¬ rection, and towards the same object or objects, will in course of time produce the greatest results. Still, in different countries, variously circumstanced in point of education and general information, considerable diversity may be ob¬ served in the operation of this power, and in the mode m which it attains its ultimate effect upon the public mino. Where the mass of the people are comparatively enlight¬ ened, and more or less habituated to reflection, the press, in order eventually to govern, must begin by following the current of opinion. It cannot stem, but it may divert, the stream; it must not begin by opposing a direct resist¬ ance, but by skill and address it may ultimately succeed in turning it into a new channel, and in some measure governing it at pleasure. In such cases, there is both ac¬ tion and re-action. Public opinion acts upon the press, and the press re-acts upon public opinion, with an accumulating force, of which, in certain circumstances, it is difficult to exaggerate the extent and the power. But it is otherwise in countries where the mass of the people are comparatively unenlightened, and unaccustomed to form an independent judgment amidst the conflict of antagonist opinions. I here the press is a real and direct po^ver, which acts at once on the public mind, and which, if left to act uncontrolled, may eventually produce the most baneful, not to say fatal, im¬ pressions." In the former case, there is a check in the pre¬ existent condition of society ; in the latter, there is none whatever, except that which may happen to be applied oy ^ From an elaborate calculation made in the year 1819, it was inferred that, including the provincial journals, an Englishman reads daily twenty or thirty times as much as a Frenchman does of the newspapers of his country. I ■> calculation may have been exaggerated, and the dispan y is probably much less now than it was eighteen years ago, but it is nevertheless evident that the balance of the news¬ paper reading, all kinds of journals included, is still on t side of the Englishman, who, again, is exceeded in this re¬ spect by the North-American. Yet, in France, the jou - nals exert a much more direct influence upon public op - nion than either in England or in America. Ihey consu tutea sort of power in the state, which is al;ogetl?erfirre its sible within the limits prescribed by the law, that is, in NEW NEW 175 cia - ordinary exercise; and they give the tone to the senti¬ ments and opinions of the nation. They are not so much "^mirrors which reflect the state of the public mind, as agen¬ cies which impart to it whatever bias or tendency they please. Journalism in that country is therefore seen un¬ der a different aspect from that in which it appears in almost any other; and hence it has been an object of constant vigilance and suspicion on the part of the general govern¬ ment. But if its influence be greater in France than else¬ where, that influence has also been more contested. From its birth, as it displayed a tendency to absorb every thing, so nothing was granted to it without a struggle. No power has ever excited more alarm, has had more enemies, has survived severer trials, or has undergone more singular revolutions. From 1789 to 1830, the ordinary condition of the French press was a rule of censorship and oppres¬ sion ; the rare intervals of liberty vouchsafed to it only served as moments of rest to take breath in that adventu¬ rous campaign, every advance in which was won by hard fighting. Yet the power of the press has grown amidst these trials; the bonds which were imposed upon it to check its movement have fortified its strength, and it is now a sort of dictatorship in the state. The existence of this extraordinary power is accounted for by the circum¬ stances of the countrj'. In Great Britain, and in the United States, where a representative government is firm¬ ly established, each political power occupies its natural place, without transgressing the limits of its proper sphere of action. The press does not invade the province of the legislative chambers, nor do the latter encroach upon the domain of the press. But in France the government is still at a stage of experiment and difficulty ; it alternately looks back to the past, and forward to the future, seeking its equilibrium and its point of rest. The time is not yet come for it peaceably to work out its established princi¬ ple, because that principle is still a matter of doubt and debate; and as long as this experimental state of things shall continue, the constituted powers will have only a se¬ condary importance, and the press, which takes the lead and opens the road to discovery, will necessarily govern the country. But, in a country like Great Britain, where the great body of the people are possessed of informatioq, and the habit of political discussion has long been formed and matured; where the conflicts of party enter as an essential element into the practical working of the constitution, and there exists a steady independent opinion, upon which vio¬ lence and exaggeration are powerless, except in periods of great public excitement; the press is rather an exponent or index of the feelings, sentiments, and opinions of the people, than a controlling or governing power, assuming the form of a dictatorship, and really constituting an imperium in im- perio, as in France. The whole action of government is concentrated in the houses of parliament and in the hands of the administration; and the press is restricted to its proper function, namely, the criticism of events and of pub¬ lic opinions. Ihe people, too, are trained and habituated to this state of things. They are not the slaves, but the patrons, and even the critics, of the press; nor are their minds primarily moved by its speculations, commentaries, and arguments, directed, as these generally are, towards the support of some particular set of opinions. Party journals are for the most part read as such, and the statements or reasonings of one set of writers are coolly compared with those of another. There is nothing, or next to nothing, of t mt undoubting faith, or that blind credulity, which leads nien to believe merely because it is written. Even the warmest partisan will not submit his understanding to the exclusive guidance of the w riter whom, perhaps, he in ge¬ neral most admires and approves of; and hence the best sa eguard against the abuse of free discussion, or the licen¬ tiousness of the press, is to be found in the inherent sta¬ bility of our institutions, and the sense, intelligence, and Newton, morality of the people. (See Chalmers’ Life of Ruddiman ; Periodical Press of Great Britain ; Babylon the Great-, The Great Metropolis; hPCulloch’s Commercial Dictionary and Supplement, 1836 and 1837; Le Compilateur; Girardin, Moyens Legislatifs pour regenerer la Presse, 1835; Encyclopcedia Ameri¬ cana, article Newspapers; the American Almanac for 1835; La Chromque Suisse ; Swedish Language and Li¬ terature ; Statistique et Itineraire de la Russie; Edinburgh Review, vols. xxxii. and xxxviii.; British and Foreign Re¬ view, No. xiii. April 1837.) (a.) NEWTON, a town of the county of Lancaster, in the parish of Winwick, and the hundred of West Derby, dis¬ tant 179 miles from London. It is a borough, and was a market-town, and it had the right of electing two members to the House of Commons, but has been disfranchised. It has some trade in cotton goods. The population amounted in 1801 to 1455, in 1811 to 1589, in 1821 to 1643, and in 1831 to 2139. Newton, a town in the Isle of Wight, within the parish of Colbourn, which formerly returned two members to the House of Commons, but has been disfranchised. It has a good harbour, which, however, is but little resorted to. Newton, a market-town of the county of Montgomery, in South Wales, distant 178 miles from London, and some¬ times called Trenewydd. It is situated in a pleasant and fer¬ tile district on the banks of the Severn. It shares with Montgomery and four other towns the right of electing one member to the House of Commons. It has a market, which is held on Saturday. The population amounted in 1801 to 990, in 1811 to 2025, in 1821 to 3486, and in 1831 to 4550. Newton-Bushel, a town of the county of Devon, 187 miles distant from London. It is situated on the river Teign, about four miles from its mouth, in Torbay. There is a market, which is held on Wednesday. As it is com¬ posed of portions of two parishes, the population of the town in the last census is not distinguished from that of the parishes. NEWTON, Sir Isaac, a distinguished mathematician and natural philosopher, was born at Woolsthorpe, a pic¬ turesque hamlet about half a mile to the west of Colster- worth, in Lincolnshire, and some six miles to the south of Grantham. His birth, which was premature, took place on the 25th of December, O. S. 1642. His father, Mr Isaac Newton, was proprietor of Woolsthorpe to the extent of about L.30 per annum, and farmed it with his own hands. His mother was Harriet Ayscough, the daughter of Mr James Ayscough, of Market-Overton, in Rutlandshire. Ihey had been mai’ried only a few months when Mr New¬ ton died, leaving his wife in a state of pregnancy. The post¬ humous child was so small that “ they might have put him into a quart mug,” and no expectation was entertain¬ ed of his continuing to live. “ Providence, however, ” as his biographer observes, “ had otherwise decreed ; and that frail tenement, which seemed scarcely able to imprison its immortal mind, was destined to enjoy a vigorous maturity, and to survive even the average term of human existence.” Mrs Newton possessed a small property in Leicestershire, about three miles from Woolsthorpe, which raised her an¬ nual income to about L.80. In consequence of the marriage of Mrs Newton to the Rev. Mr Smith of North Witham, she left her son Isaac under the charge of her mother. He received his early education at two day schools at Skedington and Stoke; and in his twelfth year he went to the public school at Grantham, taught by Mr Stokes, and was boarded at the house of Mr Clark, an apothecary. Here his attention was less occupied with his studies than with the mechanical amusements, in which he spent all hisjeisure hours. Mo- 176 NEWTON. Newton, dels of wind-mills, water-clocks, and self-moving caniages, —V"—' were executed by him in succession; and he contrived to amuse his schoolfellows with paper kites and paper lan- thorns, which he raised to great heights in the air. From the play-things of his childhood, Newton made a rapid transition to higher amusements. The daily move¬ ments of the sun were traced upon the walls and roots ot the buildings at Woolsthorpe, and by means of pins and lines he indicated the hours and half hours of his rude dials; and though he was now employed in tending the cattle, and going to the market at Grantham, yet he was often found studying mathematics under a hedge, or glean¬ ing fragments of science from old books m Mr Glark s garret at Grantham. This inattention to the duties ot the farm increased with his years, and his mother came to the resolution of giving him an academical education. After the preparation of a few months at Grantham Schoo , e was sent to Cambridge, where he was admitted ot trinity College on the 5th of June 1660, in the eighteenth year of his age. He was admitted a subsizer in 1661, a bachelor of arts in 1665, a junior fellow in 1667, and master ot aits in 1668. Young Newton’s attention was first turned to the study of mathematics by a passion for judicial astro¬ logy. He considered the propositions in Luchd as selt- evident truths; and in the geometry of Descartes, the Mis¬ cellanies of Schooten, the Clavis of Oughtred, and the Arithmetic of Infinites of Wallis, he acquired his first knowledge of the mathematics. Kepler’s Optics and kaun- derson’s Logic were amongst the books which he caretully studied, and upon which he wrote comments; and so ra¬ pid was his progress in knowledge, that he was considere as bein0- more deeply versed in several branches than his own tutor. In the year 1664. he purchased a prism for the purpose of studying Descartes’ T heory of Colours ; but he does not seem to have made any special use of it. In 1666 he purchased another prism ; and early in 1668 three additional prisms, which were no doubt those which he used in his experiments. He had in 1666 applied him¬ self to the grinding of “ optic glasses of other figures than sphericaland finding that there were other causes than the imperfect converging of rays to a focus which i ender- ed refracting telescopes imperfect, he was led to inquire into the cause of the colours produced by lenses and prisms, and to make those splendid discoveries icspecting the different refrangibility ot the rays of light, the history and nature of which has been given in the article on Optics. Having despaired of improving the refracting telescope, Newton directed his attention to the reflecting one. At this time Gregory’s Optica Promota, published in 1663, fell into his hands ; and, in considering the construction ot the Gregorian telescopes there described, “ he found the dis¬ advantages of them so great,” “ that he altered the design of them, and placed the eye-glass at the side ot the tube rather than at the middle.” On this altered principle he executed a reflecting telescope with his own hands in the year 1668. In 1671 he executed a better one, which was shown to the king, and presented to the Royal Society, in whose custody it still remains. Although Newton delivered a course of lectures on op¬ tics in Cambridge in 1669, 1670, and 1671, containing an account of his discoveries respecting the different refran¬ gibility of the rays of light, yet the Royal Society was not acquainted with them till 16/2. On the 23d of December 1671, he was proposed as a member of that body by Dr Seth Ward, bishop of Sarum, and he was elected on the 11th of January 1672. On the 6th of February he commu¬ nicated to Mr Oldenburg his discoveries respecting light, which he regarded as “ the oddest, if not the most consi¬ derable, detection which had hitherto been made in the Newto ^ operations of nature. No sooner was it communicated to the world that white light consists of seven different colours, having different degrees of refrangibility, than a crowd ot obscure indivi¬ duals assailed, not only his conclusions, but the accuracy of the experiments from which they had been denved. Dr Hooke and Huygens attacked them on different grounds; but Newton, in'a letter to Oldenburg, dated the 11th of June 1672, silenced the arguments of his opponents, and established his general doctrine upon an impregnable basis. The colours of thin plates, first observed by Boyle, and studied by Hooke, had occupied the special attention of Newton. The results of his inquiries were laid before the Royal Society on the 7th of December 1675, and about twelve years afterwards tbe theory of fits was completed, and applied to the explanation of the permanent colours of natural bodies. These researches, however, including his experiments on the inflexion of light, which he gives only as an imperfect fragment, were not published till 1704., when his treatise on Optics appeared. For a full ac¬ count of these discoveries the reader is referred to the article Optics. The first idea of gravity as the cause of the celestial mo¬ tions occurred to Newton in the year 1666, when sitting alone in the garden of Woolsthorpe. Conjecturing that it might extend as far as the moon, he was led to confirm the conjecture by calculation, and thus to establish the doc¬ trine of universal gravitation, “ that every particle of mat¬ ter is attracted by, or gravitates to, every other particle of matter, with a force inversely proportional to tne squaies of the distance.” This great discovery, and its application to the movements of the planetary system, as well as to that of the comets, was published in 1686, in his Philoso- phice Naturalis Principia Mathematica, a work which, to use the words of Newton’s biographer, “ is memorable, not only in the annals of one science or one country, but will form an epoch in the history ot the world, and will ever be regarded as the brightest page in the records of human reason.” This remarkable production was speedily circulated over Europe; and although the discoveries which it contained were for awhile opposed by national as well as personal jealousies, yet the Newtonian philosophy made rapid progress, and finally supplanted the rival sys¬ tems of Aristotle and Descartes. As early as the year 1666, Newton had discovered the binomial theorem and the method of fluxions ; and although he had not communicated this discovery to any ot his friends, yet he had clearly described the principle, and ex¬ hibited the application of his method, in his Analysis per Equationes numero Terminorum injinitas, a work which he had communicated to Dr Barrow in June 1669, and which was not published till 1701, nearly half a century after it was written. Our readers are well aware that the disco¬ very of fluxions was claimed by Leibnitz, and that the controversy which sprung out of this claim is scarcely yet at an end.1 . From the year 1669, when Newton was appointed to succeed Dr Barrow as Lucasian professor of mathematics at Cambridge, till 1688, he led a secluded life within the walls of his college; but events now occurred which drew him from retirement, and placed him conspicuously on the stage of public life. James II., desirous of re-establish¬ ing the Catholic faith as the national religion, had begun to assail the privileges of his Protestant subjects. He or¬ dered Father Francis, an ignorant Benedictine monk, to be received at Cambridge as a master of arts, and the oaths of allegiance and supremacy to be dispensed with. The university resisted this illegal mandate, and chose 1 A full account of this controversy will be found in the article Fluxions, vol. ix. p. 633 ; and Leibnitz, vol. xiii. p* 208. NEWTON. I^irton. nine delegates to defend their independence. Having “^joined in resisting the wishes of the court, Newton was chosen one of the delegates; and such was their firmness, and the argumentative weight of their representations, that the king was led to abandon his design. Newton’s popu¬ larity was extended by the success of the delegates, and he was elected member for the university in 1688, along with Sir Robert Sawyer, having beaten Mr Finch by only five votes. Newton sat in the convention parliament from January 1689 till its dissolution in February 1690. In the discharge of his parliamentary duties, he no doubt experienced the unsuitableness of his income to his new position. The limited means of his relations, and his own generous disposition, had exhausted his scanty re¬ sources, and he and his friends naturally looked to some patronage on the part of the government which might ena¬ ble him to pursue his scientific researches, unembarrassed by those physical wants which have ever been the scourge of genius, and especially of that variety of it which is call¬ ed forth by patient and continuous inquiry. There is ample evidence that unsuccessful applications had been made for this purpose, and the vexation and disappointment which this ingratitude produced, combined with other causes, seem to have thrown Newton into a state of nervous irri¬ tability, which threatened to paralyze even his mighty in¬ tellect. It is difficult to trace with distinctness the suc¬ cession of causes which at this time contributed to disturb his serenity ; but it appears that, about the end of 1692, or early in 1693, his chemical laboratory had been burn¬ ed, and a number of manuscripts destroyed ; and on another occasion, several valuable manuscripts were consumed by a candle which he had left burning whilst he went to cha¬ pel. These losses seem to have affected him deeply, and “ he was so troubled thereat, that every one thought he would have run mad, and he was not himself for months after.” Another account of these events, communicated by one Colin or Collins to Huygens,1 represents Newton as having actually become insane, and unable to understand his own writings; and, relying upon the accuracy of this statement, M. Biot and other French philosophers consi¬ dered his insanity as the reason why Newton had ceased to make scientific discoveries. They even went so ffir as to ascribe his study of theology to this enfeebled state of mind,, and thus to deprive our faith of that support which it derived from having been illustrated and defended by so great an expositor and champion. 1 hat the mind of Newton was sound and active during t le period when it is said to have been seriously disturb¬ ed, may be proved by many undoubted facts. In this interval he composed his four celebrated letters to Dr Bentley on the existence of a Deity ; letters which evince a power of thought, and a serenity of mind, incompatible 177 even with the slightest obscuration of his faculties. The Newton, first of these letters was written on the 10th of December 1692, the second on the 17th of January 1692-3, the third on the 25th of February, and the fourth on the 11th of February 1693-4. In 1692 we find him also engaged in mathematical researches on the quadrature of curves, and in obsei vations on halos; and in November and December 1693 he was occupied in discussing mathematical questions with his correspondents. On the 1st of September 1694 Newton visited Flamsteed at Greenwich, and he was at that time occupied with the difficult and profound subject of the lunar theory.2 That Newton’s health was affected from the middle of 1692 to the middle of 1693, is quite certain ; and that his nervous system .was shaken by loss of sleep and appetite, is mentioned by himself. Exaggerated rumours had reached his friends in London, and Mr Pepys was led to inquire of his friends at Cambridge if these rumours of a discomposure of his mind had any foundation. Mr J. Millington, who, we believe, was tutor of Magdalene College, returned the following answer:—“ I was, I must confess, very much surprised at the inquiry you were pleased to make by your nephew about the message that Mr Newton made the ground of his letter to you, for I was very sure I never either received from you or de¬ livered to him any such ; and therefore I went imme¬ diately to wait upon him, with a design to discourse with him about the matter; but he was out of town, and since I have not seen him, till, upon the 28th, I met him at Huntingdon, where, upon his own accord, and before I had time to ask him any question, he told me that he had writt to you a very odd letter, at which he was much concerned ; added, that it was in a distemper that much seized his head, and that kept him awake for about five nights together, which upon occasion he desired I would represent to you, and beg your pardon, he being very much ashamed he should be so rude to a person for whom he hath so great an honour. He is now very well, and though I fear he is under some small degree of melan- choly, yet I think there is no reason to suspect it hath at all touched his understanding, and I hope never will; and so I am sure all ought to wish that love learning, or the honour of our nation, which it is a sign howmuchitis look¬ ed after, when such a person as Mr Newton lyes ne¬ glected BY THOSE IN POWER.” In the beginning of the year 1692, Charles Montague, Lord Monmouth, and Mr Locke, were exerting themselves to obtain some appointment for Newton. In his letters to Locke, Newton himself refers, with a considerable degree of feeling, to these exertions. He conceived that Charles Montague, .under the influence of some old grudge, had been false to him, and that there had been a design to sell 1 'rS <5r!> t|'e„n'!‘nu;KriPt “f Huygens was first published in Biofs Life of Newton. “ On the 29th of May come insane, eifhVr In eonSqtnce of “S* ilIustrious Keometer Isaac Newton had he! h“me’and is'l'eMrtewS fS Thtyefe S)° excellent mathematician, philosopher Line Vo wl p n f 1 c 7 Cohege, that is mightily famous for his learning, being a most the ill luck to perish anX miprl^ h - f l , ThlS,book: whlch he valu^ so much, and which was so much talked of had «er. In a winferWninXav X ^]USt "X X waf almost a* Putting a conclusion to the same af?XhL man fortunately left burning thfre too catchedhoH hv “XX7 table’ wh,ilst he went to chaPel> the candle, which he un- sumed it, and several other valuable writlLs an/ LT i f "X FT"’ aTlhey ^ed the aforesaid book and utterly con- from chapel, and had seen what wi« ,1 ” ’ and’ T1 ^ TSt "TT" ’ dlJ 110 ^urther mischief. But when Mr Newton came run mad! he w“ »troubled th“eat’ z 178 newton. Newton, him an office; and it is to the failnre of these attempts 'that Mr Millington alludes with such just seventy in the letter which we have quoted. . i Newton was now in the fifty-third year of his age; and whilst those of his own standing at the university had been appointed to high stations in the church, or to lucrative offices in the state, he still remained without any mark of national gratitude. His fellow-labourers in science in every part of Europe were enjoying the favour and pro¬ tection of their respective sovereigns, who had even in¬ vited foreign philosophers to their capitals to enjoy the li¬ berality which they had extended to their own. F«re,gn- ers viewed with astonishment the treatment of Newton bv his own sovereign, and the French king had thf ^ bfeness of mind to* offer him, through Cassini, a liberal PeBuUhiS blot upon the English name was atlast removed by Charles Montague, when, in the yearH16^ hner "?s Jv pointed chancellor of the exchequer. He had previously consulted Mr Newton upon the subject of the recoinage , and when Mr Overton, the warden of the mint, was made a commissioner of customs, he served both his friend and his country by appointing Newton to that important office. « I am very gkd? says he, “ that last I can give you a good proof of my friendship, and the ^teem the kmg of your merits. Mr Overton, the warden of the mint, is made one of the commissioners of the customs, and * king has promised me to make Mr Newton warden of the mint. The office is the most proper for you. fis the chief office in the mint; ’tis worth five or six hundred pounds per annum, and has not too much business to re¬ quire more attendance than you can spare. K The chemical and mathematical knowledge of Newton proved of great use in carrying on the recoinage, which was completed in about two years ; and such ^as tj16 ?eaJ and devotion with which Newton discharged the laborious duties of this office, that he was appointed, in 1697, to the mastership of the mint, which was worth between twelve and fifteen hundred pounds per annum. < In this situation he drew up a table of assays of foreign coins, and composed an official report on the coinage. Having retained his pro¬ fessorship at Cambridge whilst he was warden, he now ap¬ pointed Mr Whiston as his deputy, with all the emolu¬ ments of the chair. , r In the same year Newton was elected a foreign asso¬ ciate of the Royal Academy of Sciences at Paris. In 1701 he was elected one of the members of parliament tor the University of Cambridge. In 1703 he was raised to the presidency of the Royal Society of London, to which he was annually re-elected during the remaining twenty-hve yeWhen Queen Anne and the court visited Cambridge on the 16th of April 1705, she conferred the honour of knight¬ hood on Mr Newton. _ . t On the dissolution of parliament in 1 *05, Sir Isaac was again a candidate for the representation of the university ; but he was beaten by a great majority. He was supported by all the resident members; but being a whig in politics, and the cry of the church in danger having been raised on that occasion, he became the victim of the ignorance and fanaticism of the non-resident constituency. The first edition of the Principia having been sold oft, Dr Bentley and his other friends had, for a considerable time, been urging Sir Isaac to prepare a new edition. The duties of the mint would not permit him to devote much time to such a task; but he willingly complied with the re¬ quest of his friends, when Mr Roger Cotes, Plumian pro¬ fessor of astronomy at Cambridge, undertook to super¬ intend its publication. Newton promised to send his own revised copy to Mr Cotes in July 1709; but delays took place, and the work was not completed till the spring of 1713 Nearly three hundred letters passed between Sir Newto: Isaac and Cotes, in which the various alterations and ad- d tons are discussed; and this correspondence a. least the letters of Newton to Cotes, has been carefully preserved in the library of Trinity College, Cambridge. When George I. succeeded to the throne of Great Bri¬ tain Sir Isaac became an object of interest at court^ I he Princess of Wales, afterwards queen-consort to George II took great pleasure in conversing with him, and in corresponding with Leibnitz. Having one day mentioned to her royal highness a new system of chronology which he had composed whilst resident at Cambridge, she re¬ quested Sir Isaac, through the Abbe Conti, to give her a cony of it. He accordingly drew up an abstract of it from the loose papers to which it had been committed, and sent it to the princess for her private use alone. He afterwards allowed a copy to be given to the Abbe Conti, on the con¬ dition of its not being communicated to any person what¬ ever The abbe, however, forgetting his obligation, com¬ municated it to M. Freret, a learned antiquary in Paris, who translated it, and endeavoured to refute R- H was printed early in 1725, under the title of Abrege de^Chro. noloaie de M. le Chevalier Newton, fait par hu-meme, et traduit sur le Manuscrit Anglais. Upon receiving a copy of this work, Sir Isaac Newton printed, in the Philoso¬ phical Transactions for 1725, a paper, entitled Remarks on the Observations made on a Chronological Index ot Sir Isaac Newton, translated into French by the obser- vator, and published at Paris. In these remarks Sir Isaac charges the abbe with a breach of promise, and gave a triumphant answer to the objections which Freret had urged against his system. Father Souciet entered the field in defence of Freret; and, in consequence of this contro- versy, Sir Isaac was induced to prepare his larger work, which was published in 1728, after his death, and entitled the Chronology of Ancient Kingdoms amended ; to which is prefixed, a short Chronicle from the First Memory of Kings in Europe to the conquest ot Persia by Alexander There is no part of Sir Isaac Newton’s biography more remarkable than that which relates to his theological stu¬ dies. From a very early period of his life Newton had se¬ riously embarked in the study of theology. Previously to 1692 he was known by the appellation of an excellent di- vine, and it is well known that he had begun to study the subject of the prophecies before 1690; whereas, in order to show that his theological writings were the productions of his dotage, and subject to his supposed mental aliena¬ tion, M. Biot has fixed their date between 1712 and 1719, between the seventieth and the seventy-fifth year of his a°One of the most remarkable of Sirlsaac’stlieological productions is his Historical Accountof Two Notable Cor- ruptions of the Scripture, in a letter to a friend. This friend was Mr Locke, who received the letter in November 1690. Sir Isaac seems to have been then anxious for its publica¬ tion ; but as the effect of his argument was to deprive the Trinitarians of two passages in favour of the trinity, became alarmed at the probable consequences of sud a step. He therefore requested Locke, who was then go j to Holland, to get it translated into French, and published on the Continent. Being prevented from going to Hoi land, Locke copied the manuscript, and sent it, witho Newton’s name, to M. le Clerc, who received it before the 11th of April 1691. On the 20th of January 1692, Le Clerc announced to Locke his intention to publish the pamphlet in Latin; and upon intimating this to Sir Isaac, he treated him “ to stop the translation and imPreSf,10l • soon as he could, for he designed to suppress them, in was accordingly done; but Le Clerc sent the manuscrip to the library of the Remonstrants, and it was aft NEWTON. } rton. published at London in 1754, under the title of Two Let- —'ters from Sir Isaac Newton to M. le Clerc. This edition is imperfect, and in many places erroneous ; and Dr Hors¬ ley has published a genuine one, which is in the form of a single letter to a friend, and was taken from a manuscript in Sir Isaac’s own hand, in the possession of the Reverend Dr Ekins, dean of Carlisle.1 Sir Isaac Newton left behind him in manuscript a work entitled Observations on the Prophecies of Daniel and the Apocalypse of St John, which was published in London in 1733, in one volume 4to; another work entitled Lexicon Propheticum, with a dissertation on the sacred cubit of the Jews, which were printed in 1737; and Four Letters ad¬ dressed to Dr Bentley, containing some arguments in proof of a Deity, which were published by Mr Cumberland, the nephew of Dr Bentley, in 1756.2 Sir Isaac composed some other theological manuscripts which have not been pub¬ lished. Sir Isaac Newton devoted much of his time to the study of chemistry; but the greater number of his experiments still remain in manuscript. His Tabula Quantitatum et Graduum Caloris contains a comparative scale of tempe¬ rature from that of melting ice to that of a small kitchen coal fire. He wrote also another chemical paper, De Na- tura Acidorum, which has been published by Dr Horsley. Sir Isaac spent much time in the study of the writings of the alchemists; and the Rev. Mr Law informs us, that he had diligently studied the writings of Jacob Behmen, and that there were found amongst Sir Isaac’s manuscripts copious abstracts from them in his own handwriting. He states also, that in the earlier part of his life he and his relation Dr Newton of Grantham had put up furnaces and had wrought for several months in quest of the philoso¬ pher’s tincture. These views are rendered more probable by the fact, that in the list of Newton’s manuscripts pub¬ lished by Dr Hutton, and in the possession of the Earl of Portsmouth, there are many sheets in Sir Isaac’s hand, of Flamsteed s Explication of Hieroglyphic Figures, and in another hand many sheets of William Yworth’s Processus Mysterii Magni Philosophicus. Amongst the inventions of Sir Isaac Newton we must enumerate his reflecting telescope, his reflecting micro¬ scope, a sextant similar to Hadley’s, and his prismatic re¬ flector, with plane and convex surfaces. We owe also to him some very interesting views on the decussation of the optic nerves, which were first published in Harris’s Op¬ tics; a hypothesis respecting ether as the cause of light and gravity; and some experiments upon the excitation ot electricity on glass.3 The sale of the second edition of the Principia having been rapid, a third edition was called for in 1722. Roger otes had died in the prime of life, and therefore Newton engaged Dr Pemberton to superintend the new edition, w ich was published in 1726, with numerous alterations. During the last twenty years of Sir Isaac’s life, his beau- titul and accomplished niece, Miss Catherine Barton, had managed his domestic concerns. She was the daughter of Mr Robert Barton of Brigstock, and of Hannah Smith, ew on s half sister. She had been a great favourite of Chades Montague, earl of Halifax, who, at his death in o, bequeathed to her a very large portion of his for- une. ns lady, who had been educated at Sir Isaac’s lma1rned Mr Conduit, and continued to reside death 61 1US^an^ ®ir Isaac’s house until the time of his 17.9 hepncA;6 W^len was eighty years old, he had been seized with an incontinence of urine, which was ascribed to stone. By great attention to diet and regimen he succeed- Newton. ed in keeping down this dreadful malady ; but in 1724 he passed a small stone, and for some months enjoyed a tolera¬ ble degree of health. In January 1725 he was seized with a violent cough and inflammation of the lungs, which indu¬ ced him to reside at Kensington ; and in the February of the same year he had a fit of gout both in his feet and hands, which produced a decided improvement in his ge- neial health. His duties at the Mint were discharged by Mr Conduit, and he therefore seldom went to London. Feeling himself well, he went to London on the 28th of Fe¬ bruary 1728, to preside at a meeting of the Royal Society; but the fatigue which attended this duty brought on a violent return of his former complaint, and he returned to Kensington on the 4th of March, when Dr Mead and Dr Chesselden pronounced his disease to be stone. He en¬ dured the sufferings of this complaint with wonderful pa¬ tience and meekness. He seemed a little better on the 15th of March, and on the 18th he read the newspapers and conversed with Dr Mead ; but at six o’clock in the even¬ ing he became insensible, and continued in that state till Monday the 20th of March, when he expired between one and two o’clock in the morning, in the eighty-fifth year of his age. His body was removed to London, and on Tues¬ day the 28th of March it lay in state in the Jerusalem Cham¬ ber, and was thence conveyed to Westminster Abbey, where it was buried near the entrance into the choir, on the left hand. The pall was supported by the Lord Chan¬ cellor, the Dukes of Roxburghe and Montrose, and the Earls of Pembroke, Sussex, and Macclesfield, who were fellows of the Royal Society. The Bishop of Rochester performed the funeral service. The relations who inhe¬ rited his personal estate devoted L.500 to the erection of a monument to his memory. It was finished in 1731, and was erected in the centre of the abbey. The following is the epitaph inscribed upon it: Hie situs est Isaacus Newton, Eques auratus, Qui animi vi prope divina Planetarum motus, figuras, Cometarum semitas, Oceanique ASstus Sua Mathesi facem praeferente Primus demonstravit; Radiorum Lucis dissimilitudines Colorumque inde nascentium proprietates Quas nemo antea vel suspicatus erat, pervestigavit; Naturm, antiquitatis, S. Scripturm Sedulus, sagax, fidus interpres; Dei opt. max. majestatem philosophia asseruit; Evangelii simplicitatem moribus expressit. Sibi gratulentur mortales, tale tantumque extitisse, Humani Generis Decus Natus xxv. Decemb. mdcxlii. ; Obiit xx. Mar. MDCCXXVII. In the beginning of the year 1731 a medal was struck at the Tower in honour of Sir Isaac Newton, bearing the motto, Felix cognoscere causas; and on the 4 th of February 1755 a fine full-length statue of him by Roubiliac, executed in white marble, was erected in the antechapel of Trinity College, Cambridge, at the expense of Dr Robert Smith, the author of the Complete System of Optics. The pedes¬ tal bears the inscription Qui genus humanum ingenio superavit; an assertion which may be justly doubted, even by those who are the greatest admirers of Newton’s genius. ■ Se* Brewster's L* of Newt™, p. 27a. pre^,? the librlry of Trinity College> Cambridge. 180 NEWTON. Newton. The personal estate of Sir Isaac Newton amounted to ' about L 32,000. It was divided amongst his four nephews and four nieces of the half blood, the grandchildren of his mother by the Rev. Mr Smith. The family estates of \V ools- thorpe and Sustern were bequeathed to John Newton, whTe great-grandfather was Sir Isaac’s uncle, by who™ they were sold in 1732 to Mr Edmund lurnor of Stoke Rocheford Sir Isaac bequeathed his estate at Kensington "erte the only Lighter of Mr Conduit who af terwards married Mr Wallop, the eldest son of Lord Ly mington, and subsequently Earl of Portsmouth Stride was succeeded as warden and master of the mint by nenhew, Mr Conduit^ who died in • In his social character Sir Isaac Newton was modest and candid, and affable, accommodating ^mself to every class of society in which he moved. H^s humi ty was that of a philosopher who had experienced both ^ streng and the weakness of the human mind, and of a Chnstian who was deeply impressed with the nnsatis png natu all earthly greatness. “ I do not know, said he, a si time before5his death, “ what I may appear to the world, but to myself I seem to have been only like a boy playing he 7a shore, and diverting ™y-lf‘".Xn^rdina'y findino- a smoother pebble or a prettier shell than ordinary, whikt the great ocean of truth lay all undiscovered before me ” His ^religious and moral character were equally ad¬ mirable. He was deeply versed in the knowledge of the Scriptures, and was not equalled in point of theologica learnC by any of the divines of his age. He was a great fViend of religious toleration, and never scrupled to express bis abhorrence of even the mildest species of religious per- “Sir Isiac Newton was remarkable for his WbffXsln all occasions. His charity was boundless, and he was in the habit of remarking, that those who gave away nothing till they died never gave at all. He wrote to the Provost of Edinburgh in 1724, offering L.20 annually to Mr i a - laurin, provided he became assistant to Mr James Gre- gorv, professor of mathematics in the university. In i /1J he gave fifty guineas to the Rev. Mr Pound who made sorne astronomical observations for Ins use ; and in 1720 he gave him the like sum. He likewise bestowed large dona¬ tions on the Ayscoughs, his relations. „ +Vi0 In his personal appearance Sir Isaac was not above middle size. He had “ a comely and gracious aspect, and a very lively and piercing eye.” He was short-sighted but never wore spectacles, nor lost more than one t00t his life. Bishop Atterbury asserts, in opposition to this, that the lively and piercing eye did not belong to Sir5)Ibaa during the last twenty years of his life. ‘ Indeed, say he, “in the whole air of his face and make there was no¬ thing of that penetrating sagacity which appears in Ins compositions. He had something rather languid in his look and manner, which did not raise any good expectation in those who did not know him.” The manor-house of Woolsthorpe, as well as every other memorial of Sir Isaac, has been preserved with religious care. Mr Turner of Stoke Rocheford, the proprietor, put up in 1798, a white marble tablet in the room where Sir Isaac was born, recording his birth and death, and bearing the celebrated lines of Pope : Nature and Nature’s laws lay hid in Night; God said, “ Let Newton be,” and all was Light. The house still contains on its walls the two dials made by Newton himself, but without the styles. His second tele¬ scope is preserved in the library of the Royal Society ; and his globe, universal ring dial, quadrant, compass, and are- || p’ fleeting telescope said to have belonged to him, in the li- Newton, Y necung i -j brarv of Trinity College, Cambridge. The manuscripts, correspondence, and other papers of Sir Isaac Newton, have been preserved in different collec¬ tions. But the most important collection is the family one TtL possession of the Earl of Portsmouth. They are de¬ posited at Hursbourne Park, his lordship s seat in Hamp¬ shire, and have been very recently (m 1837) examined by H A Fellowes, Esq. the accomplished nephew of Lord Portsmouth, and by Sir David Brewster, who has been permitted to make use of them in composing Memoirs of the Life, Writings, and Discoveries of Sir Isaac Newton. In this examination much new and valuable information has been discovered relative to the early life of Sir Isaac, which had been collected by his nephew-in-lavy Mr Con¬ duit, for the purpose of writing a life of him, which he was prevented from executing by his death m the year 17d/. Many letters and papers of Newton are in the possession of the Earl of Macclesfield at Shirburn. They were found amongst the papers of William Jones, the fi'iend ^ir Isaac, and the father of Sir William Jones. These papers have recently been put into the hands of Professor Rigaud of Oxford, who is now preparing them for publication. About thirty-four of Newton’s letters to Flamsteed are deposited in the library of Corpus Chnsti College, Oxford; but a large portion of the correspondence between New¬ ton and Halley has recently been found by Mr Baily in the possession of Mr Giles, a private gentleman in Lon¬ don, and in the Royal Observatory at Greenwich, along with various important documents intimately connected with the scientific history of that period. As the papers found in the observatory had been purchased by the Board of Longitude in 1771, the lords commissioners of the ad¬ miralty, on the recommendation of the board of visitors of the Royal Observatory, agreed to print thpm. they have been accordingly printed in a large quarto volume, under the superintendence of Mr Baily. Doubts have been entertained by some, and openly ex¬ pressed by others, relative to the propriety of Publishing all the papers contained in this collection. Several of the letters of Flamsteed, and various parts of Ins autobiogra¬ phical memoir, contain bitter and malignant attacks upon the character and conduct of Sir Isaac Newton, which, it thev had been published during his life, or not long after it, might have been refuted on the authority of documen¬ tary and other evidence which cannot now be oh tame . Fortunately for the memory of Sir Isaac Newton, Ins g - nerous and noble character, his meek and gentie dis^si- tion, and his Christian forbearance and patience, form a secure shield against the reckless and wanton charges of his irritable and violent assailant. If reflections have been cast on the character of Newton by the animadversions of Flamsteed, the conduct of the latter has been exposed to a scrutiny which it may not be able to sustain; and the friends of Newton are reluctantly compelled to collect the opinions which contemporary writers had expressed ot Flamsteed, in order to enable the public to form J estimate of the testimony which he has borne against fellow-labourer in science. , Those who wish to know more of the dlffeJ'ence® tween Newton and Flamsteed, may consult the vohime above mentioned, which is entitled An ^cc0Jin •, d Rev. John Flamsteed, the first Astronomer Roy a!, compile^ from his own manuscripts, and other authentic do never before published; to which is added, his Bntis Catalogue of Stars, corrected and enlarged, print y order of the Lords Commissioners of the Admiralty, , This volume wa, n„t published t the who!e impression, which was small, being distributed in presents to scientific institute public libraries, and individuals interested in the subjects to which it relates. NEW :hy. 1 II 2! v'ton. M toniandon, 1835. Mr Baily, at his own expense, published, in l loso- January 1837, a supplement to this work, which, with his usual liberality, he “ distributed amongst those persons and institutions only to whom the original work was pre- ^ sen ted.” (n.n.n.) Newtonian Philosophy, the doctrine of the universe, and particularly of the heavenly bodies, their laws, affec¬ tions, &c. as delivered by Sir Isaac Newton. The term Newtonian philosophy is applied very differ¬ ently. Some authors under this denomination include all the corpuscular philosophy, considered as it now stands corrected and reformed by the discoveries and improve¬ ments made in several parts of it by Sir Isaac Newton. In this sense it is that sGravesande calls his elements of phy¬ sics Introductio ad Philosophiam Newtonianam; and in this sense the Newtonian is the same with the new philoso¬ phy, standing contradistinguished from the Cartesian, the Peripatetic, and the ancient corpuscular system. By New¬ tonian philosophy others mean the method or order which Sir Isaac Newton observes in philosophizing, viz. the rea¬ soning and drawing of conclusions directly from phenome¬ na, exclusive of all previous hypotheses; the beginning from simple principles, deducing the first powers and laws of nature from a few select phenomena, and then applying those laws, &c. to account for other things. And in this sense the Newtonian philosophy is the same with the ex¬ perimental or inductive philosophy, and stands opposed to the ancient corpuscular system. By this philosophy some understand that particular kind in which physical bodies are considered mathematically, and where geometry and mechanics are applied to the solution of the appearances of nature. In this sense the Newtonian is the same with the mechanical and mathematical philosophy. Others, again, by Newtonian philosophy, understand that part of physical knowledge which Sir Isaac Newton has handled, improved, and demonstrated, in his Principia. Lastly, by it is meant the new principles which Sir Isaac Newton has brought into philosophy, the new system founded thereon, and the new solutions of phenomena thence deduced, or that which characterizes and distinguishes his philosophy from all others; and this is the sense in which it ought to be used. ° As to the history of this philosophy, we have nothing to add to what has been stated in the preceding and in other articles. It was first made public in the year 1687, bv the author, then a fellow of Trinity College, Cambrid°-e ; and in the years 1713 and 1726 republished with consi¬ derable improvements. See the articles Astronomy, At¬ traction, Dynamics, Mechanics ; Professor Playfair’s Dissertation (part ii. sect. ii. p. 535) ; and Sir John Les¬ lie s Dissertation (sect. vii. p. 655). Newton, lord bishop of Bristol, and dean of St raui s, London, was born on the 1st of January 1704. His tatlier, John Newton, was a considerable brandy and cider merchant, who having, by his industry and integrity, ac¬ quired what he thought a competent fortune, left off trade severa years before he died. Young Newton received tne tirst part °t h‘S education in the free school of Lich- eld, which, the bishop observes with some kind of exul¬ tation, had at all times sent forth several persons of note to tTtT6’ fr°m, ?lsh°P SmaIdridge and Mr Wollaston, in ?7i7°hns0n an,d Mr Garrick- From Lichfield he was, der thp’ r^movedto Westminster School, and placed un- fime to r °f iDr ,Freind and Dr Nicolk during the more vouno-31116 at ?Vestndnster’there were, he observes, figure in thfJ11?! Wih° aftenvards made a distinguished before or sinpp1 u lan P?rhaPs at any other period, either wards Earl of M u Partlcularly mentions Murray, after- of the greatest f ?ns^e, d’ Wltl1 whom he lived upon terms passed g*iv fnends7hlP t0 the close of his life. Having P . years at Westminster School, he went to Cam- N E W bridge, and entered at Trinity College, where he con¬ stantly resided eight months at least in every year, till he took his degrees in arts. Being chosen fellow of his college, he went afterwards to settle in London. As it had been his inclination from childhood, and as he was likewise designed for holy orders, he had sufficient time to prepare himself, and composed some sermons, that he might have a stock in hand when he entered on the minis¬ try. His title for clerical orders was his fellowship; and he was ordained deacon in December 1729, and priest in the February following, by Bishop Gibson. Upon his first setting out in this office, he was curate at St George’s, an over Square, and continued for several years assistant preacher to Dr I rebeck. His first preferment was that ot reader and afternoon preacher, at Grosvenor Chapel, in South Audley Street; an appointment which introduced nm to the family of Lord Tyrconnel, to whose son he be¬ came tutor. He continued in this situation for many years, iving much at his ease, and on terms of great intimacy and friendship with Lord and Lady Tyrconnel, ‘(without so much, he tells us, “ as an unkind word or a cool look in¬ tervening.’’ In the spring of 1744, he was, through the interest of the Earl of Bath, his great friend and patron, presented to the rectory of St Mary le Bow; so that he was forty years of age before he obtained any living. At the commencement of the year 1745 he took his doctor’s degree. In the spring of 1747 he was chosen lecturer of St George’s, Hanover Square, by a most respectable vestry of noblemen and gentlemen of high distinction, in August following he married his first wife, the eldest daughter of Dr I rebeck, an unaffected, modest, decent young woman, with whom he lived happily for nearly se¬ ven years. In 1749 he published his edition of Milton’s Jraradise ^Lost, which was well received by the public, and by 1775 had gone through eight editions. After the 1 aradise Lost, it was judged proper that Dr Newton should likewise publish the Paradise Regained, and other poems of Milton; but these things he thought detained him from other more material studies, though he had the good fortune to gain more by them than Milton did by all his works put together. But his greatest gain consisted in their first introducing him to the friendship and intimac\r oUwo such men as Bishop Warburton and Dr Jortin. In 1/54 he lost his father, at the age of eighty-three; and within a few days his wife, at the age of thirty-eight. This was the most severe trial he ever experienced, and it al¬ most overwhelmed him. At that time he was engaged in writing his Dissertations on the Prophecies; and in his af¬ fliction he found no better nor more effectual remedy than p unging deeply into study, and fixing his thoughts as intensely as he possibly could upon other subjects. The first volume was published the following winter, but the other did not appear till three years afterwards; and as a reward for his past and an incitement to future labours, he was in the mean time appointed to preach Boyle’s lecture. Ihe bishop himself informs us, that twelve hundred and fifty copies of the Dissertations were taken off at the first impression, and a thousand at every other edition; and t lough, he adds, “some things have been since published upon the same subjects, yet they still hold up their head above water, and having gone through five editions, are again prepared for another. Abroad, too, their reception has not been unfavourable, if accounts from thence may be depended upon.” They were translated into the Ger¬ man and Danish languages, and received the warmest en- c°™rLaais1frorn Persons of learning and rank. In the spring oi 1757, he was made prebendary of Westminster, in the room of Dr Green, and promoted to the deanery of Salis- buiy. In October following, he was made sub-almoner to his majesty, an appointment which he owed to Bishop Gil- beit. In September 1761, he married a second wife, the 181 Newton. 182 NEW new , . ._j • ic9i fn 1774, and in 1831 to Newt-,- Newton- w^ow of the Rev. Mr Hand, and daughter Of Viscoun t populatton amounted - ■ Stewart burn ; and in the same month he kissed his majesty s i a vtfwTY FORT, a small fortress of Hindustan, on "for his bishopric. On the death of Dr Stone, the primate th(> nrovince of Concan, situated on the s “ . . c ina*. Mr Grenville sent for of Ireland, in the winter of 1764, Bishop Newton, and in the most obliging manner desired his acceptance of the primacy; but having maturely weigh¬ ed the matter in his own mind, he declined the otter. 1 1768 he was made dean of St Paul’s. His ambition was now fully satisfied, and he firmly resolved never to ask for any thing more. From this time till his death his health *as almost constantly \nfirm; indeed it is wonderful that such N K W 1. i JT li. x 5 c* on-**** # i aI western coast of the province of Concan s^u^ed the southern bank of a small river. Long. 73.40. E. Lab 15. 06NE\V YEAR’S GIFTS, presents made on the first dav of the new year. Nonius Marcellus refers the origin of thfs custom amongst the Romans to latius king of the Sabines, who reigned at Rome conjointly with Romulus and who having considered as a g-od a P^e"' of almost constantly infirm ; indeed it is wonderful that sue g^^branches^that had been cut in a wood consecrated to a poor, weak, and slender thread as the bishop s ^ d Strenia; tbe goddess of strength, which he received on the have been spun out to such an amazing leng y of the new vear, authorized this custom afterwards, In the autumn of 1781, he laboured under repeated first day ot tne J „„„„ „f However was. in me auiuum ui 1-700 ujo illnesses; and on Saturday the 9th of Feb™ry 1782,^ s breathing began to be much affected by the frost. H complaints grew worse till the following Thursday, when he got up at five o’clock, and was placed in a chair by t firef having suffered much in bed. About six o’clock he was left by his apothecary in a quiet sleep ; between se^" and eight he awoke, and appeared rather more easy, an took a little refreshment. He continued dozing till near nine, when he ordered his servant to come and dress him, and help him down stairs. As soon as he was dressed, he inquired the hour, and bade his servant open the shutter and look at the dial of St Paul’s. The servant answered that the clock was about to strike nine. The bishop made an effort to take out his watch with an intent to set it, but sunk down in his chair, and expired without a sigh or the least visible emotion, his countenance still retaining the same placid appearance which was so peculiar o um when in life. . . p NEWTON-STEW ART, a small town in the county ot Wigton, and parish of Penninghame, Scotland. It ex¬ tends about a mile on the right bank of fhe nver Cr^e’ and consists of one long street, in which is the tolbootli, and a very short one along the old road to Glenluce. It is connected with Creebridge, a village of about 2,0 in¬ habitants, in the stewartry of Kirkcudbright, by an elegant bridge of granite over the river Cree. The post-road from London to Portpatrick passes through the town. The first houses were built in 1701, and for many years the number seems to have been small. It was erected into a burgh of barony about the year 1780, by the then pro and gaveUto these presents the name of siren* However this may be, the Romans on that day celebrated a festival in honour of Janus, and at the same time paid their respects to Juno ; but they did not pass it in id eness, lest they should become indolent during the rest of the year. I hey sent presents to one another, of figs, dates, b°ney> and other things, to show their friends that they wished them a happy and agreeable life. Clients, that is to say, those who were under the protection of the great, carried presents of this kind to their patrons, adding to them a small Piece silver. Under Augustus, the senate, the knights, and the people presented such gifts to the emperor, and in his ab¬ sence deposited them in the Capitol. Of the s^ceed g princes, some adopted this custom and others abolished it but it always continued amongst the people. The early Christians condemned it, because it appeared to be a relic of paganism and a species of superstition ; but when it be¬ gan to have no other object than that ot serving as a mark of benevolence and esteem, the church ceased to disap- Pt NEW YORK, one of the thirteen original states of the North American confederacy, and the most populous and important in the Union. It is bounded on the north by Upper and Lower Canada; on the east by the states of Vermont, Massachusetts, and Connecticut; on the south¬ east by the Atlantic Ocean; on the south by New Jersey and Pennsylvania; on the west by Pennsylvania, Lake Erie, and the Niagara River; and on the north-west by Lake Ontario and the river St Lawrence. rhe terr't04^ of New York is situated between latitude 40. 30. and 4 . a burgh of barony about the year 1780, by the then pro- ot between longitude 5. 5. east, and 2. 55. west prietor, under the name of Newton-Douglas ; but the origi- n , Washington. Its extreme length from nai name has been again assumed. About the year 1793, trom tne city o _ „ &, , t — T=land. nai name nas ueeu again - - f ..u a cotton manufactory was established on the banks ot the Cree, at an expense of L.20,000; but the speculation did not succeed, and it was eventually given up. The whole property belonging to the company was purchased in 183U by the Earl of Galloway, who is superior of the town. Cot¬ ton weaving forms a considerable part of the trade °‘Jbe place; but it has diminished much of late years. The curing of bacon has been carried on for several years back, and the amount brought by the curers has yielded from L.5000 to L.7000 annually to the inhabitants of the sur¬ rounding district. There are several tan-works, and an extensive brewery, in full operation. Vessels of from thirty- five to seventy and eighty tons registered burden, and even some of a larger size, sail up the Cree to within a mile of Newton-Stewart. Their cargoes generally consist of coals, lime, and merchants’ goods. Besides the parish school, there is an endowment, called the Douglas School, for the education of the children belonging to the place. a in n etntp nf fnrWHrd- trom tne envoi . 7 j- t east to west is about 340 miles, and, including Long Island, 408 miles; and its greatest breadth from north to south 310 miles, its area being about 46,000 square miles, estimate includes the whole surface, except the waters of th Nei^YorkTs an epitome of all configurations of surface,^ and every variety of lake, mountain, and river scenery It may be* described, generally, as an elevated tract, wrth indentations in various parts below its usual Jeve . most striking depressions are the great basins m which art cltnated Lakes Erie and Ontario, and the long_ narrow ^al most sirifc.ui£ ^ O situated Lakes Erie and Ontario, and the long narrow ley which contains the Hudson River and Lake Cham¬ plain. The two latter are united by a valley occupied the Mohawk River and Lake Oneida. Thes0«th-easrtrt angle of the state, about forty miles above the uty ot York, is mountainous, being traversed by several ridge from New Jersey, one of which crOfeses the Hudson m t vicinity of West Point, and form, the high lands of that tor tne education oi me ^ r—- T° , rnnetitutes the dividing ridge between the Arrangements are at present (1837) in a state of forward- river. It a^° c°ns^lt^teS j ne V pj pa°tly in the state ness to erect a new parish church, instead of the old church, Hudson an ^ » ^ c River and . Mrm _ „ 4.L %-vlr.rf-v-fr TTrr\rcni built in 1777. There are other three places of worship in the town, one belonging to the Relief body, one to the Reformed or Cameronian presbytery, and a Roman Ca¬ tholic chapel. There is a weekly market held on Friday, and various cattle markets throughout the year. The Hudson ana tne ^oniieuwuui., auu j j of Connecticut. The space south of the Moha\vk River the Ontario Valley, and between the River Hudson an Lake Erie, is occupied by another mountainous district, tne western part of which forms a table-land having 2000 teei of mean elevation, and is the source of several large rive NEW YORK. X, York, particularly the Alleghany, the Susquehannah, and the V — > n X. 1 T 1 t-y 183 Genesee. The eastern part, lying between Lake Seneca and the Hudson, is occupied by several parallel mountain ridges, which may be considered as continuations of the Alleghany ridge passing out from Pennsylvania. These ridges run in a north and south direction, and their inden¬ tations give rise to several fertile valleys. The highest are the Catskill Mountains, which bound the valley of the Hudson on the west. Round Top, the most elevated sum¬ mit, is 3804 feet above the level of the tide-water of the Hudson. There is also a narrow table-land in this sub¬ division. situated a little south of the line of the Erie Ca¬ nal, and continuing almost uninterruptedly from the Cats¬ kill Mountains to the head of Seneca Lake. On this ele¬ vation are situated a number of lakes, the height of which above tide-water varies from 380 to 1200 feet. A third mountain district is situated to the north of the Mohawk, between Lake Champlain and the east end of Lake On¬ tario. This division is traversed by at least five or six pa¬ rallel ridges, passing in a north-eastern direction, and which are considered as continuations of the Appalachian chain. The highest elevation that has been ascertained with accuracy is a peak belonging to the ridge that passes through Herkimer and Hamilton counties, and the north¬ ern part of Essex, near the sources of the Hudson. It is 2686 feet above the level of the sea. ^ 6 ^ave a,ready mentioned the basins in which are situ- laku and atecj Lakes Erie and Ontario, and the valley which contains the Hudson River and Lake Champlain. The two former depressions are portions of the vast St Lawrence basin, which embraces the whole of the five great western lakes. Proceeding along the basin of the Ontario, we pass through a series of fertile counties, constituting the slope, watered by numerous rivers, which all finally terminate in the lake. The Genesee, Oswrego, and Black are important streams, which rise in the interior of the state. The first-named river is the outlet of the Canesus, Hemlock, and Honeyoe Lakes. The Oswego, and its tributaries the Clyde and Seneca, convey the waters of Canandaigua, Crooked, Se¬ neca, Cayuga, Owasco, Skaneateles, Onondaga, and Oneida Lakes into Lake Ontario. The Mohawk River occupies the eastern termination of this basin ; whilst towards the north¬ east the slope towards the St Lawrence, indicated by the course of the Grass, Racket, Oswegatchie, and St Regis Rivers, shows it to be a continuation of that towards the lakes. The Hudson and Champlain Valley stretches nearly north and south, and is remarkable for its depth below the general surface of the level of the adjoining country. In the northern part are situated Lakes George and Cham¬ plain, which are connected with each other. The south¬ ern portion communicates with the valley of the Mohawk, which enters it in a south-easterly direction. The Hudson rises in the northern part of New York, between LakeCham- p am and the St Lawrence, and has its whole course in the state. An American writer on geography thus describes this river “ No fact in the topography of the state of New ork is more remarkable than the peculiar position of the udson and its branches. If we trace the course of any Atlantic river south of it, we shall find the navigation closed by the mountain chain on the west. Not so with the u son. It penetrates the high lands, and after passing up some undred and sixty miles, it is met by a tributary, the sources of which reach nearly to the lakes. Here the appy conformity of the country is such as to permit ie establishment of an artificial navigation.” After a course of between three and four hundred miles, the Hud- SOn. a,^ tj1? Bay °f New York, above which it is navigable for ships about one hundred and thirty miles, p 6 kusquehannah rises in this state, and passes into RennsyJvama, as does also the Delaware. The Alleghany hio collects its head waters in the south-west angle of this state, and passes through its noble pine-New York, forests into Pennsylvania. Here are a vast number of^^v^^ lakes and streams besides those named, which would be conspicuous in a state of smaller dimensions, and where the configuration is on a less gigantic scale. But we have preferred presenting general views of the conformation of the face of the country to a dry catalogue of lakes and rivers and mountains, with their courses and terminations. Those which are remarkable for their size or peculiarities will be found more particularly described under their re¬ spective designations. Some celebrated mineral springs exist in this state. Those of Saratoga and Ballston are more resorted to than any others in the United States. The Ballston springs are situated in a valley formed by a small creek. There are a great number of them, the strongest and most sparkling waters being those obtained in 1827, by boring 227 feet down. The principal efficacy of the water arises from a chemical union of chalybeate and saline ingredients held in solution, and the presence of uncommon quantities of carbonic acid gas. Saratoga springs are several miles distant from those of Ballston, and belong to the same class of mineral waters. A large and compact village has sprung up at this place, in conse¬ quence of the immense resort to it from all parts of the United States, Canada, and even the West Indies. Sara¬ toga springs are thirty-two miles north of Albany. To these may be added the tepid springs of New Lebanon, twenty-nine miles east of Albany, which are frequented for bathing, and on account of their cool and elevated position ; and the sulphur springs of Avon; to all which places crowds of fashionable people and invalids resort during the summer months. Most of the formations discriminated in works of geo- Geology, logy exist in this state, and some of them are of a very interesting character, particularly the earth and gypsum found in the western part of the state. Granite, slate, and limestone hills occur; and one species of impure limestone, found in the western and northern parts of New York, has been used with great success in the construction of canals. Marble has been obtained in large quantities, for archi¬ tectural purposes, from the quarries of Sing Sing. Its pu¬ rity is said to increase with the depth of the excavations, and several large and beautiful public edifices have been constructed of it. At the head of Lake Onondaga are si¬ tuated salt springs of the same name, surrounded by the waters of the lake, which still, however, continue perfectly fresh. Plants peculiar to the sea-coast are found here, in particular the salicornia and salsola. Underneath the mud or decayed vegetable matter which constitutes the valley of these springs, a stratum of earthy marl is found, con¬ taining numerous fossil univalves ; and this again appears to be succeeded by a conglomerate. The peculiar nature of the underlying rock, or rather its position, does not seem to be determined. Great quantities of salt are manufac¬ tured here by the various processes of boiling and solar evaporation. Gypsum, in its various forms of earthy gyp¬ sum, selenite, and even alabaster, is found, particularly in the counties of Onondaga and Cayuga, and is extensively used for agricultural purposes. Another prominent article of mineral wealth is iron ore, immense beds of which are found in the counties west of Lake Champlain. The iron ore of Columbia county is likewise highly valued and ex¬ tensively manufactured. Lead, silver, zinc, titanium, and other metals, have been detected in various parts of the state ; and anthracite or bituminous coal is found, but it is questionable whether in sufficient quantities to afford remuneration for the expenses of mining. Petroleum, por¬ celain clay, and most ot the fossils, are found in different places, and some of the organic remains discovered belong to the higher animals. Transition and secondary rocks compose the body of the state; and in the granitic dis- 184 NEW YORK. New York, tricts, near New York, and on the borders of Lake Cham- ' Diain, picturesque and remarkable projections ot rock, ca¬ verns, and the like, frequently occur. The cataracts and smaller falls of water are numerous in this state ; and those of Niagara are the most magnificent in the world. Co¬ hoes is a fine fall on the Mohawk River, having seventy feet of perpendicular descent. The Little Fa Is on the same river present most beautiful scenery; and amongst . r, . , . . j navi- grain and grass. The alluvial flats are here extensive; New Yorl, those on the Mohawk comprise about 60,000 acres. W ith y— regard to climate, a general view can scarcely be given ot a country which stretches over four degrees and a halt ot latitude. In the northern division, which abuts upon Ca¬ nada, the climate, as might be expected, is somewhat se¬ vere, partaking of the nature of these northern regions. In the south-east, towards the sea, it is temperate, but^sub¬ same river present most beautiful scenery; anu amuMg=. — toTudden and great changes. As the eastern boun the remarkable objects connected with the arti c 'L 0f New York passes along the borders of the states gation of New York, may be mentioned the aqued Connecticut, Massachusetts, and Vermont, the ch- Little Falls, that over the Genesee at Rochester, and the ot uonnec JLillXlC r dll&5 Llldt UVCi uiiv^ C locks at Lockport, at Little Falls, and at the Junction of the northern and western canals. Glens FaUs on tl1 Hudson, and those on the Genesee in the village ot Roche - ter, and at Ithaca, also deserve mention as very stnki g cascades, but only too near Niagara to be famous. A stone cavern of vast dimensions, with its falls, columns, a stalactites, exists on the banks of Black R-er opposi e Waterton. The ridge road, extending from Rochester to Lewiston, is a most remarkable geological formation, r s its name implies, it is a "attmal road of suffiaent wjd n for mate of these parts resembles that of the states to which thev are contiguous. After passing the high lands, and enterino- into the eastern country beyond Utica, the climate becomes milder than it is to the eastward. In the west¬ ern parts, contiguous to Lakes Ontario and Erie, the tem¬ perature is moderated by these waters, and does not reach the same extremes as in the south-east. The climate of the whole state is in general healthy, and favourable to cultivation. A mass of interesting facts regarding tem¬ perature has been obtained, in consequence of the regents r • : —»-»i*i rpnorts from the aeacte- its name implies, it is a natural road o^ulhcient^wmtn o P annua! meteorological reports from the acade- Under their Care- TheSe^CademieS ^ 8C--"e- from which it is distant sometimes several miles. There Islands. i,0™remarkable natural production of carburet,ed hydro- gen in the towns of Fredoma and Portland, Chautauque county. This gas is obtained in such immense quantities that it has been conducted into these villages, and used as a natural gas-light. In the western part ot this state are situated the hunting grounds and residences of the famous six Indian nations, who have now submitted to the re¬ straints of civilization ; and these are adorned by the pro¬ ductions of industry and refinement, yet still show traces of their former existence in the mounds and other anti¬ quities occasionally observed. t cxt There are several islands belonging to the state ot New mies under their care. These academies are scattered over every part of the state, and the mean temperature ot the whole thus furnishes an approximation towards that ot the state generally. In 1826, the mean temperature of ten places reporting complete annual tables was ‘Jb-dH In 1827, the mean temperature of 18 places was In 1828, the mean temperature of 24 places was 49-50 In 1829, the mean temperature of 28 places was 46-45 In 1830, the mean temperature of 34 places was 48-15 Mean of the five years 4f-00 The quantity of rain and snow has also been ascertained in a similar manner. Thus: There are several islands belonging to the state or inew in a a nine g wag_>>36.34 York. Long Island, as its name imports, is a long but nar- In 8-6, he mean rain a^ ^ ^ ^ wag 44.29 row strip of msular land, extendmg east^rom^^e c^y^f ^ ^ ^ ^ and snow „f 25 placeswas.,.36-74 In 1829, the mean rain and snow of 2o places was...34 »» In 1830, the mean rain and snow of 32 places was...38-86 Mean of the five years ....38-22 The highest degree of temperature noticed in these tables is 104°, at which the thermometer stood in an aca¬ demy in the county of Orange, on the 20th of July 1830. It is situated in lat. 41. 32. north, and long. 74. 10. west. The lowest degree noticed is — 33, at which the thermo¬ meter stood in an academy in the county of Lewis, on the 31st of January 1830. It is situated in lat. 43. 47. north, The range of the thermometer in New York one hundred and fifty miles, forming a curve parallel to the mainland shore, and leaving a broad and beautiful sheet of water not unlike a wide river between, called Long Island Sound. It contains three counties, the chief towns being Brooklyn, Jamaica, Sag Harbour, and r at- bush. The south border is a long belt of sand, somewhat barren ; but the northern has a fertile soil, and is in a high state of cultivation, producing large quantities of grain, fruits, and hay. Like other insular positions, it has a cli¬ mate more mild than that of the adjacent continent. Sag Harbour is the principal port. New York is in a great mea¬ sure supplied with wood from this island, the eastern part of it being remarkably well adapted to its growth. On the of it being remarkably well adapted to its growth, un tne and Vees of Fahrenheit. It west, Long Island is divided from Staten Island by the nar- New York state is thei e » „f January 1835, rows! andSfrom Manhattan Island by East River. On the is ^ ^“at Nevv Lebanon/ This, latter island is situated the city of New York, which will be it fell torty degrees ,rQr;, Soil, cli¬ mate, and produc¬ tions. afterwards described. Staten Island is above fourteen miles in length by from five to eight in breadth, and is the most southern land belonging to New York. _ In the maritime belt of the state the soil is sandy; in the middle it is a finely undulating and productive coun¬ try ; and in the western and southern divisions it is re¬ markably level, rich, and inclining to alluvial formation. The state has a great proportion of first-rate land. The country on the Hudson, below the mouth of the Mohawk, has a good medium soil. The counties of Westchester and Dutchess are under very good cultivation. The alluvial flats of Columbia and Rensselaer are very extensive and rich. A considerable district west of Albany consists of sandy plains interspersed with marshes. The alluvial flats upon the Mohawk are large and extremely fertile. The soil of the elevated plain of the western region, being occupied by the small lakes, is a rich mould equally well adapted to however, is an~ extreme case. The scale of variation m summer may be given at from 35° to 60°, in autumn at from 60° to 73°, in winter at from 70° above to 26 below zero, and in spring at from 3° to 75°. The variation is greatest upon the Atlantic coast, along the St Lawrence, and around Lakes Ontario and Erie ; the north-east, east, south-east, and south-west winds being more prevalent up¬ on the coast, and the north-east and south-west upon these lakes and along the St Lawrence. The variations of t weather at all seasons are great and sudden, changing tne temperature in a few hours 40° or 50°, rising with the southerly, and diminishing with the northerly winds. The staple productions of New York consist principally P of wheat and other grain, flour, flax, hemp, provisions, salt, pot and pearl ashes, and lumber. The forest trees, which thrive to the greatest advantage in an alluvial sou, are common in the western divisions of this state, and at- NEW YORK Ne t7 rork. tain a large size. Wheat, however, is considered as the grand staple of New York. Ihe great wheat district of the state commences in the valley of the Mohawk, above the primitive spur at Little Fails, in a fertile soil of calcareous alluvion, which over¬ spreads the valley at German Flats. This district, com¬ prehending the central portions of Oneida county, extends westward to the lakes, and is bounded northwards by the north ridge of the valley, by Lake Ontario, and southwards by a line running south-west from Utica to the mouth of Cattaraugus Creek at Lake Erie. This is the garden of the state, including the rich Seneca vale, and the far-famed Genesee county. Some portions of this district are sandy, and in others the rock rises too near the surface, whilst others are not sufficiently watered; but taken as a whole, it is not surpassed by any district of equal extent in the United States. Here artificial manures are rarely used, and indeed rarely needed. In the newly-cleared lands, the richness of the mould and of the sub-soil is all that the far¬ mer requires, being content if, by clearing away the forest, he can only bring it forth. Amongst the obstructions which the stumps of the trees offer, he is compelled to plough as he can, not as his judgment might dictate. In tracts long cleared, deep ploughing, blending the mould and the soil, preserves the former, and turns up the latter to disinte¬ grate, and thus to yield its calcareous matter. Upon such faims some attention is given to rotation in crops, with a view to the preservation of fertility; but it is not uncom¬ mon to find the same field sown in wheat for a series of yeais, without the intervention of other crops. Takin" the whole district together, the average product of wheat may be from twenty-five to thirty bushels the acre; but rom forty to fifty are frequently obtained. Instances have been known of more than eighty bushels to the acre, and of Indian corn one hundred and twenty-five. The apple, peai, cherry, and quince, all thrive admirably; and the peach in size and flavour is scarcely inferior to that of the Atlantic coast. Grapes also, both foreign and indigenous, richly repay careful cultivation. The region south of the line above drawn, and north of the southern boundary of the state, and between Lake Erie and that portion of the Kaatsbergs which runs parallel with the Hudson, may be characterized as a grazing coun- try- Upon its northern border, the limestone, being more abundant than in other parts, renders the soil more or less productive in wheat; and this section, producing grain and grass abundantly, is by many preferred to that which is most fertile in wheat. By far the larger portion of this south-western district is yet covered with forests, and in most places upon its southern borders, the chief business 01 its inhabitants consists in the cutting and vending of umber, consequently its agricultural products are incon¬ siderable compared with its population. There are, how¬ ever, some well cultivated tracts in all the border counties, and in Chautauque, upon the shores of Lake Erie. One the most useful improvements introduced into agricul- e, and the result partly of experience, partly of the necessny imposed by the opening of the eastern markets sivpW rr” reS10n’.is the appropriation of soils exclu- arlnru i° Pr°ductions for which they are by nature and.the consequent abandonment of the practice which t0 COmjf1 every sPecies t0 >’ield croPs ^ hich it is not congenial. Under this wise system much lin H 7- .ryUTP°n the North River has ceased to be a cul ure f L,arge P°rtionS of k are devoted to horti- inceSnl SUpp7ng !?ulinary vegetables to the greatly and thn«5 poPu atl°n of the cities and numerous villages ; kefs are bP^ °nS ^ district most remote Um77 b "g ,rapid1^ converted into pasturage. Thus ches^eiMs'nrnfif hi St^rile sod «f Long Island and West- voTxv? y eVOted t0 the Production of garden 185 and field esculents, fruit, hay, oats, and small meats, for New York, the great market of the city, in tiie proximity of which ' the cultivator finds ample compensation for the inferiority of soil, and the consequent greater cost of production, his lands being by this circumstance, and the facility of ob¬ taining manures, rendered more valuable than the natural¬ ly rich fields of the west. Thus, too, the high and hilly grounds of Putnam county have, by the free use of gyp¬ sum, been made very productive pastures, in which the plough is comparatively little used, and which maintain large droves of cattle and sheep, but chiefly of the former. Ihe counties of Dutchess, Columbia,, and Washington, especially the two first, comprising considerable portions of limestone soil, alternating with slate, produce profita- ble crops of wheat. But the eastern and northern portions of Dutchess, and the hilly sections of Columbia, are chiefly laid out in sheep farms, and in Washington the raisino- of sheep is rapidly becoming the staple business. In Oranae county the chief products are those of the dairy, and the butter of this county has long been held in the highest esti¬ mation. Ihe raising of sheep also extends rapidly here. Ulster and Greene counties likewise produce large quanti¬ ties of cattle and sheep, and, of late years, of butter and hay for export. Ihe portions of Albany and Saratoga counties which are not covered with sand, and the portion of the lat¬ ter not included in the primitive mountains, are under good cultivation. Wheat is not unprofitable, and Albany exports large quantities. Still the best returns are obtained from cattle and sheep. The northern counties of Warren, Essex, and Clinton, can boast but little of their agriculture; yet the primitive virgin mould is scarcely anywhere exhaust¬ ed, and the forest trees grow thickly and to a large size, the abundance of timber, and the facility of getting it to market, together with the rich mineral deposits, have hi¬ therto chiefly occupied the attention of the inhabitants. I he northern portions of Franklin and St Lawrence coun¬ ties, very partially cleared, and level or gently undulating, are well adapted for cultivation. No parts of the state yield better grass, and the raising of cattle and sheep is found to be the most profitable employment of the soil, although it is well adapted to wheat, Indian corn, and other grains. Jefferson county is very productive of wheat, as are other paits of New ^tork, which, however, do not require to be specially mentioned. Societies have been formed in va¬ rious parts of the state for the promotion of agriculture and horticulture, and they have already been productive of much good. The line of extraordinary works, supposed to have been Antiqui- of a military character, which may be traced from the shores ties, of Lake Ontario as far as the valley of the Mississippi, and thence southward to an indefinite extent, must not be over¬ looked in our survey of the surface of this state. These works consist of earthen parapets, the sites of which, with a view to defence, appear to have been selected with much judgment, and upon the construction of these greater skill has been exercised than any displayed by the Indian races known to us. Ihe erection of these fortifications has been ascribed to the European nations, French and Spanish, who, at periods immediately subsequent to the discovery of Ame¬ rica, visited its shores, and also to a race of inhabitants sup¬ posed to have preceded that found there by the Europeans. 11m works themselves afford no means of tracing their ongin, but they display indubitable marks of high antiqui- ty, so that the opinion of their having been constructed by the hrench or the Spaniards is at once exploded. The forms of these remains are various, being circular, ellipti¬ cal, triangular, and square; and they are generally placed in situations which command the adjacent country. Near many of the forts are mounds of earth raised for cemeteries, in which human bones in various stages of decay have been discovered. The number of forts and mounds situated in 2 A 186 NEW YORK. New York, the western parts of this state much exceeds an hundred. 'The enclosed areas of the fortifications vary from six acres to one hundred feet in diameter; and the earthen walls which enclose them, in their present abraded condition, are from ten to twelve feet in height, and from six to eight feet in breadth. Some of these breast-works bear or have borne trees, whose age has been estimated at more than two hundred and seventy-five years, and which may have been preceded by others. One fact seems to indicate that the architects were not greatly advanced m civilization In the remnants of manufactured articles found, there s an absence of any finished works of art in wood or metah* and the fragments of pottery are rude and of a primitive form. They are therefore in all likelihood not the produc¬ tion of the Toltecs or the Aztecs who found their way to Mexico over the northern parts of the contment, b must be attributed to the Alligewi or some other Indian tribe. About twenty-five years ago, this state commenced a New Yor ,(f\ system of internal improvement, which has been prose- cuted on an extensive scale, and with great success. _ TheUnak enterprise of this nature which was first undertaken is the Erie Canal, one of the greatest and most important works of the kind in the world. It was begun on the 4th of July 1817 and was completed in 1825. The principal canals in New York, with the exception of the Hudson and De¬ laware Canal, have been constructed by the state, and are now its property. But the railroads have been mostly un¬ dertaken by incorporated companies. The railroad first undertaken in the state was the Mohawk and Hudson Railroad, which was begun in 1830, and finished in 1833. Since that time several railroads have been completed, more are in progress, and a still greater number are pro¬ tected. For details as to the extent of inland navigation in the state of New York, see the article Navigation, In¬ land. The following table shows the number of railroads which have been completed. Names. Buffalo and Black Rock Ithaca and Oswego Mohawk and Hudson Rensselaer and Saratoga.... Rochester Saratoga and Schenectady. Utica and Schenectady From To Buffalo Ithaca Albany Troy Rochester Saratoga Springs.. Utica Black Rock Oswego Schenectady Ballston Spa Carthage Schenectady Schenectady Total. Com¬ pleted. 1835 1834 1832 1835 1833 1832 1836 Length in Miles. 3 29 16 241 3 22 77 1741 The railroads which have been commenced are the following Names. Auburn and Syracuse Buffalo and Niagara........ Catskill and Canajoharie... Haerlem Hudson and Berkshire Lockport and Niagara Long Island New York and Erie Saratoga and Washington. Tonawanta. From Auburn Buffalo Catskill Prince St. N. Y... Hudson Lockport Brooklyn New York city.... Saratoga Springs. Rochester To Syracuse Niagara Falls Canajoharie Haerlem Massachusetts line.. Niagara Falls Greenport Lake Erie Whitehall Length in Miles. 26 21 68 7 30 24 98 505 41 Attica Total. 865 The New York and Erie Railroad, one of the greatest works of the kind that has ever been projected, extending from the city of New York, through the southern coun¬ ties of the state, to Portland and Dunkirk on Lake Erie, was commenced in November 1835. The total expense of this vast undertaking is estimated at 2,717,518 dollars. Up to the end of 1834 there had been forty other railroad companies incorporated, having a capital of thirty-five mil¬ lions of dollars ; and in the session of 1836 there were no less than forty-two incorporated. One of these, the U i and Syracuse Railroad, above fifty miles in length, and se¬ veral others, have either commenced very lately, or aie now (1837) about to commence. . f , The following tables present so complete a view ot tn actual state of New York as to render any detailed de¬ scription unnecessary. NEW YORK 187 X?*- York. Census of the Population of the State in 1830 and 1835.1 Counties. Albany Alleghany... Broome Cattaraugus. Cayuga Chautauque.. Chenango.... Clinton Columbia Cortland Delaware Dutchess Erie Essex Franklin Genesee Greene Hamilton Herkimer Jefferson King’s Lewis Livingston.... Madison Monroe... Montgomery. New York.... Niagara Oneida Onondaga Ontario Orange Orleans Oswego Otsego Putnam Queen’s Rensselaer.... Richmond Rockland Saratoga Schenectady.. Schoharie Seneca St Lawrence.. Steuben Suffolk Sullivan Tioga Tompkins Ulster Warren Washington... Wayne Westchester.., Yates...... Towns. Total. 10 28 11 23 22 24. 19 8 18 11 18 18 17 15 12 24. 11 4. 18 19 6 11 12 13 17 16 1 11 26 18 14. 14 8 20 22 5 6 14 4 4 20 6 10 10 24 24 9 9 19 10 14 9 17 15 21 8 Population in 1830. Population in 1835. 797 53,520 26,276 17,579 16,724 47,948 34,671 37,238 19,344 39,907 23,791 33,024 50,926 35.719 19,287 11,312 52,147 29,525 1,324 35,869 48,515 20,535 14,958 27.719 39,037 49,862 43,595 202,589 18,485 71,326 58,974 40,167 45,366 18,773 . 27,104 51,372 12,628 22,460 49,424 7,082 9,388 38,679 12,347 27,902 21,041 36,354 33,851 26,780 12,364 27,690 36,545 36,550 11,796 42,635 33,643 36,456 19,009 59.762 35,214 20,190 24,986 49,202 44.869 40.762 20,742 40,746 24,168 34,192 50.704 57,594 20,699 12,501 58,588 30,173 1,654 36,201 53,080 32,057 16,093 31,092 41,741 58,085 46.705 270,089 26,490 77,518 60,908 40.870 45,096 22,893 38,245 50,428 11,551 25,130 55,515 7,691 9,696 38,012 16,230 28,508 22,627 42,047 41,435 28,274 13,755 33,999 38,008 39,960 12,034 39,326 37,788 38,790 19,796 Male Aliens. 1 Paupers not Taxed. 1,919,132 2,174,517 3,381 143 426 141 548 400 1,170 1,996 553 85 475 960 5,172 625 1,009 978 633 1,024 1,712 3,414 604 554 1,653 2,484 1,285 27,669 973 4,196 1,323 697 1,265 333 1,381 534 67 636 2,081 294 280 2,459 861 728 101 323 267 225 219 143 256 659 104 924 684 1,047 165 82,319 339 38 38 35 85 15 12 72 166 50 69 189 63 60 43 83 154 62 89 238 27 42 2 88 126 1,799 38 179 127 71 209 20 34 94 68 571 182 16 51 53 160 60 97 47 62 101 21 38 6 137 36 94 6 216 43 1,187 118 128 32 298 109 244 65 1,469 61 135 2,071 452 26 11 59 971 228 125 1,897 61 133 245 505 549 14,977 141 458 385 526 2,098 52 160 218 124 2,727 977 407 415 56 488 410 474 154 278 2,068 112 189 246 1,384 34 324 154 1,513 118 6,821 42,836 NEW YORK. 188 New York "St"”/^yda«e12lEoft™ TndcZntyTXaM^ tf the assessed Valuation, for 1835. Counties. Albany Alleghany Broome Cattaraugus Cayuga Chautauque Chenango Clinton Columbia Cortland Delaware Dutchess Erie Essex Franklin Genesee Greene Herkimer Jefferson King’s Lewis Livingston Madison Monroe Montgomery... New York Niagara Oneida Onondaga Ontario Orange Orleans Oswego Otsego Putnam Queen’s Rensselaer Richmond Rockland Saratoga Schenectady.. Schoharie Seneca St Lawrence.. Steuben Suffolk Sullivan Tioga Tompkins.... Ulster Warren Washington.. Wayne Westchester. Yates Acres of Land. Value of Real Estate. Value of Person, al Estate. Total 27,324,232 297,351 758,380 401,404 788,305 414,678 650,620 514.800 596.800 399.500 299,000 847,692 485,257 560,566 744,002 977,388 625,280 359,586 877,000 720,574 26,954 718,265 316,251 377.309 392,982 1,227,712 14,000 308,662 704,740 455,100 395,111 525,042 238,154 580,978 589,302 135,352 137,178 400,106 28,072 96,418 502,077 119,494 353,279 197,550 1.738.500 897,000 379,736 577,000 625,111 371,400 645,369 513,290 486,083 375,576 280,432 204,414 Dollars. 9,050,370 2,414,359 1,752,027 1,439,725 3,516,028 2,948,159 3,299,660 1,359,950 8,469,876 2.014,093 2,858,990 13,789,484 5,938,400 1,383,602 862,000 8,839,263 2,719,831 4,301,801 4,279,100 28,020,644 I, 402,793 4,865,524 4,392,497 8,965,694 3,578,807 143,732,425 4,733,924 9,176,167 9,427,938 II, 386,629 8,567,133 4,178,166 4,308,000 4,788,285 1,970,901 6,531,850 7,070,537 800,783 1,504,214 5-,405,468 1,815,623 1,990,000 3,631,036 2,691,208 2,839,180 4,141,125 1,196,136 2,678,381 3,002,450 4,457,240 889,398 4,974,345 3,393,465 7,768,979 2,005,922 Amount of County Taxes. 403,517,585 Dollars. 4,440,536 100,989 268,515 29,968 927,146 208,878 515,392 68,150 1,806,094 298,507 303,387 4,005,183 2,640,187 167,986 59,709 647,678 607,117 859,826 533,964 3,920,288 188,529 521,915 601,745 1,213,630 674,899 74,991,278 211,810 1,926,901 1,162,036 1,784,401 1,661,436 259,658 432,020 1,009,714 364,835 2,438,650 3,350,957 95,917 354,287 970,662 578,222 188,344 732,995 233,022 263,019 927,722 58,894 454,696 612,349 611,130 43,452 886,981 234,000 2,324,693 284,395 125,058,794 Dollars. 41,000-07 12,147-22 7,146-99 9,834-22 17,706-42 15,086-70 6,854-73 8,060-55 5,451-80 6,004-03 28,783-09 23,772-57 7,175-43 5,999-96 20,420-36 12,626-73 12,469-07 12,353-22 28,280-00 3,293-72 8,708-55 11,018-69 24,163-10 19,289-66 577,500-00 10,123-60 22,930-00 23,094-00 17,850-00 20,000-00 9,283-70 12,775-25 10,967-11 3,150-00 5,897-30 32,000-00 2,053-00 2,840-59 12,800-00 8.650- 00 5,558-08 6,531-03 12,092-81 13,553-97 3,379-22 4.651- 80 7,410-83 7,753-96 16,100-00 4,713-83 14,633-38 8,000-00 15,026-08 9,500-00 Amount of Town Taxes. Rate of County and Town Tax upon one Dol¬ lar of V alua- tion. 1,246,314-42 Dollars. 47,398-72 12,288-87 4,035-70 11,849-73 5,980-65 11,659-70 8,440-18 5,525-38 5,203-36 6,763-75 10,852-92 18,088-28 5,567-86 6,326-30 13,576-09 6,504-76 12,736-35 39,090-93 5,902-78 7,676-47 7,414-83 12,596-88 13,023-00 518,494-00 6,122-96 15,143-38 18,609-55 10,035-70 11,282-66 6,534-16 12,852-68 8,659-62 I, 961-54 6,601-67 8,909-39 1,91403 4,6825-3 7,814-72 5,671-21 4,365-61 11,249-46 15,274-24 II, 146-03 7,890-93 4,127-84 7,256-94 2,207-54 13,119-10 3,342-49 9,265-94 7,668-26 7,967-73 4,000-75 Mills. Fr. 6-100 5-640 14-200 8-000 15-000 4-800 4-360 2-300 8-610 14-500 6-360 5-080 1-500 7-917 3-000 3- 690 4- 220 4-500 4-118 4-340 4- 012 1-810 3-200 3-900 5- 530 3-500 2-297 1-700 4- 600 3-750 5- 900 1- 171 8-091 2- 000 7- 000 5-200 2-940 5-630 8- 700 4-105 2-200 1,032,976-15 5-011 NEW YORK. >rk. Comparative View of the Census of the State of New York in 1825 and 1835. 189 Whole number of souls Males Females Male aliens1... Total of aliens Paupers2 Persons of colour not taxed Ditto taxed Ditto qualified to vote Persons subject to militia duty... Ditto qualified to vote Deaf and dumb persons Of whom supported by charity... Blind persons Of whom supported by charity.. Idiots 1825. 1835. 1,616,4582,174,517 Of whom supported by charity... Lunatics Of whom supported by charity... Married females under 45 years Unmarried ditto between 16 and 45. Ditto ditto under sixteen Marriages the year preceding Births, male 39,839, female 37,403.. Deaths, male 17,486, female 15,280.. Agricultural Statistics. Acres of improved land Neat cattle Horses Sheep Hogs 822,897 793,561 40,430 5,610 38,770 931 298 180,645 296,132 645 141 1,421 442 819 184 200,481 135,391 361,624 11,553 60,383 22,544 7,160,967 1,513,421 349,628 1,102,658 1,071,859 82,319 6,821 42,836 934 578 201,901 422,034 933 278 889 270 1,484 514 967 382 283,230 195,499 456,224 15,535 77,244 32,726 9,655,426 1,885,771 524,895 3,496,5394,261,765 1,467,573| 1,554,358 he manufactures of this state being of great import-New York, ance, a detailed account of some of them is therefore ne-v-— cessary. Leather is a most important article of manufac¬ ture, and it is made cheaper in this state than it can be, ot equal quality, in any other part of the world. The increase in the making of sole leather is 500 or 600 per cent, since 1817, and 200 or 300 per cent, since 1827. It is estimated that above one third of the whole sole leather used annually in the United States is made in New York. Above 16,000 individuals are employed and sustained by the cotton factories, which are located as follows, viz. in Onema county twenty mills ; in Rensselaer county fifteen mills; in Dutchess county twelve mills ; in Otsego county eleven mills; in Columbia county seven mills; and in Westchester, Washington, and Herkimer counties, five each. Several other counties have from one to four mills each. . In estimating the value of woollens made in this state, it should be borne in mind, that notwithstanding the numerous fixed establishments for the manufacture of this article, household or family manufactures of wool and cotton are stiU carried on to a great extent. By the state census of 1825, the following articles were made in fami¬ lies during the preceding year. O„ Value per Yard. Amount, Doll. 2,918,233 yards of fulled cloth 1 dollar 2,918 233 3,468,000 yards flannel and other woollens not fulled 0-20 cents 693,600 8,079,992 linen, cotton, and other ^ot^s cents... 1,211,998 In 1835, Mr Pitkins reckoned that woollens alone were manufactured in families to the amount of at least 4,500,000 dollars annually. Now, it we allow the manufacture of linen, cotton, and other cloths, to have risen to 1,500,000 dollars, which is a fair estimate, this will make the total amount ot domestic articles made in families six millions of dollars. Grist mills Saw ditto Oil ditto Fulling ditto Carding machines.... Cotton factories Woollen ditto Iron works Trip hammers Distilleries Asheries Glass factories Rope ditto Chain cable ditto Oil cloth ditto Dyeing and printing do. Clover mills Paper ditto Tanneries Breweries Number. Value of Raw Materials used and manufac¬ tured. Value of Manufactured Articles. The following; are some of the other manufactures of New York, not included in the general summary, name- Summary of Manufactures in the State according to the ^timate/afs 500000 Sf6 a"d finishea in thi? fate> Census of 1835 est mated at 3,500,000 dollars annually ; boots and shoes, J ' deducting leather, 3,000,000 dollars annually; leather, cloth, and fur caps, probably 2,000,000 dollars annually. Hie amount of ready-made clothing is not estimated, but large establishments exist, particularly in the city of New Turk, and immense quantities are shipped to the southern states, and to foreign ports. Cabinet ware of every de¬ scription is manufactured, not only for home consumption, but for shipment in large quantities to southern ports, South America, and the West Indies. Machinery, piano¬ fortes, and carriages, are likewise manufactured on an extensive scale throughout the larger cities of the state. Ihere are, besides, a multitude of smaller manufactures, such as those of gunpowder, fire-arms, chemical com¬ pounds, pigments, including white-lead and other paints, pencils, printing types, and tobacco; and others including the construction of ships and boats, chiefly for the naviga¬ tion of the great lakes. The Onondaga salt-springs are situated in the town of Salina, Onondaga county, and are Vff ProPerty °* t^e state. The salt is manufactured at four different villages, viz. Salina, Syracuse, Geddes, and Liver¬ pool ; and in the year 1833 the state of the manufacture was as follows : Number of manufactories, 131 ; number of kettles, o309 ; number of gallons in the kettles, 312,795 ; and number of bushels manufactured, 1,838,646 Of this quantity about 103,000 bushels were made by solar evapora¬ tion. Coarse salt, of equal purity to any in the world, is also manufactured, and sold at a price which nets the manufac- 2051 6948 71 965 1061 111 234 293 141 337 693 13 63 2 24 15 69 70 412 94 Dollars. 17,687,009 3,651,153 214,813 1,994,491 2,179,414 1,630,352 1,450,825 2,366,065 168,896 2,278,420 434.394 163,312 664.394 20,871 63,119 1,999,000 95,693 358,857 3,563,592 916.252 Dollars. 20,140,435 6,881,055 275,574 2,894,096 2,651,638 3,030,709 2,433,192 4,349,949 363,581 3,098,042 726,418 448,559 980,083 28,625 95,646 2,465,600 110,025 685,784 5,598,626 1,381,446 ^ aToS"'';"lalSL^ ^ 3116113 ^ enumerated 1835. r on y to permanent paupers, or such as are constantly in poor-houses. The 190 NEW New York, turer nine cents per statute bushel of fifty-six lbs.; and 'fine salt is sold at six cents. The trade in salt has been pushed to a considerable extent in competition with the foreign article, particularly since the reduction of the duty in 1834. During that year 1,943,252 bushels were ma- Y 0 11 K* 5 nufactured; and in 1835 the quantity made amounted toNewy ^ 2,222,694 bushels. . , , „ The following table presents a view ot the exports and Export imports of New York, for several years, each ending the and in. 30th of September. Years. 1821 1825 1830 1833 1835 Value of Imports. In American Vessels. In Foreign Vessels. Total. Dollars. 21,926,635 47,751,844 33,432,098 51,832,033 82,783,459 Dollars. 1,702,611 1,887,330 2,191,972 4,086,416 5,407,846 Dollars. 23,629,246 49,639,174 35,624,070 55,918,449 88,191,305 Value of Exports. Domestic Produce. Dollars. 7,896,605 20,651,558 13,618,278 15,411,296 21,707,867 Foreign Produce. Total. Dollars. 5,264,313 14,607,703 6,079,705 9,983,821 8,637,397 Dollars. 13,162,547 35,259,261 19,697,983 25,395,117 30,345,264 The number and tonnage of vessels entering and depart- ine from New York have of course increased in propor¬ tion to the trade. In 1830 there entered of American tonnage 298,434, and departed 229,341 ; and of foreign tonnage there entered 35,344, and departed 36,574 ; ma¬ ins a total of American and foreign which entered 333, / /», and which departed 265,915 tons. In 1835 there entered of American tonnage 676,173, and of foreign tonnage 357,575, making a total of 1,033,748 tons. During the same year there departed, of American tonnage 589, of foreign 343,078, making a total of 932,933 tons. The value of the merchandise annually loaded and unloaded in the port of New York is estimated at from 100,000,000 to 120,000,000 dollars. The number of vessels in the port in the busy season varies from 500 to ^Q, exclusively o about fifty steam-packets. The total value of the imports into the United States in the year ending on the 30th of September 1832, was 101,029,266 dollars, of which no less than 53,214,402, or more than one half, were im¬ ported into New York. The value of the exports from the same place is estimated at between one third and one fourth of the total exports from the whole of the United StIt will be seen from the above table, that the imports into this state greatly exceed the exports. This.13 ac~ counted for by the fact, that whilst almost all articles ot export from the western states are shipped at New Or¬ leans, the greater part of the more valuable articles brought from foreign countries, and- destined for the con¬ sumption of Ohio, Indiana, Illinois, and to some extent even of Kentucky, are principally imported into New York. The customs’ revenue on the goods paying duties import¬ ed into the city of New York amounts to about thirteen millions of dollars, which is more than one half of the to¬ tal customs’ revenue of the entire United States. The im¬ ports comprehend an infinite variety of articles. The prin¬ cipal are cottons, woollens, linens, hardware, and cutlery; earthenware, brass and copper manufactures, and other articles, from Great Britain; silk, wine, brandy, and other articles, from France and Spain; sugar and coffee from the Havannah and Brazil, together with tea, spices, co¬ chineal, indigo, dye-woods, and other articles. The na¬ ture of the principal articles of native American produce exported from New York w'ill be seen by the following returns for the 1st of January 1833. Ashes, pot barrels 18,241 Ditto, pearl ditto 2,356 Beef ditto 17,223 Pork ditto 29,418 Lard kegs 11,101 Butter.... kegs.. 9,286 Cotton bales 10^74! Cotton goods .packages 7,545 Flour (wheat) barrels.... 195,614 Corn. bushels.. 93,716 pice tierces 16,678 Tar .....barrels 18,537 Turpentine ditto 144,878 Hides number 169,493 Whale oil gallons 1,392,600 Soap boxes 76,981 Tobacco.. ....hogsheads 7,783 The tonnage of New \ ork is greater than that of any other city in the world, with the single exception of Lon¬ don, and constitutes between one fifth and one sixth of that of all the United States put together. By a return of the 1st of January 1834, it amounted to 319,209 tons. The following is a return of the amount of tonnage in the state in 1836. New York, 359,222, with 15,903 of steam navigation; Sag Harbour, 12,314; Buffalo Creek, 3740, with 1680 of steam navigation; Sackett’s Harbour, 2236, with 280 of steam navigation ; Oswego, 2040, with 406 of steam navigation ; Oswegatchee, 799, with 417 ot steam navigation; Champlain, 616; Genesee, 636; and Cape Vincent, 860. These facts will convey, it is hoped, a suffi¬ cient idea of the vast extent of the commerce of New York. This state borrowed a considerable sum for the con-1 struction of its canals, particularly the Erie and Chain- plain Canal, which debt is in the course of being redeem¬ ed by the annual income of the state, which always greatly exceeds the expenditure. There are several funds be¬ longing to the state, viz. the general, common school, li¬ terature, canal, and bank funds : but the general fund con¬ sists of bonds and mortgages for lands sold, loans, and other debts due to the state. For the year ending the 30th of September 1833, the finances stood as under: Dollars. Permanent revenue for interest on bonds, bank stock, and other items 62,232*26 dol. Capital,—bonds for lands, &c....125,917*70 Miscellaneous,—loan from the bank fund 83,149*83 Sundries 40,962*89 312,262*68 Canal fund,—the receipts arising from tolls, auction duty, salt duty, interest on depo- sits, and other items 1,804,439-64 Carryover 2,116,69632 1 From Williams’s New York Annual Register for 1834. NEW YORK. 191 )rk. Dollars. Brought over 2,116,696-32 Common school fund,—capital in bonds for lands, bank-stock, &c 140,983-14 dol. Revenue from interest on stock..! 09,117-77 250,102-91 Literature fund,—capital in bonds for lands, and various kinds of stock 12,155-00 Revenue from interest on stock, &c 22,577-22 Bank fund,—capital 95,381-48 Revenue 3,954-79 34,732-22 99,336-27 Total receipts 2,500,857-72 The payments made during the same pe¬ riod were permanent appropriations, such as expenses of government for salaries, and other, necessary outlays...332,041-67 Special appropriations, and tem¬ porary expenses 73,949-98 On account of canal fund 1,798,213-05 Common school fund 113,238-36 Literature fund, dividends to academies, &c 10,470-96 Bank fund, salaries of bank com¬ missioners 4,500-00 Loan to the general....83,149-83 87,649-83 nks ura ny '7. igio Total amount of warrants on the treasury... 2,415,563-85 Balance 85,293-87 From the large annual receipts obtained from tolls, auc¬ tions, sales of lands, and other items, the property of the canals, it is expected that the canal debt will be paid off long before the time fixed on for redeeming the whole of the stock. Id In 1829 an act was passed requiring every bank there- js, after to be created or renewed, to contribute annually one 1 half of one per cent, on its capital to a fund intended for the payment of the debts of such banks as may at any time become insolvent. Ihese banks are placed under the supervision of commissioners, to whom they are re¬ quired to make annual reports of their condition, and are called “ safety-fund banks.” In 1830 there were thirty- seven banks in Ne w York state, having a capital of 20,083,353 dollars. In 1836 there were eighty-seven banks, and two branch banks, which stood thus : Specie funds, 670,363dol- 7>221'335 i capital, 31,881,460; circulation, lb,427,963; and deposits, 22,000,000 of dollars. The w 10 e of these banks, with the exception of seven or eight, are safety-fund banks. There are, besides, nine savings banks, having a total capital of 3,855,517 dollars. In the city of New York there are thirteen marine in¬ surance companies, with a capital of 4,550,000 dollars; ^ in fire insurance companies, with a capital ot iU,250,000 dollars. In the other parts of the state there are about twenty-two insurance companies, with a total capital of above four millions of dollars. In 1835 there were 687 post-offices in the state of New York, and the amount of postages for the preceding year was 430,426 ollars, of which 192,493 dollars were for the city of New {-°tv 8 T?e’i ^ie mditary establishment (militia) T Nrncjn °rk thus’ viz- horse artillery 1687, caval- 1 fii 0-70 ’ artl ery 11)669 ; infantry, including riflemen, r ’ porripanies ot artillery attached permanently, or for inspection, 3032; total number of men, 178,447. There are five vessels of war employed in ordinary at New York, e constitution of this state secures toleration of reli¬ gious worship, so that every denomination is to be found New York, in it. The following is a statement of the number of the y"—-' clergy of different denominations in 1835 : Presbyterians and Congregationalists, 562; Methodists, 492; Baptists, 442; Episcopalians (one bishop), 181; Dutch Reformed, 116; Lutherans, thirty; Associate Reformed, twenty- three ; Roman Catholics, one bishop and thirty-five mi¬ nisters , Universalists, upwards of twenty; Unitarians, eight; New Jerusalemites, five; Shakers, two societies ; Jews, three synagogues ; the Friends, a considerable num¬ ber of societies; besides various other denominations not enumerated in this list, as well as a number of licen¬ tiates and candidates belonging to those given, particular¬ ly to the Presbyterians. The clergy are supported by subscription, contribution, rents of pews, income from funds, and other sources. The salaries in the city of New York vary from 1000 to upwards of 3000 dollars. The average annual salaries of the clergy of this state are estimated as not exceeding 500 dollars each. The state of the theological seminaries in 1836 was as follows: General theological seminary of the Protestant Episcopal church in the United States, located in New York, insti¬ tuted in 1819, four professors, eighty students, and 3880 volumes in the library; the Presbyterian theological semi¬ nary at Auburn, Cayuga county, instituted in 1821, four professors, fifty-one students, and 4500 volumes in the li¬ brary ; the Hamilton literary and theological seminary (Baptist), at Hamilton, Madison county, instituted in 1829, eight instructors, 124 alumni, eighty-three students, and 1600 volumes in the library; the Hartwich theological seminary (Lutheran), at Hartwich, Otsego county, insti¬ tuted in 1816, two professors, nine theological and a num¬ ber of academical students, and 1000 volumes in the library; and the Oneida institute of science and industry (Presby¬ terian), near Utica, about fifty students and 1000 volumes in the library. The Baptist college at Brockport, Monroe county, the Methodist academy, White Plains, Westches¬ ter county, and a conference seminary belonging to the same sect at Cazenovia, Oneida county, and the Genesee Wesleyan seminary, Lima, Livingston county, also belong to the list of religious institutions. Amongst these may be included the American Bible Society, which has its seat in the city of New York, where a spacious building has been erected for it; the United Missionary Society, instituted at New York in 1817; the American Home Missionary So¬ ciety, instituted at the same place in 1826; together with several missionary, tract, Sunday school, and other religious societies, which have various ramifications throughout the state. The benevolent institutions are upon a very exten¬ sive scale. There are asylums adapted to almost every case of human deprivation and misery; for the deaf and dumb, the blind, the orphan, the widow, the indigent, the aged, and the stranger. In 1834 their number, including religious benevolent societies, was forty-eight, and since then they must, like every thing else, have increased. It may be mentioned, that temperance societies flourish bet¬ ter in New York, and some of the other states, than they seem to do in any other part of the world. Since the establishment of the state government, great Education exertions have been made by the legislature to extend the means of education to all classes of the community. The appropriations made for this purpose, including the capital and income of the common school and literature funds, amount to above six millions of dollars. The common schools are amongst the most important and interesting institutions in the state. Every town is divided into a suitable number of school districts, in each of which a school-house has been erected, and is provided with fur¬ niture and fuel at the expense of the district. The follow- ing notices are derived from the Annual Report of the su¬ perintendent of common schools, made in January 1835. NEW YORK. Dollars. Interest at six per cent, on 2,116,000 dollars invested in 9580 school-houses iSb,JbU uu Annual expense of books for 531,240 scholars at fifty cents each f‘~q^«oo-00 Fuel for 9580 school-houses, at ten dollars each-• •95,800 0 Public money derived from the school fund 100,0UU UU Ditto derived from local funds belonging to ^ ^ 538.56 some towns Vu*”* ’ Ditto levied by taxation on the property ot the ^ ^ ^ Amount paid for teachers’ wages, besides pub- ^ ^ ^ lie money ’ nected with the legal profession ; also the New York Law NewYo* Institute, established in 1828, for much the same purpose ^*>4) as the preceding, and likewise in order to forrn a large library of law-books. In 1834 there were 2650 physicians and surgeons, and 2052 attorneys and counsellors in this StaTliere are numerous literary and scientific institutions Literate in New York. The principal public libraries, besides those science^, already mentioned, are, in the city of New York, the New the York Society Library, 25,000 volumes; New York Mer- cantile Library, 11,400 volumes; New \ork Apprentices Library, 10,800 volumes ; New York Historical Society Library, 10,000 volumes ; New York Law Institute Libra¬ ry, 2100 volumes ; and the Albany Library, 8000 volumes. The principal institutions are, the New York Historical Society, established in 1809, which, besides its library, has a valuable collection of coins and medals; the New York Athenaeum, established in 1824, for the promotion of science and literature; the Lyceum of Natural History, established in 1818, and which possesses a valuable library and museum of natural history; the New York Literary and Philosophical Society ; the American Academy ot Fine Arts, established in 1808; the American Lyceum, formed in 1831, for the diffusion of useful knowledge ; the National Academy of Design, established in lb Jo ; the Clinton Hall Association, established in 1830, for the cul¬ tivation and promotion of literature, science, and the arts; and the New York Sacred Music Society, established in 1823. In the city of Albany, besides the library menUori- ed, there are, the Albany Institute, established in 1S~9, the museum of which, besides a considerable library, con- tains above ten thousand specimens in geology, mine¬ ralogy, and botany, with coins, engravings, casts, and other articles of vertu ; the Athenaeum, established m lb~/, in connection with the Albany Library; and the Nor bem Institute and Academy ot Fine Arts, established in 1 • In the county of Rochester, there are the Rochester Making the total expense of these schools in ^ 1;962,670-97 The number of children actually receiving education is one in every 3-95 of the whole population. Complaints are made by the superintendent of these schools, of the inco petency of teachers, from the smallness ot the remuneration whkh they receive! The rate of wages, however, is regu¬ larly advancing, and competition will gradually cure _t ev/which exists in this well-organized system of ed ucation. By a report of the regents of the university, made in there were in the state of New York sixty-five incorpo¬ rated academies, which had 4856 students. The whole state is divided into eight districts, to each of which are apportioned 1250 dollars out of the income of the litera¬ ture fund, making a total of 10,000 dollars given annually for the support of these institutions. Ihere are also in New York above twenty Protestant and four Roman Ca¬ tholic free schools, several infant schools, and a number ot female and other seminaries of education supported by pri¬ vate individuals, the enumeration of which would form but a dry catalogue of names. . , ' Tt • There are six colleges in this state, including the Uni¬ versity of New York. The following is tne 1'®tur? ^ ^hp^um' established in 1830, for promoting literature, 1836: University of New York, established in t lecity^ gdence an’d the arts. the Franklin Institute of Roches- thatname, founded in 1831, seventeen mstiuc > ~ 1 established in 1830, for the same purposes as the students; Columbia College, New York (Episcopal a ), ’ . d he New York State Lyceum, formed at founded in 1754, eleven instructors, 16-0 alur«nj» s F in\sSl The other principal institutions are, the dents, 8000 volumes in the college library and 6000 vo- Ufca mlHdiine J J ^ General Society lumes in the students’ library; Union College Schenec- ^w York Uiambe n ^ ^ of New York; tady, founded in 1795, ten instructors, 1600 alumni, 308 ot iUeciiamcs ana ^ ^ of ^ York? for pr0. ministers, 268 students, 53o0 volumes in the college libra- , interests of aoriculture, commerce, manufac- ry, and 8920 in the students’ library ; Hamilton Col ege, ™otinS Stlfe nC York Board of Trade ; three d’c.i„,on, founded in “nRn Botanic Garden, and m, sixty-nme ministers, 101 students, ^ouu\oiur . thp Npw York State Society of the Cincin- the college library, and 3700 volumes in the studen s i- o er M ’ h ts> Exchange Company', two typogra- brary ; Geneva College, at Geneva (Episcopalian found- associatLs. There is a law journal ed in 1823, seven instructors, eighteen alumni, nine mi- Ph ’ month at New York. In the same city nisters, twenty-two students, 820 volumes m co ege i- Fl s issued, of literary and miscellaneous journals, two have already noticed in connection with religious tnst.tu- every ™“ LRf the Edin- rpitySi and ^ geons, at Fairfield, with five professors, and 190 students ; ed m the s ate, mostiy at No ^ k> ^ and the Geneva Medical College, at Geneva, having six monthly. Ihere aie also tliree 01 g _ , professors, and sixty-eight students. The other medical institutions are, the Medical Society of the State of New York; the New York State Vaccine Institution; the Kappa Alpha Phi Society ; the New York Eye Infirmary ; the Al¬ bany County Medical Society ; the Medical Society of the City and County of New York ; besides a Lunatic Asylum, the'New York Hospital, and two or three other hospitals - ■ _ . and asylums. There appear to be no law schools, but there examination which took f „ - -<4 institution,' are the New York Law Student’s Association, instituted in mation ot the Prison Discipline Soc 7’ already ?833 for purposes of mutual discussion on subjects con- says the Amencan Almanac for 1836, winch hasalrea , monthly, ihere are also uiree ui .uui ~, cultural, and temperance publications; the total n of journals published in 1834 being forty ,In 1810 the were only sixty-six newspapers published in New 1 - in 1834 they had increased to 267, ot which number ty-one were daily papers. ,v In each county of this state a jail is established by * ? Previously to 1824 jails were very badly managed, but an ’ ook place during that year led to the tor r • • i• * a ■%mfntinri. Fork, been productive of the most important and beneficial effects * with respect both to the condition and character of the prisoners, and the well-being of society.” All the peni¬ tentiaries, with the exception of that at Auburn, were so constructed and managed as to render them only schools of vice and crime; but the object of this society is so to improve prisons in construction and discipline as to produce, as far as possible, the reformation of prisoners. The system adopted is that known by the name of the Auburn plan, and its principal features are, solitary con¬ finement at night and during meals, and combined labour at other hours of the day ; religious instruction, particular¬ ly on Sunday; and absolute silence amongst the prisoners at all times. The cells are so constructed as to answer the various ends which the society had in view. Durino- the hours of labour the prisoners are employed in workshops, or in the prison yard, in parties of a convenient number each. Attention is paid to health, by the complete ventilation of the small cells, where the prisoners sleep and take their meals; and, to secure the well-working of the svstem, every violation of the rules laid down is punished 'by solitude darkness, or such other infliction as may be found neces¬ sary to enforce obedience. The eighth report of the society speaks with confidence of the “ favourable moral results •” and observes, on the whole, in regard to the state prisons, that there is great cause for congratulation and thank¬ fulness. By the same report there are stated to be in prison at Auburn 876 individuals; and the balance of pro- ts in favour of the prison, arising from the earnings of the prisoners, is stated at between eight and nine thousand dollais. The Mount Pleasant state prison, Westchester county, is likewise an admirable establishment, and in ex¬ cellent condition ; as is also that at Sing Sing. The mode of supportmg the poor which, in America, has been found most economical, and best calculated to discourage pauper¬ ism, is that of maintaining them in county poor-Ws The former aw of settlement, and the practice of compul-' sory removals, have been abrogated, and a simple rule of setdement, founded principally on the residence of the par¬ ty, and a summary mode of settling disputed question^ s,,h stituted in their stead. The followingPis anrbsSacUaken from \Y ilhams s New York Register for 1834: “ Reports state fif>n rfiecei.ved fl'om a11 the organized counties in the state, fifty-five in number. All these counties have erect¬ ed poor-houses, with the exception of six ; and thirty-seven poor The 6 ab°hslied the disBnction of town and^county poor. The practical operation of our present noor hnnJ vaSe e„r,l,erateS sa,;sfactOTily. ‘hat Ft has a decided a* inn- ^ i 01V le score of economy over every other exist pense0ofetheSsPIf0rtin^ indigent perSOns ; and that the ex¬ pense of the system, in proportion to the number of nent SU5P°rted’18 regularly diminishing.” The annual ex which the New YoriTT t0 865’‘’770 of land, valued at 550,000 Lla f neT hhS °f aerate with the demafd, „f .1 Tbc,r ""'"hons eornmen- the wants of civilS life xfg'; mercant'le cU!' and the port of New York for fo *T le lneS °f' f Jc'bets from nludins those To I L/ ?r?Iga Parts are numerous VOL XV, L‘verpool, London, Belfast, Havre, NEW YORK. 193 , m- Ja- maica, Carthagena, and Mexico. The principal lines of New York. packets between New York and other ports of the United' States compnse those to Charleston, Savannah, New Or- leans. Mobile, Apalachicola, Darien, Baltimore, Washing¬ ton, Philadelphia, Boston, New Haven, Salem, and the Vhe ,east- There are iines of packet- boats on the Erie Canal, and steam-boats without number plying on all the waters of this state. On the river Hudson, wheie steam-navigation was first tried, it is common for one steam-boat to tow ten other boats laden with goods. vpo/i «9ei T1; d rnStitUtion 0f this state> adopted in the year 18^1, the legislative power is vested in a senate consist¬ ing of thirty-two members, and a house of representatives consisting of 128 members, all of whom receive three dollars per them for their services. The senators, who must be freeholders, are elected for four years ; but the members of assembly are elected annually. To facilitate elections, the state is divided into eight districts, each of which is entitled to four senators, one of the number being annual- y appointed in each district. The members of The other house are chosen by the several counties amongst whom they are apportioned, according to a rule prescribed in the constitution. The executive power is vested in a go¬ vernor, who holds his office for two years. A lieutenant- governor is elected at the same time, and holds his office or the same term of years. He is president of the senate, and officiates as governor when that office becomes vacant. Ihe fianchise is exercised by every male citizen twenty- one years of age, who has been for one year resident in t le state, and for six months an inhabitant of the county in whmh he votes. The suffrage is thus very extensive, ?"ithrUmb<;r ° electors 18 accordingly very great. In I?32 the.total number of votes for governor, exclusive of scattering votes, was 323,082. Sheriffs, coroners, and ounty clerks, are elected by the people; but the other civil officers are generally appointed either by the gover¬ nor and senate, the two branches of the legislature, or the governor alone, excepting clerks of courts, district attor- cour’ and S°me °ther officers’ who are appointed by the The judicial establishment consists of several courts, lhat for the trial of impeachments and the correction of errors is composed of the president of the senate, the thirty-two senators, the chancellor, and the justices of the supreme court. It is the court of last resort, deciding upon appeals from the court of chancery, and writs of er¬ ror from the supreme court, but has no original jurisdic- tion excepting in cases of impeachments. Its sessions are held lit the Capitol m Albany, or at the City Hall in New York The next is the court of chancery, the powers of which are vested m the chancellor, and in eight vice- nf thCe ,6rc- 1.he th'rd 18 the supreme court, consisting of the chief justice and two associate judges. Lastly, there me eight circuit courts, each consisting of a single judge. be“rCr corresP°nd’ both in territory and in name, with the eight senate districts. Each of the circuit judges P°S®f!SesK the.Powers of a justice of the supreme court c lumbers, in the trial of issues joined in the supreme verv ’ a'rf m C0UrtS U uyer and terminer> a"d jaif deli- rZL lere ^USt be held in each >’ear at ]ea8t two cir- tv t Z ; T C0TS 0yer and terminer, in each coun- The cmZ 5 fZ1 "i 6 dty °f New York at ]east four- he courts are held during as many days as the judge power Zr?- • Courts ,of ?Ter and terminer, hiving at thp 6 ^ 3 ?ni^es and m,sdemeanours, may be held at the time and place at which any circuit clurt may has theZ? apP- XeTnd°tw „f the city of New York cons.sts o. a due^-t.ce^^ ^ NEW YORK. v O*orn pxtremitv of Long Island Sound on the north-New the western extremity or^^^b ^ the gouth> The City^ east, and 11 42 40 north anci longitude 74. J“„m Gretnwth. The city and county are of the same limits, comprising the whole island, which ex- the same an ,1'y the gouth t0 Kingsbridge on Ihe north thirteen miles and a half. The average breadth • ’1^ Knt in one part it is two miles and one third 18 a "" and the area of the island is about 14,000 acres. It ia separated from^he continent on the north by Haeriem River which is crossed by several bridges; from New lersey on the west by Hudson’s River ; from Long Wand jersey on i j from Staten lgland tQ the “u* by Sharer harbour. The island of New York rf^elTof Ne;” k Xiaurf. chief justice and two son* by the bay-.a^. gr.„ite, IS There arecourts^ ^11-^^"^^^ the' cotmty of New York) by the judges ot the county ”^“"very considerable throughout the whole extent, "-™ ri r,:r, Jb.: sva as srsssss S'S."f'S zisxst those uunishable with death or imprisonment for life. „ ^eifipred as of sreat importance, since it 1 F oiJprmen. or mayor and ret The U1 lov/m***'***' ^ _ - of dm Wand is considered as of great importance, since it enables water reservoirs to be so located as to command the vvhole city at an elevated head. The harbour or bay, conmiodious^and^the largest^e'ssels'^ia^come^u^w^e an^specia/jiirUdicdon.^'surrogates’ courts have^juriwlic- Si countt' CoruTspedars’esst4nsbof the peace°may be held ‘y-one feeO '^"““p'^Tlmre' is a Hghthouse at in and for the county of New York, by any three judges of ‘huy h ^ ^ New Jmey shore, eighteen mdes dis^ the court of common pleas of the said county, of whom th® b y an(, vessels h-equently anchor in the firstTudge of the said court, the mayor, or recorder, hall 'a"‘rtr““)ou 0/Raritan Bay. The entrance to he bar- i ait fip one • and for the several counties ot the state, ,, i tue Narrows, between Staten Island on the by Sree pSes" the peace, or by two such justices and hour t’he easl, about eight miles froni one judge of the county courts of such county, for F\ cit There is a lighthouse on the western part of poses provided by law. The justices ot the marine court the c.ty.^ miles north.east of New York in the city of New York are authorized to hold a co harbour is rarely obstructed with ice. The principal therein, called the Marine Court of the Clty ^ . :* commercial business is transacted on the east side ot t e Tarh of the assistant justices in the city ot Ne K'nst River being the most safe and convenien feuu red lo hold a court in the said city within the ward cty, the ^ Rave. of ^ East River is from requireo io nnnointed. The justices of the vpnuired to hold a court m me . c ., or wards for which he is appointed. The justices of the luces’ court of the cities of Albany and Hudson are authorized to hold courts therein, cahed respectively Justices’ Court of the city of Albany, and the Justices Court of the city of Hudson. Justices’ courts in each coun- * E6'- — « framed and not only embodies many of those safeguards usually inserted in bills of rights, but has some provisions of a peculiar character, by which public property and p lie institutions are secured and protected, scmples of con¬ science in regard.to bearing arms are obviated, and mm ters of the gospel or priests are excluded from all civil and mihtarv offices. The common law of England, varied from time to time by numerous acts of the colonial an state legislature, forms the basis of the jurisprudence o New York. Since American independence was establish- rsew auixv the* fttatntfl laws O nart of the harbour. The width of the East River is from one third to one half of a mile to the opposite shore of Brooklyn, on Long Island. The Hudson, or North River is one mile in width opposite to Jersey city, and a mi and a half at Hoboken, New Jersey. The approach to New York by sea is one of the most splendid sig ts o the kind which the world can present. The works ot na- ture are here on the grandest scale, and the tout ensembk of islands, rivers, bays, and forests ot masts, wit spi toweringamongst the trees which shade the streets con¬ stitute a scene as varied and interesting as c^n e ^ ^ The principal fortifications tor the defence ot t hour are at the Narrows, about eight miles trom t e ciy But on the Long Island shore are torts Hamilton and L Favette; and opposite them, on Staten Island, are For Tomkins and Richmond. There are several small islands in the harbour; and upon those called Bedlow s a«d ‘s. .1 _ thprp. are batteries, Sew Sr Sincr^ericat, independence was establish- » f^ west^nTde", There are batteries; ed, there have been four revisions °f the statute laws of lid Islandj 0 ■ to the battery, and very re nave ueeii iuui v,. — state. The last, which took place in „18J7-^8’ ^ most important; and the enactment of this body of sta¬ tute law, which came into full operation on the 1st of Ja¬ nuary 1830, is perhaps one of the most important events in the history of American jurisprudence. . ^•4. f The capital of this state is Albany, but by far the lar- Sei York, gest and most populous city is New York, the commercial * fmporium of the United States. It is situated on New York Island, formerly called Manhattan Island, at the con r. , tt i with thp strait called Ts ands. situateu on uie wcoi-cm whilst Governor’s Island, opposite to the battery, and v y near the city, is strongly fortified. The Battery is situat d at the south-west extremity of the city, and ^ handsom y laid out, being intersected with gravel walks, and tastet J decorated with shrubs and trees. Castle Garden, conn ^ with the Battery by a bridge, is a fine promenade, d much frequented during the summer. A telegraph is e blished on the heights of Staten Island, commumcating J signals with one in the city. A panorama of New York pre 8 . vvarf Rfi tfip rit.v occunving the southern York Island, formerly called Manhattan Island, at the con- part of occupying the southern fluence of the Hudson or North River with the straAcalled ^^f^Xtand stretching along each river abou the East River, which connects Long Island Sound wit p generally speaking, regularly built, th the Atlantic Ocean. It is less than twenty miles from three mites. « , 6 NEW YORK 195 S P™c.pal streets runmng north and south, and be.ng cross- orders. The tout msemlle is elegant, if not splendid, and New York ' ed by otllcrs extending from the river on the east to that the edifice reflects great credit on the inhabitants for their — ~ on the west. Great improvements have been made on munificence and tafte. It wi™ mmencedTn 1803 and ^ the compact part of the city within the last ten or twelve finished in 1812, at a cost of 538,731 dollars It consi s years, the clumsy fabrics of the Dutch having given place of the City Hall proper, comprising a large suite of rooms to the more tasteful and convenient erections of modern for holding the different courts of law, and which are fit ”d times. The style of building with granite and marble up in a rich and expensive style; and of the new Citv Hall fronts to the basements is now almost uniformly adopted which includes the police office, and a number of offices and n the construction of warehouses. The northern part of rooms adapted to various necessary purposes MaOTof the the city has been very handsomely laid out in wide streets churches are in general large but there ifi„ .Y0,V . and spacious avenues; and the style of building for dwell- architecture, or fhat of the steeples particular^Te m W™ ing-houses is neat, and frequently elegant. notice. There are above one hundred places of word, wf ihe n iTc, I® m°St ?nend“^ S,treet in the or in New York, which is about the same proportion to the num- the United States, runs through the centre, and extends her of inhabitants that we find in Great Britain Columbia three miles in length from north to south, terminating College, above the City Hall, is advantageous”,; and limid at the Battery. It is eighty feet wide, and generally pre- somely situated in a fine square. The edifice and grounds sents massive and noble buildings including three fine attached are extensive, and it possesses an estate valued churches several large hotels, Washington Hall, the Ma- at 400,000 dollars. Tim college contains a cha .eMecture some Hall, with a variety of elegant shops. From this rooms, hall, library, museum, and an extensive nhilosonhi t0 therive,rf- cal, a”d astronomical apparatus. The standard of class!- ti, r • • s 1 5 , “ . .est t0 1,16 rlvers- cal and astronomical apparatus. The standard of olKi e o owing is a summary of the principal streets in this cal education is supposed to be higher here than in most city, from a work entitled New York as it is in 1833.- of the other colleg^^f the Union. The UMva siti ol ,he •el1" re^ 18 "ue elegant» and runs parallel city of New York is proiected on the hrnarf n/'i 11 Kovo 1 — ~ u la 111 lOOO.* Greenwich Street is wide and elegant, and runs parallel with Broadway, between that street and Washington Street, which last is a fine avenue, next to West Street extending along the North River. Pearl Street, between Broadway and the East River, is above a mile in length, and its course is nearly in the form of a crescent, contain¬ ing numerous spacious warehouses, and is the principal seat of the dry goods and hardware business. Front and Water Streets, between Pearl Street and the East River, mission merchants, and mechanics connected with the shipping business. South Street, running along the East River, contains the warehouses and offices of most of the principal shipping merchants. Wall Street runs from Broadway to the East River, and is occupied by the banks, insurance companies, merchants’ exchange,2 newspapers, and brokers offices, being the seat of heavier monied trans¬ actions than any other place in America. Canal Street running across Broadway to the Hudson River, near the centre of the city, is a spacious street, principally occupied by retail stores. The Bowery is a wide and extensive street running du-ectJy north and south-east of Broadway. Ihe third avenue, extending from the Bowery to Haer- lem, is macadamised, and is the principal avenue to the city sTr’l Meaf ?hatham Street' East Broadway, Nassau S eet, Maideu Dane, Broad, Fulton, Cortlandf William, udson, Division, Grand, and Broome Streets, deserve XT Vr i- . .xuc university or tne city of New York is projected on the broad and liberal scale of the universities on the continent of Europe, and promises to be of great advantage to the literature of the country. It is governed by a council of thirty-two mem¬ bers, chosen by the subscribers, together with the mayor and four members of the common council of the city Ihe New York Institution is a brick building, 260 feet in length by forty-four in breadth, and is appropriated to as¬ sociations of literature and the fine arts, such as the Lite- line Arts, and the like. The State-prison and the Lunatic Asylum are large edifices, built of stone. The Alms-house and the Asylum for the Deaf and Dumb are also buildino-s of ample dimensions, built of brick. The Park Theatre is a spacious edifice, eighty feet long, 165 feet deep, and fifty- five feet high, and is calculated to contain 2400 persons. Ihe New York Iheatre, in the Bowery, displays much architectural beauty, and amongst the modern ornaments of the city stands pre-eminent. It has a front of seventy- five feet, and is 175 feet deep and fifty feet high. Besides these, there are other theatres and places of public amuse¬ ment in New York The Medical College is‘a conspicuous echfice; and the following are spacious buildings: Clinton Hall, the Bib e Society s Depository, the American Tract Society s buildings, the Arcade and the Arcade Baths the New York Baths, the Public Marine Bath, the Manhat¬ tan Water-works, the Exhibition Room of the National Aca- particular notice, as amon’o- the principal streets J.an Watfr-works> the Exhibition Room of the National Aca- portant edifice in New York. It is situated in the Park ma iA k lamniany Hotel> and several other hotels. The ttie Ionic and Corinthian which is Washington Square: Hudson’s Square Sr s'johrt g and two wings, principally of i * TLAlo^Sr18’ aUt,h°r the New York Ar‘n^l Register. 835. The fnlWth a consideriible. portion of the city of New York, I6 0win&. account of this destructive confiasration is from J“-fire't'at0SUnt °f Z American “1!?" ^ at l ^ 11 ri a ii ouicial report of the committee, amounted to 17 11^ fjoo i mi place in the United States. The edifice of’marHp1 ars; th.e buildlng3 the number of which was 52f> at 4 00( 000 dolkrs U'? ™fchandise destroyed was estimated Xes have hien S at 150’0dd dollars, and the JarSs re^ Exchange, a magnificent Mard l nr r SUpphed with buildings of the same descrintion w?th a 1?°° dollarf: The places of the destroyed 36’ C°UgreSS paSSed a biU ^ the relief of the sufferer?; but n? aid SsdLSffomToad^ “ ^ 0ther C°Untr'V- '1,1 196 NEW YORK. New York. Park is part of the extensive tract of land, in the north- ' western part of the city, belonging to Trinity Church, it comprises an area of four acres, and the square is enclosed with costly and valuable private dwellings, having bt John s Church on its western side. Amongst the places ot fa¬ shionable resort in the city and its vicinity may be men¬ tioned the Battery, which extends somewhat m the form of a crescent along the southern extremity of the city, and covers an area of nearly eleven acres. This favourite pro¬ menade was originally a fortification thrown up by the Dutch, and planted with cannon, from which circumstance it derives its name. But it is now divested of its warlike appurtenances, having for many years been used ^ a pu - lie walk; and being shaded with trees, and consta y fanned by the ocean breezes, there is not a more agreeable or healthful retreat during the summer months. In or near the city there are a number of parks and public ga- dens, which are also much frequented. With regard to the buildings of New York in general, Mr Stewart observes, “ The churches, at least many of them, are large, but there is nothing in their architecture, or that of the steep es, particularly requiring notice. There is no buddl"S ^eu to bear any thing like a comparison with many of the pub¬ lic buildings in the European capitals, such as St Martins Church in London, the front of the Register Office in Edin¬ burgh, or that of the Chamber of Deputies at Paris , but there are churches and public buildings in all those cities quite as deficient in good taste as any of those which I observed here. In short, my notion is, that, though there is no very fine building in the city, there is not much to hurt the eye of the fastidious; and the city is generally composed of clean-looking buildings and streets, and is re¬ gularly built.” New York is divided into fifteen wards, each ward electing annually an alderman and an assistant alderman, two assessors, one collector, and two constables, who are formed into a common council of tw0 b°a^df; 1^e mayor is elected annually by the joint ballot of both boards. The situation of the city is considered as very favourable to the health of the inhabitants, from the elevation of the island, and the vicinity of the ocean. The climate at most seasons is mild and agreeable, the winters being less severe than in the interior of the state, and the sea-breezes ten¬ dering the heat of summer less oppressive. The religious, benevolent, and other institutions, the banks, insurance offices, and miscellaneous companies, the state of the press, literature, religion, and education, the manufactures, trade, commerce, lines of packets, and stages, of New York, have been already enumerated in the gene¬ ral account of the state, as fully as our limits will permit. There is no city in the United States, perhaps in the world, which possesses greater advantages of situation than New York, both for internal and external commerce; and these have been immensely increased by art. It is hither that merchants and traders resort from all quarters, from the shores of the Atlantic, the confines of the lakes, and the banks of the great Mississippi, with a certainty that they can dispose of their own produce, and supply them¬ selves with every article which they require. It is at this point that the vast stream of immigration at first collects, as in a reservoir, whence in course of time it distributes its contents over the whole country. Here, too, strangers and travellers congregate as the place of departure to every part of the world, attracted by the ample facilities afforded them at fixed and short intervals. It may serve to give some idea of these to state, that there are opportunities, by regular packets, to sail to Liverpool four times a month, to Havre three times, and to London twice a month. I he advantageous situation of this city naturally inclines the in¬ habitants to commercial pursuits ; but of late years large New To*. >' capitals have been invested in manufactures, which are ^ becoming more and more objects of attention. But the probability is, that New York will long remain in a great degree, a central point for the commerce of the United States The numerous failures which occurred in America during 1837 have of course affected New York; but this is not the place to speculate on the causes and conse¬ quences of these casualties. One thing seems perfectly clear that the natural resources and advantages of the United States are too vast ever to be permanently affected by the state of trade in any other country, at least for ages to come. The population of New York, and the prin- cipal cities in the state, for three periods, are as under. 1820. New York.... Albany Brooklyn Troy Buffalo Rochester... Utica Schenectady Hudson 1830. 123,706 12,630 7,175 5,261 2,095 1,502 2,762 3,939 5,310 Poughkeepsie 3,401 1835. 202,589 24,209 15,394 11,550 6,321 9,269 8,323 4,268 5,392 5,023 270,089 28,109 24,529 16,959 15,661 14,404 10,183 6,272 5,531 6,281 Albany, the political metropolis, is situated on the west¬ ern bank of the Hudson, 150 miles from New York, and has a position equally convenient for communication with that city and with a vast interior country. The appearance of Albany from the opposite side of the river is striking and splendid; its situation on the side of a hill is favourable for every part of it being seen, and the Capitol and public edifices are conspicuous objects. It consists of one street of very considerable length, running parallel with the nver, from which the rest of the city rises abruptly. 1 he Capi¬ tol, built upon the upper portion of Albany, on an emot¬ ed site, is 115 feet in length by ninety-eight in breadth. There are ten or twelve other public buildings, some of which are very handsome. This city is very rapidly in¬ creasing, as the population returns sufficiently indicate. The other towns enumerated in the foregoing list are also places of considerable and growing trade. The history of New York is so closely interwoven withHistorj. that of the United States generally, and the latter part of it in particular with the war of independence, and the subsequent consolidation of the country as a federal re¬ public, that it is only necessary in this place to give a bnet abstract of its early annals. That part of America to which New York belongs was discovered by Sebastian Cabot in the year 1497. He claimed the country for Ins sovereign, but made no effort to form settlements; nor was an undertaking of this kind attempted by the English un¬ til after the Dutch had colonized a portion of the country. It is certain that, in 1609, Henry Hudson, an English¬ man, entered the bay of New York, and sailed up the river now called by his name, as far as latitude 43° north; but whether he was employed by the English government in this service, and sold the country which he thus disco¬ vered without authority, is a point not so clearly settle • English writers take this view of the case; but the Lutci historians assert that he was at the time in the service oi the Dutch East India Company. At all events, the Eng¬ lish for some time made no opposition to the settleme of the country by the Dutch, who immediately commence ‘ Three Years in North America, by James Stuart, Esq. 1833. N E Y xi a trade with the natives of the country. The right of the English to the territory, however, was formally recognised, , by the Dutch applying for and receiving from James I. in 1620, permission “ to build some cottages on Hudson’s River, for the convenience of their vessels engaged in trade with Brazil.” To the colony which they settled under this license they gave the name of the New Nether¬ lands. Buildings were erected in the following year near the junction of the East and North Rivers, and a governor was appointed by the Dutch in 1629. Complaints were made by Charles I. of the encroachments of the Dutch on New England, and the states-general declared, that the settlement of New Netherlands was “ only a private un¬ dertaking of the West India Company of Amsterdam.” In 1664, Charles II. granted to his brother, James duke of York, “ all Mattawacks, now Long Island, all Hudson’s River, and all the lands from the west side of Connecticut River to the east side of Delaware Bay, together with the royalties and rights of government.” James sold that part of the grant which comprehends New Jersey, and retained the remainder, w'hich comprehends the present state of New York, a name bestowed upon it in honour of the pro¬ prietor. The states-general guaranteed the possession to him by the treaty of Breda in 1667. Previously to these transactions, however, the parties themselves had been set¬ tling the point of possession in the disputed territory it¬ self. In 1664 the New Netherlands was taken by the English; in 1673 it was retaken by the Dutch; and in 1674 it again fell under the power of the English, to which it remained attached until the time of the revolution. The remaining portion of the history of New York belongs to that of the United States. r. R,j NEXI, amongst the Romans, were free-born persons who had been reduced to a state of slavery for debt. By the laws of the twelve tables it was ordained, that insolvent debtors should be giv,en up to their creditors, to be bound in fet¬ ters and cords; and though they did not entirely lose the lights of freemen, yet they were often treated more harsh¬ ly than the slaves themselves. If any one wras indebted to several persons, and could not within sixty days find a surety, his body according to some, but according to others his effects, might be cut in pieces, and divided amongst his creditors. The latter opinion seems the more probable, as Livy mentions a law by which creditors had a right to attach the goods but not the persons of their debtors. NEY, Michel, a marshal of the French empire, and one of the distinguished generals produced by the French rS? u011’ W3S b0rn at Sarrelouis> on the 17th of January v 9'mvS father had been a soldier> but> after the Seven iears War, had retired to his native village, where he ex¬ ercised the humble trade of a cooper. Young Ney re¬ ceived his education at a school kept by the monks of St Augustin, under whom he appears to have made consider¬ able progress in his studies; but being fired with military ar oui by the recitals of his father, he early enlisted into a legiment of hussars {regiment da colonel-general), where he served for some time, and was a subaltern at the com¬ mencement of the Revolution. He then attained the rank of captain, in which capacity he made his first campaigns, ac ing as aide-de-camp to General de Lamarche, and after¬ wards as adjutant-general under the orders of Kleber. This atter employment afforded him several opportunities of distinguishing himself; and, in the official reports of the ime, honourable mention is made of him at the passage of Mnni I1" m 1 and also at the combats of Altenkirchen, 1 lontabaur, and Wurtzburg. On the 8th of August 1796, Pfort?heiTm’ and was promoted to the rank of bri- ;iurerh ■„ r Ktl,e crpaisn °f i797>he "as uccessful, but his horse having been killed at the com- Hoche .eimber?’ be, .feI1 lnt0 t,1e hands of the enemy, rtoche, who admired his undaunted courage, earnestly so- N E Y 197 icite.d his exchange, and, as soon as he had obtained it, appomtedjiim general of division. It was in this capacity that, in 1798, Ney commanded the cavalry of the army which, under the orders of Schaumbourg, executed the in¬ vasion of Switzerland. On this occasion he acted towards 1 “e inhabitants with as much generosity as circumstances wou d permit; and, the following year, he acquired a great reputation under Massena, particularly at the battle of Zurich. In the year 1800 he served with the army of Moreau, and greatly distinguished himself both at Moes- kirch and at Hohenlinden. After the peace of Luneville, when Bonaparte wished to effect the entire subjugation of Switzerland, Ney was sent into that country with the title of minister plenipotentiary, and there conducted himself in a manner to deserve more and more the favour of his master. In 1804 he obtained the baton of marshal of the empire; and it was in this capacity that, in 1805, he gained, m Sunbia, the victory which procured him the title of'Duke of Elchingen. After the capitulation of Ulm, being order- ed to occupy the Tyrol, he entered Innspruck on the 7th of November, at the head of the sixth corps of the grand army, which he also commanded the following year, in the contest with Prussia. Having contributed essentially to the victory of Jena, he appeared before Magdeburg, and, by a prodigy which still remains inexplicable, he, in less than twenty-four hours, received the capitulation of that re¬ doubtable fortress, defended by a numerous garrison. In the beginning of 1807, he obtained a signal success before 1 horn, where the whole Russian army had advanced to attack him, hoping to surprise him in his winter quarters; and, at a later period, he carried the town of Friedland at the battle of that name, which terminated the war in the north of Europe. . But the war in which Napoleon found himself involved, if extinguished at one point, was assiduously kept alive at others. Scarcely had he conclud¬ ed a peace with the Russians at Tilsit, when he hurried away to attack the Spaniards; and Marshal Ney, with his corps d armee, was transported from the banks of the Nie- men to those of the Ebro and the Tagus. The marshal, finding himself obliged to carry on a war of posts and of chicane in Galicia, lost a great number of men in this in¬ glorious service, and with difficulty maintained his ground till the moment when he received orders to unite his corps with that of Massena, who had been sent in order to expel the English from Portugal. But this was found to be im¬ practicable. It was judged that the lines of Torres Ve¬ ras could not be attacked with any prospect of success ; and when Massena found himself constrained to retire be¬ fore the Duke of Wellington, Ney commanded his rear¬ guard, and, in that difficult retreat, displayed equal talent and courage. In 1812, he was recalled by Napoleon to assist in the approaching invasion of Russia, for which an aimy of more than four hundred thousand men had been as¬ sembled on the ^ istula. At the terrible battle of Mojaisk or Borodino, Ney commanded the centre; and it was on this occasion, amidst the carnage of a conflict unequalled in modern times, that he earned the title of Prince of Moskwa. Nor did he display less valour and firmness in the disastrous retreat from Moscow, in which his corps almost entirely perished. Napoleon, who commonly call- nl 'f lhe , i,V8St °f tbe brave’ then designated him, in e of the bulletins of the army, as having a soul tem¬ pered with steel. In 1813, Ney participated in the inde¬ cisive victories of Lutzen and Bautzen ; but he had the misfortune to lose the battle of Dennevitz, where he was de eated by Bernadotte and Bulow, with the loss of ten thousand prisoners and eighty pieces of cannon. This event made a deep impression upon his mind. Napoleon testified the most marked displeasure; and Ney, dissembling h.s chagrin returned to Paris in a sort of disgrace. Ne- vertheless, he was again employed in the beautiful but 198 N E Y N E Y Nev. unfortunate winter campaign of 1814; and he was at hon- ' tainebleau when Napoleon was compelled to abdicate. Mey contributed materially to bring about this event, and he was one of the first generals who submitted to the Bour¬ bons. Having presented himself before Monsieur on the 12th of April, he said to that prince, “ Your royal high¬ ness will see with what fidelity we can serve our legitimate kino1.” He also went to pay his respects to the king at Compiegne, and was there most favourably received. Louis XVIII. himself received his oath as a chevalier ot the or¬ der of Saint-Louis, confirmed to him all his titles and pen¬ sions, and created him a peer of France. Marshal N ey was living at his estate of the Coudreaux when Napoleon, i£ - ing escaped from the island of Elba, landed on the coast ot France in February 1815; and he there received oiders from the minister of war to repair to his government o Besancon. He immediately proceeded to Fans, and pre¬ senting himself before the king, made great protestations of devotion, and, kissing the hand of Louis, declared him that he would bring back the disturber of Europe an iron cage. He then set out for the eastern frontier, assembled some regiments at Besan?on, and P^cl"g h™’ self at their head, proceeded towards Lyons. At Lons-le Saulnier, however, he learned that Napoleon had already entered Lyons ; and from this time great agitation manifest¬ ed itself amongst the troops. Nevertheless, the marsha himself still appeared faithful to the king, and even exert¬ ed himself to calm the excitement which prevailed amongst the troops; but in the night between the 13th and 14th of March, an emissary sent by General Bertrand broug i him proclamations and letters from Napoleon, who made him brilliant promises, and styled him, as formerly, the bravest of the brave. The marshal could not resist the seductions of his old master, and next day he read to the troops his famous proclamation, beginning with these words . ine cause of the Bourbons is for ever lost. It is the Emperor Napoleon, our sovereign, who is alone entitled to reign. His whole conduct during the hundred days was a conse- ouence of this step. Napoleon sent him as extraordina¬ ry commissioner to survey the frontiers of the North, am also appointed him a member of his chamber of peers. In the1 short but decisive campaign of Waterloo, he s plaved none of the military qualities for which he had been distinguished, except courage. At Quatre-Bras he acted with unaccountable hesitation, paralysing a force sufficient to turn the scale on either side, but whlcM« reality, effected nothing of the least importance. A the defeat of the French army at Mont St Jean, he re¬ turned to the capital, and in the chamber of peers gave a most alarming picture of the disaster which had befal¬ len it. When Paris capitulated, Ney, having no hopes of finding favour with the Bourbons, took refuge in Au¬ vergne, where he was arrested in consequence o the or- donnance of the 24th of July, in which he was described as one of the authors of the revolution of the 20th Maich. Being conducted to Paris, he was confined in the Lon- ciergerie, subjected to several interrogatories, and at length brought before a court-martial, composed of mar¬ shals of France and lieutenant-generals, to whose com¬ petency he objected. His counsel insisted much upon this point, in which they were ultimately successful; the mem¬ bers of the court being glad to escape from an embarras¬ sing position, by pronouncing their own incompetence to try the prisoner. By an ordonnance of the king, Ney was then brought before the court of the peers, whose compe¬ tency was not disputed. But his counsel remonstrated warmly against the expressions employed by the ministers, who had declared that it was “ in the name of Europe that they demanded his trial; and the same learned per¬ sons appealed with much force and eloquence to the con¬ ditions of the capitulation of Paris, which guaranteed to all who were within the walls of the capital that they should neither be disturbed nor sought after on account of their political conduct. All their efforts to save their client were, however, unavailing. After fifteen sittings, Marshal Ney was condemned to death, on the 6th of December 1815, by a majority of 160 to 119 ; and the following day the sentence was carried into execution Having received all the consolations of religion from the curate of Samt-bul- nice, he was shot by a platoon of veterans, near the palace of the Luxembourg, where he had been condemned, and displayed in his last moments the same heroic courage which had so often distinguished him in the field of batt e. Flis body was given to his friends, and conveyed to the cemetery of Pere la Chaise, where his tomb may now be seen. Marshal Ney and Colonel Labedoyere were the only victims of a revolution where it is evident that nei¬ ther played the principal part, and that both were led away bv the force of circumstances, and the spell which i apo- leon exercised over the minds of the officers as well as the common soldiers of the army. _ ) NEYER, a district of Hindustan, in the province of Cutch, situated about the twenty-fourth degree of north la¬ titude, and bounded on the south-east by the fenny tract called the Runn. The country has been but imperfectly explored, and is of an arid and sandy nature, being inter¬ sected by no streams or rivers. Water is procured from deep wells, which in many seasons afford but a precarious sunnlv. The inhabitants are generally thieves and depre¬ dators The country abounds in horses of a very superior quality, which enables the plundering rajpoots to extend their ravages far and wide. The Coolies, also, who inhabit this tract, are very curiously armed with a curved Stic like the blade of a sabre. This is burnt and made ex¬ tremely hard, and thrown to the distance of 120 yards, at which distance they can break a man s leg, or kill him it they strike him on the head. . . v ... NGANCHAN, a city of the first rank, in Koeitchoo, being situated in a mountainous country, which, owing to the rudeness of the inhabitants, is in an unimproved state. Long. 105. 31. E. Lat. 26. 12. N. . . u NGANLO, a town of China, of the first rank, in Hou- quang, being situated on the river Han, in an extensive and fruitful plain. It carries on a considerable trade. Long. 111. 24. E. Lat 31. 14. N, „ , . . NH1NG-KOUE, a city of China, of the first rank, m the western part of the province of Kiangnan, being situ¬ ated in a mountainous and woody country, abounding m medicinal plants. It has considerable manufactures ot pa¬ per. Long. 118. 24. E. Lat. 31. 2. N. _ NIAGARA, a large river of North America, to whic belong the most magnificent water-falls in the worid. 1 ie river, forming part of the boundary line between New \o and Upper Canada, runs from Lake Erie into Lake 0 - tario, thus connecting the St Lawrence Lake On a- rio with the upper lakes. It is thirty-five miles m length and is from half a mile to several miles in breadth, there are many islands in the Niagara, all the way to the tall, and close above them; but the principal island is about half-way between the "Gage of Black-Rock and the . it is called Grand Island, and contains about 17.000 ac The river is about two miles and a halt in width b Grand Island, and there the current increases; butit h • comes more contracted on its way to the falls. 1 he pids succeed, which are swift currents, occasioned by gi ea descents of the river, tumbling perpendicularly, m so places six, eight, and ten feet, over ledges ot rock whole descent being about sixty feet. From ?ort on the Canada shore, at the outlet of Lake Erie, to Lh p pewa (eighteen miles), the bank is from four to ten e high. From Chippewa to the Great Fall, two and a halt miles along the Canada shore, there is a descent ot nineij N I A NIC 199 ia a. two feet, and the bank is from ten to one hundred feet in height. The river is here so rapid, that notwithstanding its great depth, it is always covered with a white foam. From the cataract to Lewiston is seven miles; and near this place the bank is 310 feet high, being composed of stra¬ ta of soft mud and sand, clay, gypsum, slate, limestone, and a superstratum of earth. From Lewiston to Lake Ontario is seven miles, and in this distance the northern terrace or mountain ridge crosses the course of the river. The height of the bank then diminishes to twenty-five or thirty feet. The difference of level between Lakes Erie and Ontario, forming the whole descent of the river, is 334 feet. The Niagara affords a great variety of fish, such as sturgeon, bass, muscanunge or muscalunga; and salmon- trout are numerous below the falls. The white fish, weighing from two to six pounds, are taken in seines, from October to May. The stupendous Falls or Cataracts of Niagara are situ¬ ated about half way between Lakes Erie and Ontario. Al¬ though mere description can convey no adequate idea of the momentum of the Niagara, some notion of it may be form¬ ed when we reflect that the descent above the falls is about sixty feet in half a mile; that the column of water is three quarters of a mile in breadth and twenty-five feet in depth ; and that it is propelled onward, not only by its own gravi¬ ty, but by the weight of the whole surplus waters of the immense inland seas of North America. Two small islands, Bath Island and Goat Island, intervene on the American side, very near the falls, and separate the river into two branches, the great mass of water descending by the more direct and wider channel on the western or Canada side, by what is called the Horse-shoe Fall. A portion of the fall on the American side is cut off by a small island on the pre¬ cipice ; the rest descends in one vast body, almost perpen¬ dicularly, from a height of 164 feet, its breadth being about 220 yards. Both the falls on the American side are crossed by bridges. The Horse-shoe Fall is several feet less in height; but it far surpasses the other in grandeur. Its breadth is estimated at 600 yards, and seven eighths of the waters of the river are supposed to pass over it. This great body of water sweeps over the precipice with such tremendous force that it forms a curved sheet, which strikes the surface of the water beneath fifty feet from the base of the precipice, so that visitors may venture to pass be¬ hind^ this watery wall. The best points of view are from the Table Rock, which projects and looks over the falls; and here the cataracts on both sides may be seen at once. But the rapids are beheld to the greatest advantage from Goat Island, to which a very ingeniously constructed and strong rough bridge has been thrown on the American side, over great blocks of rock and rapids. The river is crossed by a small boat about two hundred or three hun¬ dred yards below the falls, where it is about 1200 yards in breadth. I here is a steep wooden stair from the landing- place to the top of the bank on the American side; and from thence, by the bridge over the rapids, already men¬ tioned, Goat Island may be readily approached. “ On the north side of that island,” says Mr Stuart, “ the rocks, pro¬ jected into the river, two hundred or three hundred feet immediately over the falls, are accessible by a rough wooden bridge, below which the water runs with fearful velocity. From these rocks, the view over the precipice and great fall is terrific, absolutely appalling, although the prodigious magnitude of the tumbling water is not so ap¬ parent at this spot as from the Table Rock and the boat.” A spnal stair-case conducts to the edge of the river be- ow the Table Rock, and from a point a little way nearer ie alls than the foot of the ladder there is an excellent view. •< I he overwhelming sensations,” continues the rave ei above named, “ with which a spectator can hard- y ai to be aftected, are produced by the immense flood, not less than one hundred millions of tons of water per Nicander. hour, the stupendous mass, and overpowering force of the roaring and falling waters. It is, in truth, a great deep ocean thrown over a precipice nearly 160 feet high. Every thing, every surrounding object, is viewed with indiffer¬ ence, whilst the mind is wholly absorbed in the contem¬ plation of a spectacle so sublime, surpassing in majesty, and grandeur, and power, all the works of nature which have ever arrested the attention, or presented themselves to the imagination. No just or adequate description can be conveyed by language. Such words as grandeur, ma¬ jesty, and sublimity, fail altogether to express the feelings which so magnificent a sight, exceeding so immeasurably all of the same kind that we have ever seen or imagined, excites.” Mr Stuart gives just praise to the following de¬ scription of Mr Morris, an American minister, which ap¬ pears to be as simple, plain, and intelligible as a mere ver¬ bal picture of the spectacle can be. “ To form,” says this individual, “ a faint idea of the cataract, imagine to your¬ self the Frith of Forth rush wrathfully down a steep de¬ scent, leap foaming over a perpendicular rock 175 feet high, and then flow away in the semblance of milk from a vast basin of emerald.” The great volume of water, as we have said, inclines very much forward in its descent, and it falls, for the most part, in an unbroken sheet of a dark-green colour, until it meets a cloud of spray ascending from the rocks below, in which it is lost to the eye. This cloud of vapours, the “ everlasting incense of the waters,” as it has been finely designated, rises a hundred feet above the pre¬ cipice, and can be seen at the distance of seventy miles. Prismatic colours are always present, and complete rain¬ bows, sometimes three at a time, of the most brilliant hues, are not unfrequently “ set in the cloud.” The thunder of the cataract can be distinctly heard at ten miles from the falls, and in favourable states of the wind and atmosphere at even tw ice that distance. With regard to the height of the fall, there is a discrepancy amongst authorities, some call¬ ing it 150, others 160, and a third class of writers carrying it up as far as 176 feet. It appears to us that some cal¬ culate from the surface of the column of water, some from its medium depth, and some from its base, just as it bends over the incurvated precipice. This view of the matter re¬ conciles them all, the largest number answering to the top of the column of water, and the lesser numbers to its ave¬ rage depth and the height of the precipice. The Niagara is usually frozen over during a part of the winter, except at the falls, and where the rapids are most violent. At this season of the year, myriads of wild ducks alight on the foaming stream above the falls, and, sailing on the bo¬ som of the cataract until it reaches its extreme circular verge, at about half its descent, rise aloft into the air amidst the spray of the “ phlegethon” below, wheel round to the place on the rapids whence they began their descent, and again perform with ease and for pastime what bids defiance to the utmost power and ingenuity of man. (r. r. r.) NIAGUR, a town of Hindustan, belonging to the Nag- poor Mahrattas, and situated in the province of Gundwana, twenty-eight miles north-north-west from Ruttunpoor. Long. 82. 11. E. Lat. 22. 22. N. NIAS ISLE. See Neas Isle. NICANDER, a Greek physician of the empirical sect, and also a poet and grammarian, was a native of Colophon, and, according to some authors, had been a priest of Apollo at Claros in Ionia. The date of his birth is uncertain ; but it is probable that he died about a century before the com¬ mencement of our era. His father’s name was Damnseus, and he was sometimes called an ^Etolian, because he ap¬ pears to have lived during many years in iEtolia, and to have written a history of that country. This physician oc¬ cupied himself much with materia medica and pharmacy, and composed his works in verse. The greater part of his 200 N I C N I C Nicander. writings, however, which are said to have been numerous, v is no longer extant. One of his poems, entitled Georgica, which he dedicated to Attains III. the last king of Perga- mus, is cited with commendation by Cicero in his treatise De Oratore (lib. i. c. 16). In some others of his lost works, which were also in verse, he appears to have described the various poisons and their antidotes; at least such is the statement of Eustathius and Athenaeus. Of his various poems two only remain ; the Therioca and Alexipharmaca. The Theriaca, though composed without critical discern¬ ment, contains, nevertheless, some remarkable facts in na¬ tural history. In it may be found an exact but somewhat prolix description of the combats of the rat of Pharaoh, or mangouste (viverra ichneumon), with the serpents, the flesh of which is eaten by that quadruped with impunity. The au¬ thor also treats of scorpions, which he divides into nine spe¬ cies ; a division adopted by some modern naturalists. His de¬ scription of the amphisbeena accords with that which has been given by Linnaeus in his Amcenitates Academicce (tom. i.). Then follow some very curious observations on the effects of the poison of different kinds of serpents, each of which produces different phenomena. Nicander thought he had ascertained that the poison of serpents is concealed in a membrane surrounding the teeth ; an opinion which is not very far from the truth. He describes a species of serpent which always takes the colour of the soil on which it crawls, and which he denominates He was the first who dis¬ tinguished night-butterflies from those which are seen only during the day; and to the former he gave the name of phalcence, which they still bear. This poem contains a great number of popular fables, which, however, were all firmly believed at a period when the science of natural history was in its infancy. Thus we find it gravely stated that wasps are produced by the putrefied flesh of horses. As to the poem entitled Alexipharmaca, it may be considered as a continuation of the preceding. The effects of poisons are there explained with tolerable accuracy. They are di¬ vided into animal, vegetable, and mineral; but under the last head Nicander only mentions white lead, and litharge, which is also an oxide of lead. Of these two works there have been numerous editions. The first, which is in folio, was published at Venice in 1499; and the next, in quarto, appeared at Cologne in 1530, with an interpretation of the Theriaca, and various commentaries on the Alexipharmaca, by an anonymous an¬ notator. Of both there have been various Latin transla¬ tions, some into prose and others into verse; but the prin¬ cipal are those of Lonicer, Cologne, 1531, in 4to ; Erycius Cordus, Francfort, 1572, in 4to; Jean de Gorris, Pari3, 1549, in 8vo; and Pierre-Jacques Steve, \alence, 1552, in 8vo. Lastly, the works of Nicander were translated into French by Jacques Grevin, Antwerp, lo67, 1568, in 4to. In the Imperial Library at Vienna there is a beautiful manuscript copy of both poems, ornamented with figures of venomous animals, and accompanied by a commentary from the pen of the sophist Euteichnius, which has been printed in the Greek edition of Nicander published by J. G. Schneider, Halle, 1792, in 8vo. Demetrius Phalereus, Theon, Plutarch, and Diphilus of Laodicea, all wrote com¬ mentaries upon the Theriaca; and there are still extant learned Greek scholia on both poems, which Vossius has ascribed to Diphilus, though upon what authority we know not. Besides the poems above mentioned, Nicander also wrote in verse Ophiaca, or a treatise on serpents ; Hya- cinthia, or a collection of remedies; and a commentary on the Prognostics of Hippocrates. He was likewise the au¬ thor of five books of Metamorphoses, some verses of which have been preserved by Tzetzes; and he wrote in prose several historical works, one of which, being the history of Colophon, is cited by Athenaeus, whilst the others men- Nicand Ji tioned are accounts of iEtolia, Bceotia, Thebes, and a gene- St v. ral description of Europe. This Nicander has sometimes^. ! been confounded with a grammarian of the same name, a ^ ^ ^ .. T 17- ; • 4-1-* /-» 4-1 f 1 oo r\£ f-Vi r\ ~ V7 native of Thyatira ; and Vossius, in giving the titles of the works written by both, has not been careful to distinguish clearly their respective productions. Merian, in his essay on the Influence of the Sciences on Poetry (see Memoirs of the Royal Academy of Berlin for 11 <6), cites the works of Nicander, as affording evidence of the incongruity which exists between the language of poetry and the nomencla¬ ture of science ; and stigmatizes the author of the Theriaca as a therapeutic versifier, who wrote lines for the apothe¬ caries, and a mere grinder of anecdotes, who sung of toads, scorpions, and spiders. In the Bulletin de Pharmacie for 1810, however, M. Cadet de Gassicour has given an analy¬ sis of the works of Nicander, affording materials for a more accurate judgment than the exaggerated and burlesque representations of Merian. (A0 NICANDRO, St, a city of the kingdom of Naples, in the province of Capitanata. It stands on the river Gar- gano, and contains 7090 inhabitants. NICARAGUA, one of the five states which compose the republican confederation of Central America. It. is bounded on the south by Costa Rica and by the Pacific Ocean ; on the north by Honduras ; on the west by the Pa¬ cific Ocean ; and on the east by the Mosquito shore, which is washed by the Carribbean Sea. From north to south it extends about seventy-five leagues, and from wrest to east about eighty-five. That elevated mountain range which forms the spine of the whole continent, called in South America the Andes, and in the United States the Stony Mountains, may be traced throughout Central America, although at a smaller elevation than in the two adjoining continents, dividing this country into two grand portions; the waters on the north of the ridge falling into those of the Atlantic, and those on the south running into the Pacific. This range has in Central America no deter¬ mined name, and in many parts is even without a visible existence. It may almost be said to be interrupted in its course by two transverse valleys, in one of which is con¬ tained the Lake of Nicaragua, and in the other the plain of Comayagua. “ But this interruption,” says Colonel Galin¬ do,1 “ is more apparent than real; for to the southward of the lake there certainly exists an elevation, which separates its waters from the Pacific ; and in the extensive valley of Comayagua, the only one of the union which runs north and south, there is decidedly a central eminence, on each side of which the waters drain off to the respective oceans.” In the state of Nicaragua, the mountain chain inclines close to the borders of the Pacific, leaving the lakes on the east. The climate of this state is hot, and it yields excellent grapes and other fruits, cocoa, indigo, cotton, the gum called cavana, and various medicinal drugs. But the pro¬ ductions of the cold or temperate zones, such as wheat, do not thrive, and the soil is not favourable for breeding sheep. Immense herds of cattle, however, are pastured in the large grazing farms, for the consumption not merely of the province, but also of the city of Guatemala. The most remarkable feature of this province consists in its numerous rivers and immense lakes. The Lake of ho* caragua, the largest sheet of water in Central America, is about 150 English miles in length, and about sixty in breadth. It has almost everywhere a depth of ten, and sometimes of fifteen fathoms, with a muddy bottom, ex¬ cept along the shore, where there is clear sand. This vast basin receives a number of rivers ; but the only visible out¬ let to its waters is the river St John, which flows into the Atlantic, and forms about thirty considerable falls before 1 Journal of the Geographical Society of London, vol. vi. part in 1836. N I C ragua. it reaches the marshy shores of the ocean. On the north- v~-"' west it communicates witli the Lake of Leon or Managua (upwards of fifty miles in length and nearly thirty in breadth) by means of a navigable channel called the Rio Tapitapa, about twenty miles in length. With regard to the grand canal by which it is proposed to connect the Atlantic with the Pacific through the Lake of Nicaragua, the follow¬ ing is the most recent information on this very interesting and most important subject.1 “ It would be an important service rendered to geography, would any person endeavour to ascertain the levels on this line of road, and the physical obstacles it would be necessary to overcome to form a water communication. It is believed that some such survey has been set on foot by the government, or by a company of the United States. In the mean time, the only observa¬ tions we have are from a Spanish manuscript existing in the archives at Guatemala, and copied by Mr Thomson,2 which states that the engineer Don Manuel Galisteo exe¬ cuted a survey in the year 1781, by means of a water-level, from the Gulf of Pagagayo, in the Pacific, as far as the Lake of Nicaragua ; and that, by 347 levels, at about 100 yards apart, the surface of the lake was found to be elevated 133-1feet above the sea. But the lake is said to be fifteen fathoms deep, so that its bottom is still forty-six Spanish feet (one Castille foot is 0-9267 of an English foot) above the level of the South Sea. The distance be¬ tween the lake and the sea, at the proposed communica¬ tion, is, by this measurement, only 29,880 English yards, or fifteen geographical miles nearly, and the greatest ac¬ tual height of any part of the land is nineteen feet above the level of the lake. Thus we are assured of a grand natural reservoir of water at a sufficient elevation. But the practicability of communication with the Pacific, either by this line or through the Lake of Leon, or with the At¬ lantic by the Rio San Juan, or some great transverse valley, is not yet ascertained with any certainty. The coast-line has hitherto been very imperfectly laid down on our maps; but the recent survey of Captain Owen, R. N. now in progress, will doubtless remedy this for the north¬ ern coast. It is also expected that the survey of Captain Beechey, R. N. on the coast ot Peru, will reach this coast, and correct the errors which exist in all the maps of it that are to be met with. With regard to the undertaking itself, it appears to us insignificant, when compared with some of those which are frequently engaged in and successfully accomplished by the Americans of the United States, where canals sometimes five hundred miles in length are cut, and not unfrequently to a considerable extent through the solid mountain rock. We have no doubt that ere long this speculative and enterprising people will set this great work on foot, which will doubtless cause a revolution in the commercial world, and prove of incalculable utility to it. Ihere are a number of islands on the Lake of Nicaragua ; but the only one inhabited is Ometepe, and it is also the only one on which a volcano is found. This lake is subject to violent agitations from tempestuous gales of wind. The lakes, rivers, and coasts, both on the Atlantic and Pacific Uceans, furnish an inexhaustible supply of various kinds of tish. 1 he surrounding country is well wooded, and much valuable timber, affording dye-woods and gums, is found in t e forests; amongst these may be mentioned the dye- wood which is knowm by the name of the state. Some of t e most populous villages of Nicaragua are likewise found in its vicinity. Of the numerous volcanic eruptions which have taken p ace in Central America, one of the most appalling on re¬ cord is that of the volcano of Cosiguina, situated in Nica- N I C 201 ragua, near the eastern promontory of the Bay of Concha-Nicaragua, gua, which separates the waters of the gulf from the Paci- 's— fic. This took place in January 1835 ; and as no convul¬ sion of the kind ever occurred before on the same spot, it was quite unexpected. On the 16th and 17th of that month, continued noises were heard at a great distance all round, and were supposed at first to be caused by artillery ; but during the following ten days, the violent earthquakes, the fall of showers of pumice-stone and ashes, and the deep darkness which overspread the country and the con¬ tiguous sea for many leagues, pointed out the true cause. The official report from the city of Leon states, that there, and in the department of Granada, “ the catastrophe was not perceptibly felt until the dawn of the 25th, when the eruption developed itself to such a degree that the sky was darkened, and continued to deepen till eleven in the morning, when the district was enveloped in the most fearful darkness, terrific reports being at the same time heard, and showers of calcined lava being precipitated over the whole face of the country.” In other parts of the state, the same train of phenomena occurred, accompanied with the loudest thunder and the most vivid lightnings, together with violent convulsions of the earth. Two islands and a number of shoals were formed in the sea ; the river Chiquito, which flowed towards the north-west, was com¬ pletely choked up, and another river made its appearance flowing in an opposite direction. Two farms, along with a great quantity of live stock, were destroyed; and within the limits of the eruption there were afterwards found the remains of all kinds of quadrupeds and birds. Few of the human species, however, perished ; and the damage done was inconsiderable, considering the tremendous na¬ ture of the eruption, an idea of which may be formed from the fact, that the sound was heard and ashes fell at Jamaica, more than 800 miles from Cosiguina. At sea, clouds of dust were discovered floating at a far greater dis¬ tance from the scene of the catastrophe. The city of Leon, the capital of the state, is situated in a savannah, about eight leagues from the western shore of the Lake Leon, and four leagues from the shores of the Pacific, in latitude 12. 20. north, and longitude 86.16. west. It was originally founded in 1523, on the spot now called Old Leon, but was rebuilt on its present site a few years aftei waids. Previously to the revolution it was populous, and rapidly increasing in prosperity; but, along with the whole of the state, it suffered severely in that struggle, and has not yet recovered from its effects. Four leagues to the north-west of Leon, on the shores of the Pacific, is the town of Realejo, inhabited entirely by Ladinos, who are chiefly employed in ship-building. The harbour, form¬ ed by a laige and beautiful river, is excellent, and capable of containing 1000 vessels commodiously. The conveni¬ ences for ship-building are great, as timber, cordage, sail¬ cloth, pitch, and tar may be procured to an almost unli¬ mited extent. The supply of masts is also inexhaustible. The town was built in 1534, by the companions of Alva- lado, in his expedition to Peru, who, observing the advan¬ tageous situation of the harbour, determined to establish themselves on a spot so convenient and promising. At a short distance is the village of the Viejo, where the corre- gidors formerly resided, on account of the salubrity of its situation. The principal place in the vicinity of the Lake of N icaragua is the town of Granada. This city was founded in the year 1523. It stands on the north-western shore, in an advantageous position for commerce (latitude 11. 30. north, and longitude 86. 21. west), being distant from Leon about thirty leagues. This place contains about 6000 inha- VOL. XVI. Journal of the Geographical Society of London, vol. vi. part ii. 1836. ? Ikomson’s Visit to Guatemala in 1825, London, 1829. 2 c J 202 Nicaria N I C NIC bitanu. The town of Nicaragua situated twelve leagues habitants. ‘ h "e'd “2* south-east of Granada, is inhabited by the the ghore of ^ Mediterranean, in the Gulf of Genoa, Nice- Spaniards, who carry on a traffic in cocoa. ' which is said to carry on the largest trade is Masaya, situ¬ ated at the bottom of a deep rocky dell. Ihe situation ot this village was certainly ill chosen ; water is very scarce, and the inhabitants are compelled to bring it up in pitchers from a well of extraordinary depth. Besides, at a short dis¬ tance from Masaya is the volcano of the same name, now indeed extinct, but at the time of the conquest known by the nameof the Infiernode Masaya; and the light of the la\a constantly boiling up in the crater might be P^ved at sea twenty-five leagues. Not far from this there is ano hei volcano, called Nindiri, from which an eruption took p a in 1775, when “ the torrent of lava that rolled into the La e where the Paglion falls into the sea. It has an artificial, haven, capable of containing 200 vessels, and is protected from the waves by a long mole. It is fortified both towards the land and towards the sea. It contains narrow, gloomy, and filthy streets, but, from some of the terraces on the shore, it has fine prospects towards the sea, including the hills near Genoa, and the distant mountains of Corsica, it contains a cathedral, two parish churches, fifteen monas¬ teries, four nunneries, several oratories, and two hospitals, with 2000 houses, a few of them very magnificent, with 19,645 inhabitants. There is an extensive trade in silk, and in liqueurs, essences,perfumes,and soaps; andthehsli- I . 1 _/* If 1X7 Q C flip Niceron. in 1775, when the torrent of lava that rolled into tne1^ ig a4considerable source of employment. It was the of Masaya destroyed the fish, and heated the lands wnc > of the painter Vanloo, and of the celebrated ma- it traversed to so great a degree that al the cattle feeding L Long. 7. i0. E. Lat. 43. 41. N. on them perished.” The only other Places ° NICEPHORUS, Gregouas, a Greek historian, was deration in the state are Segovia ^ born about the close of the thirteenth century, and flou- river Yare, near the confines of Tegucigalpa, thirty leag ^ ^ fourteenth> under the Emperors Andromcus, north of Granada ; Esteh, Acoyapa, \ dla N«eva> John palaeoiogus, and John Cantacuzenus. He was a great a very populous Indian village contiguous to the city f J » d Andronicus, who made him librarian Leon; Li Nicoya The dues towns and -Hage^ m of Consta„tinople, and sent him as ambassador caragua, and the other states of Central America, na Prince of Servia. He accompanied this emperor in nicipalities, the members of which are annually elected,^ and ^^^ne^nd assisted at hisdeath, after which he the alcaldes or chief justices preside. Each ot ^ states is governed by a chief. The inhabitants are chiefly Ro¬ man Catholics, but the monkish orders have been wholly extinguished, and the few nunneries which remain cannot compel their members to stay in them against the*!- will. In 1836 Colonel Galindo estimated the number of ^ha - tants at 120,000 Indians, 110,000 whites, and 120,000 Ladinos; the total being 350,000 souls. ~ Nicaragua was the first province subdued by the bpa- his misfortunes, and assisted at his death, after which he repaired to the court of the younger Andronicus, where he seems to have been well received; and it is certain that, by his influence over the Greeks, that church was prevail¬ ed on to refuse entering into any conference with the le¬ gates of Pope John XXII. But in the dispute which arose between Barlaam and Palamos, he took part with the for¬ mer, and maintained his cause zealously in the council held at Constantinople in 1351. For this he was cast mto pri- Nicaragua was the first province subdue y 1(? P * d continued there till the return of John Palaeolo- niards, having been discovered and P^nai|2S6 Tt takJs its gUs, who released him ; after which he held a disputation Gonzales Davila and his companions m lo22. It take g palamogj in the presence of that emperor. He corn- name from a powerful cacique, who was one of the ffi Byzantine history from 1204, when Constanti- enter into amicable relations with the Spaniards, and sub- piled tne py^ ^ ^ ^ ^ ^ Andronicus mit to baptism. The indigenous natives of i icara| P f th younger, in 1341; a work which is not only barbarous five different languages. The Chorotec seems to be that of ^e youngei ’ ^ ^ ^ ^ & the principal indigenous tribe. It bears no kind of affinity in styie, uui ^ " •* with the Aztec or Mexican, which had been rendered com¬ mon, previously to the arrival of the Spaniards, by the in¬ vasion of an Aztec colony. These new comers used a species of hieroglyphical figures for the communication o ideas, but the Chorotecs would seem to have been ignorant of writing. They reckoned eighteen months in the year, and had an equal number of great festivals. Their ido s were honoured with a sanguinary worship like those or Mexico, and their women were liable to be offered in sacri¬ fice, although otherwise they exercised considerable power. The Spaniards, on their arrival, discovered palaces and spacious temples, and found some expert workers in paint¬ er’s gold. The bulk of the people, however, were in a state of barbarism and abject misery. O R- «•) tin translation by Jerome Wolf, was printed at Basil in 1562, and again at Geneva in 1615; but a more correct edition than either of the preceding is that which was printed at the Louvre in 1702, by Boivin, in two vols. folio. Nicephorus was the author of several other works, all of which remain inedited, excepting his Scholia upon the treatise of Synesius de Insomniis, which were published by Turnebus in 1553. Nicephorus, Calistus, a learned monk of Constanti¬ nople, who flourished in the fourteenth century, under the Emperor Andronicus Palaeologus the elder. He wrote in Greek an ecclesiastical history in twenty-three books, eighteen of which are still extant, and contain the transac¬ tions of the church from the birth of Christ till the death barbarism and abject misery. vR* R’ R'C nf the Emneror Phocas in the year 610. Of the other five NICARIA, an island of the archipelago, between Sa- of t e E p nothing but the arguments, which show that mos and Tine, about fifty miles in circumference. A chain books w e have nothing pui me ar^u ^ IllUa auu j. - . i . of high mountains, covered with wood, runs through tne middle, and supplies the country with springs. It pro¬ duces wheat, barley, figs, honey, and wax. . NIC ASTRO, a city of the province of Calabria Ulteri- ore, in the kingdom of Naples, being situated on the river Polito, in a district abounding in'olives, and yielding rice, wheat, and other corn, with excellent wine. It is surrounded with walls, and contains 6100 inhabitants.^ _ NICE, a part of the continental dominions of the king of Sardinia, and usually distinguished as a countship. It ex¬ tends in east longitude from 6. 27. to 7. 51. and in north latitude from 43. 45. to 44. 28., and contains 1430 square miles. It is divided into four provinces, viz. Nice, Sospello, Oneglia, and Monaco ; and it is said to contain 200,000 m- they embraced the portion extending from the commence¬ ment of the reign of the Emperor Heraclius to the end of that of Leo the Philosopher, who died in the year 911. This history was dedicated to Andronicus Pakeologus the elder; it was translated into Latin by John Langius, and has gone through several editions, the best of which is that of Paris, published in 1630. . . NICERON, John Francis, a French mathematician, was born at Paris in the year 1613. Having finished Ins academical studies, he entered into the order of the Minims, and took the habit in 1632; and, as is usual, he changed the name given him at his baptism for that of Francis, tn^ name of his paternal uncle, who was also a Minim, or Iran ciscan. His inclination and taste for the mathematics ap- N I C ron. peared early during the course of his philosophical studies ; and to that science he devoted what time he could spare from his other employments, after he had completed his studies in theology. All the branches of the mathematics, however, did not equally engage his attention ; he confined himself particularly to optics, and only learned as much of the rest as was necessary for rendering him perfect in this branch. He has himselt informed us, in the preface to his Thaumaturgus Opticus, that he travelled twice to Rome, and that, on his return home, he was appointed teacher of theology. He was afterwards chosen to accompany Fa¬ ther Francis de la Noue, vicar-general of the order, in his visitation of the convents throughout France. The eager¬ ness of his passion for study, however, induced him to make the best use of all the moments he had to spare, and that wise economy of time furnished him with as much leisure as satisfied his love of knowledge. Reing taken sick at Aix, in Provence, he died there on the 22d of Septem¬ ber 1646, at the early age of thirty-three. He was an in¬ timate acquaintance of Descartes, who had a high esteem for him. Ihe principal works of Niceron are, 1. LTnter- pretatioh des Chiffres, ou Regies pour bien entendre et ex- pliquer facilement toutes sortes des ChifFres simples, Paris, 1641, in 8vo; 2. La Perspective Curieuse, ou Magie Ar- tificielle des effets merveilleux de 1’Optique, Catoptrique, et Dioptrique; 3. Thaumaturgus Opticus, sive admiranda Optices, Catoptrices, et Dioptrices, pars prima, 1646, in folio, a work to which the preceding essay was intended to serve as an introduction. Niceron, John Peter, celebrated on account of his Biographical Memoirs, was born at Paris on the 11th of March 1685. He was descended of an ancient and noble family, which was in very high repute about 1540. He studied with success in the Mazarin College at Paris, and afterwards at the college of Duplessis. Having resolved to forsake the world, he consulted one of his uncles, who be¬ longed to the order of Barnabite Jesuits. This uncle ex¬ amined him, and not doubting his election, introduced him as a probationer to that society at Paris. lie was received in 1702, took the habit in 1703, and made his vows in 1704, at the age of nineteen. After he had professed himself, he was sent to Montargis, in order to study philosophy and theo¬ logy ; and his superiors, being satisfied with his proficiency, sent him to Loches, in Touraine, to teach the classics and rhetoric. Here his devout behaviour and excellent con¬ duct as a teacher made him be thought worthy of the priesthood, which he received at Poitiers in 1708 ; and as ie had not arrived at the age to assume this order, a dis¬ pensation was obtained in his favour. The college of Montargis having recalled him, he there professed rhetoric or two years, and philosophy during four. Notwithstand¬ ing a these avocations, he wras humanely attentive to every call of charity, and to the instruction of his fellow- cieatures, many of whom heard his excellent discourses, not only in the pulpits of the churches within the province, u even in those of Paris. In 1716, his superiors invited mi to the city, that he might have an opportunity of pro- secuting with more convenience those studies for which e Had always expressed the greatest inclination. He un- eistood not only the ancient, but also the modern lan- „ ’ ^Clrcuinstance of infinite advantage in the com- and wl?- ^ |th°Se wor,ks wlljch he has given to the public, of iiie |1C lihe c;a.rr1ied 011 with great assiduity till the time the fiVtWh uh haPPened on the 8th of July 1738, at fmrp ^ 0t hfty'three. His works are, 1. Le Grand Febri- ’ a, Reflation to prove that common water is the from fh/'i/ ‘"fevers, and even in the plague (translated caret’ T °f Hancock’ <>V St Mar- aDnearanp00 0n ’ m f~.mo' Phis little treatise made its inP1770 an’iam0ngSt pieces relating to this subject, m 1770, and was attended with such success that it pass- N I C ed through three editions, the last of which appeared in 1/30, in two vols. 12mo. 2. The Voyages of John Ouv- ington to Surat, and divers parts of Asia and Africa, con¬ taining the history of the revolution in the kingdom of Golconda, and some observations upon silk worms, Paris, 1/25, in two vols. 12mo. 3. The Conversion of England to Christianity, compared with its pretended Reformation, a work translated from the English, Paris, 1729, in 8vo. 4. The Natural History of the Earth, translated from the English of Mr Woodward, by M. Nogues, doctor in physic, with an answer to the objections of Dr Camerarius, and containing also several letters written on the same subject, with a methodical distribution of fossils, translat¬ ed from the English by Niceron, Paris, 1735, in 4to. 5. Memoirs of Men illustrious in the Republic of Letters,' with a critical account of their works, Paris, in 12mo. The first volume of this great work appeared in 1727; and the others were given to the public in succession, as far as the thirty-ninth, which appeared in 1738. The fortieth volume was published after the death of the author, in 1739. Since that period three others have been added; but in these there are many articles of which Niceron was not the author. To a work of this kind many objections may be made, according to the particular taste or views of each individual objector; and, in fact, the French critics have expatiated with much severity upon the mistakes unavoid¬ able in an undertaking of such magnitude and difficulty. But it is much more easy to censure than to execute. Since the time of Niceron the French have produced no such collection as his, which, with all its faults, has been tne foundation, as far as it goes, of all the subsequent ac¬ counts given of the same authors. (A.) NICE TAS, David, a Greek historian, a native, as some relate, of Paphlagonia, who lived about the end of the ninth century. He wrote the Life of St Ignatius, patriarch of Constantinople, which was translated into Latin by Fredeiic Mutius, bishop of Termoli; and he also compos- ed several panegyrics in honour of the apostles and other saints, which are inserted in the last continuation of the Bibliotheca Patrum by Combesis. Nicetas, Achominates, a Greek historian of the thir¬ teenth century, called also Choniates, from having been born at Chone, or Colossus, in Phrygia. He was employed in several considerable affairs at the court of Constantinople ; and when that city was taken by the French in 1204, he withdrew, with a young French captive, whom he after¬ wards married at Nice, in Bithynia, where he ended his days in 1206. He wrote a History, or Annals, from the death of Alexius Comnenus in the year 1118, to that of Badouin in 1205 ; a work of which we have a Latin trans¬ lation by Jerome Wolf, printed at Basil in 1557, and in¬ serted in the body of the Byzantine Historians, printed at the Louvre. 1 NICHOLS, Frank, doctor of physic, was born in Lon- uon in the year 1699. His father was a barrister at law, and both his parents were of good families in Cornwall. After receding the first rudiments of his education at a private school in the country, where his docility and sweetness of temper endeared him equally to his master and his school¬ fellows, Frank was in a few years removed to Westmin¬ ster, and from thence to Oxford, where he was admitted a commoner of Exeter College, under the tuition of Mr John Haviland, on the 4th of March 1714. There he ap¬ plied himself diligently to all the usual academical studies, but particularly to natural philosophy and polite literature, of which the fruits were most conspicuous in his subse¬ quent lectures on physiology. After reading a few books on anatomy, in order to perfect himself in the nomencla¬ ture of the animal parts then adopted, he engaged in dis¬ sections, and then devoted himself to the study of nature, perfectly free and unbiassed by the opinions of others. 204 Nichols. NIC NIC When he was chosen reader of anatomy in that univer- 'sitv he employed his utmost attention to elevate and il- lustrate a science winch had there been long depressed and neglected; and by quitting the beaten track of for¬ mer lecturers, and minutely investigating the texture ot every viscus, as well as the nature and order of every ves¬ sel, he gained a high and just reputation. He did not then reside at Oxford ; but when he had finished his lectures, he used to repair to London, the place of his abode, where he had determined to settle. He had once an intention ot establishing himself in Cornwall, and for a short time prac* tised there with great reputation; but being soon tired ot the fatigues attendant on that profession in the country, he returned to London, bringing back with him a great insight, acquired by diligent observation, into the nature of the miliary fever, and which was attended with the most salutary effects in his subsequent practice in the me- About this time he resolved to visit the Continent, part¬ ly with the view of acquiring a knowledge of men, man¬ ners, and languages, but chiefly to make himself acquaint¬ ed with the opinions of foreign naturalists on his favourite study. At Paris, by conversing freely with the learned, he soon recommended himself to their notice and esteem. Winslow’s was the only good system of physiology at that time known in France, and Morgagni’s and Santorini s in Italy. On his return to England, he repeated his physio¬ logical lectures in London, which were much frequented, not only by students from both the universities, but also by many surgeons, apothecaries, and others. Soon after¬ wards, his new and successful treatment of the nnliary fe¬ ver, then very prevalent in the southern parts of Lnglan , added much to his reputation. In 1725, at a meeting of the Royal Society, he gave his opinion on the nature of aneurisms, in which he dissented from that expressed by Ur Freind in his History of Physic. In the beginning of the year 1728, he was chosen a fel¬ low of the Royal Society, to which he afterwards commu¬ nicated the description of an uncommon disorder, namely, a polypus, resembling a branch of the pulmonary vein, for which Tulpius has strangely mistaken it, coughed up by an asthmatic person. He also made observations on a treatise, by M. Helvetius of Paris, concerning the lungs. Towards the end of the year 1729, he took the degree of doctor of physic at Oxford. On his return to London, he underwent an examination by the president and censors of the College of Physicians, previously to his being ad¬ mitted a candidate, which every practitioner must be a year before he can apply to be chosen a fellow. Ur -N1* chols was admitted into the college on the ~bth of June 1732 ; and two years afterwards, being chosen Gulstoman reader of Pathology, he made the structure of the heart and the circulation of the blood the subject of his lec¬ tures. In 1736, at the request of the president, he again read the Gulstonian lecture, taking for his subject those parts of the human body which serve for the secretion and discharge of the urine,* with the causes, symptoms, and cure of the diseases occasioned by the stone. In 1739, he delivered the anniversary Harveian oration. In 1743, he married Elizabeth, youngest daughter of the celebrated Dr Mead, by whom he had five children, two of whom died young. In 1748, Dr Nichols undertook the office of surgical lecturer, beginning with a learned and elegant dissertation on the Anima Medica. About this time, on the death of Dr John Cuningham, one of the elects of the col¬ lege, Dr Abraham Hall was, without any apparent reason, chosen to succeed him in preference to Dr Nichols, who was his senior. With a just resentment, he immediately resigned the office of surgical lecturer, and never after at¬ tended the meetings of the fellows, excepting when busi¬ ness of the utmost importance was in agitation. In 1751, Nicholf buir he took some revenge in an anonymous pamphlet, entitled The Petition of the Unborn Babes to the tj‘.e r Royal College of Physicians of London in which Dr Nesbit ^ (Focus), Dr Maule (Maulus), Dr Barrowby {Barebone) ^^ principally, and Sir William Browne, Sir Edward Hulse, and the Scotch incidentally, are the objects of his satire. In 1753, on the death of Sir Hans Sloane in his ninety- fourth year, Dr Nichols was appointed to succeed mm as one of the king’s physicians, and held that office till the death of his royal master in 1760, when this skilful phy¬ sician was superseded with something like the oiler ol a pension, which he rejected with disdain. The causes ot the uncommon disorder of which George II. died, viz a rupture of the right ventricle of the heart, he explained in a letter to the Earl of Macclesfield, president of the Royal Society, which was published in the Philosophical Irans- In 1772, Dr Nichols published a second edition of his treatise De Anima Medica, to which he added a disserta¬ tion De motu Cordis et Sanguinis in homme nato et non nato, inscribed to his learned friend and coadjutor Dr Being at length tired of London, and also desirous of superintending the education of his son, he removed to Ox¬ ford, where he had most agreeably spent some ye,ar® in il!8 youth. But when the study of the law recalled Mr Ni¬ chols to London, he took a house at Epsom, where he passed the remainder of his life in literary retirement, not inattentive to natural philosophy, especially the cultivation of grain and the improvement of barren soils, and contem¬ plating also with admiration the internal nature of plants, as taught by Linnaeus. T . . . His constitution never was robust. In his youth, at Oxford, he was with difficulty recovered from a danger¬ ous fever by the skill of Drs Frampton and krewen ; and afterwards at London he had frequently been afflicted with a catarrh, and an inveterate asthmatic cough, which, re¬ turning with great violence at the beginning of the year 1778, deprived the world of this valuable man, on the 7th of January, in the eightieth year of his age. NICHOLSBURG, a city in the circle ot Brunn, intne Austrian province of Moravia. It is the municipal city ot a majorat belonging to Prince Dietrichstein, which com- prebends four market-towns and eight villages. Iheie is a most magnificent palace, in a most picturesque situation, belonging to the noble proprietor, in which is a library con- tainintr 20,000 volumes. There are a minster and several other churches, with 760 houses and 7420 inhabitants, who carry on some extensive woollen and cotton manutactures, and much internal trade towards Vienna. Near to h are vineyards, yielding good wine. Long. 16. 31. 25. E. Eat. 48'nICIAS, an Athenian statesman, was son of Niceratus, a person of great wealth, but who seems to have taken no part in the political transactions of his country Nicia was possessed of considerable abilities, both political and military ; but he was by no means fitted to occupy th^°ra- manding position which Pericles had long *et 0 the death of that great man, 428 b. c., m the thir of the Peloponnesian war, Nicias was put forward by tn aristocracy and the more moderate of Ae democrahcal party, as the fittest person to lead the councils of the com monwealth. He was also rather a favourite w.th theje»- pie, as he was liberal of his wealth tor their gratification, and ever ready to assist the distressed. He ^ cau¬ tious, too, in all his proceedings, and avoided any thing which might excite the envy of the Athenians, taken noprominent part in public affairs till the death of Pericles, when the necessity of some counterpoise to mad projects of the demagogue Cleon Placed. htin\ pnce head of a strong party. It shows the complete absen 5 WW N I C of any commanding genius, that Nicias should have been thought of, as his diffidence in a public assembly, and his want of firmness, stood much in the way of his usefulness. ^ The first matter in which the two parties took opposite views was the punishment that ought to be inflicted on the inhabitants of Mitylene for their rebellion. Cleon pro¬ posed and carried a decree for putting every man to death, and for reducing the women and children to slavery. This monstrous proposition was opposed by all the influence of Nicias, but passed in spite of its evident injustice. Nicias led several expeditions, and was always successful, because, as Plutarch states, he selected those commands where suc¬ cess was nearly certain, although the glory might indeed be small. He took the islet called Minoa, at the mouth of the harbour of Nisaea, the seaport of Megara; and he plundered the coast of Boeotia. He commanded the fleet, 425 b. c., at the time that the island Sphacteria was blockaded by the Athenians, and willingly gave up the command to Cleon, who exclaimed that if he were in that station he would en¬ gage to subdue the island within twenty days, and bring the garrison prisoners to Athens. To the great surprise of all parties, Cleon succeeded in the enterprise (Thucydides, iv. 28). The following year we find Nicias commanding an expedition which was directed against the island of Cythera, an important appendage of the Lacedaemonian territory, and which Nicias took without much difficulty. After the death of Cleon at Amphipolis, 422 b. c., there was a strong inclination on both sides to bring the war to a close; and as Nicias was the most active in promoting the measure, it was usually called the Niceian peace. The fun¬ damental principle of the treaty was, that each party should restore what had been taken in war, except that Nisaea was reserved to Athens, in consideration of the refusal of the Thebans to surrender Plateea. It was concluded for fifty years, 421 b. c. (Thucydides, v. 18). At this time Alci- biades began to occupy himself with public affairs, and wishing to ingratiate himself with the popular party, he took the opposite side to Nicias in almost every question. It was so in respect to the peace ; and as there were some articles liable to be disputed, Alcibiades soon managed to embroil matters, and war again broke forth in all its ori¬ ginal fury, 418 b. c. An expedition to Sicily was next proposed by Alcibiades, and although it was strongly op¬ posed by Nicias, the decree was passed, and Nicias was appointed, along with Lamachus and Alcibiades, 415 b. c., to command the troops. Matters were conducted with va¬ rious success ; but the Athenians were at length complete¬ ly defeated, and Nicias fell into the hands of the Syra¬ cusans. Hie mob demanded his life, and although Gylip- pus the Syracusan general exerted himself to save Nicias, it was without success. When Nicias and his colleague Demosthenes heard the sentence which had been passed against them, they anticipated their fate by putting them¬ selves to death, in the year 413 b. c. (Thucydides, vii.; liutarch, Life of Nicias ; Diodorus Siculus.) Nicias, a celebrated painter of Athens, who flourished about 322 years before the Christian era. He w'as univer¬ sally extolled for the great variety and noble choice of his subjects, the force and relief of his figures, his skill in the istnbution of lights and shades, and his dexterity in re¬ presenting all kinds of four-footed animals, a branch of t le art in which he excelled all the masters of his time. Wis most celebrated piece was that of Tartarus, or Hell, as 1 18 described by Homer. For this picture Ptolemy the son ot Lagus offered him sixty talents, or L.l 1,250, which s ret“®ed> and generously presented it to his own coun- ry* „ ,.was a^so much esteemed by all his contempora- rie8^lns excellent talent in sculpture. thp rCCB^? 1SL!ANds> 3 group of islands situated in nfn fiV!- j Sal> between the sixth and tenth degrees or i latitude, and between the ninety-third and ninety- N I C 205 fifth degrees of east longitude. They occupy the space Nicobar from the north-west point of Sumatra to the most souther- Islands, ly of the Andaman Islands. There are seven large and^ twelve small islands. The principal ones are Carnicobar, Teressa, Chowry, Bombocha, Kaichull, Carmorta, Nancow- ry, Toulongar, Sambelong, and Nicobar or Great Sambe- long > besides a multitude of smaller islands without any distinct appellation. These islands are mostly hilly, and some of the mountains in them rise to a considerable height; but others, again, are flat, and covered with cocoa-nut trees. On the other islands also a large proportion of cocoa and areca palms, with timber trees of various kinds, some of them of an enormous size, and very fit for naval purposes, are produced ; and so thickly are they interwoven in some places, that they are impervious to the beams of the sun. The falling of the leaves, twigs, and fruit below, with the heavy dews, renders the island extremely unhealthy, es¬ pecially to Europeans. The best island for supplies is Car¬ nicobar ; and perhaps the worst is the large one, or Great Nicobar, to the north of which runs St George’s Chan¬ nel ; a very dangerous passage for ships, on account of the strength of the tide, and the rocks. The wild beasts common in the Indian continent are not to be found here, such as leopards, tigers, &c. Large flocks of sheep and other cattle, originally brought hither by the Danes, and which have since run wild in the woods, are found in some of the islands ; dogs and swine are also common in most of them, and being fed on cocoa-nuts, the quality of the pork is excellent. In some of the southernmost islands monkeys are found. Snakes also abound, but they are not so numerous nor so venomous as those on the coast of Coro¬ mandel. There are numerous alligators, some of them of large size, and a variety of crabs, which swarm every where. Shell-fish are found in such numbers, that the most beau¬ tiful collections of shells may be made here. The inhabi¬ tants appear, from their features and their figure, to belong to the Kalmuck race. Ihey are of a copper colour, and have small eyes, small flat noses, large mouths, thick lips, and black teeth. They are well made and muscular, and are of a lively disposition, resembling the Piguans and Chi¬ nese in features, having scarcely any beard. Their mode of living is rude. They dwell in huts of an oval form, cover¬ ed with cocoa-nut leaves, and supported on posts about five or six feet from the ground. These huts are always circu¬ lar, resembling a stack of corn. They gain their subsist¬ ence chiefly by fishing, and trading to the neighbouring islands; whilst the women are employed in preparing the victuals, and in cultivating the ground. Vessels touching at these islands are abundantly supplied with cocoa-nuts, pine-apples, plantains, lemons, and other fruits, and also vyith ducks and fowls; all of which they readily exchange for cloth, tobacco, and any kind of cutlery; but they do not appear to set much value on gold and silver, such metals not being current amongst them, and tobacco being the or¬ dinary medium of all barter and exchange. A considerable traffic is carried on amongst the islands, the chief articles of which are cloth, silver coin, iron, tobacco, and some other commodities, which they obtain from Europeans. The chief productions of these islands are the cocoa-nut and areca-nut trees. Wild cinnamon and sassafras also grow in them ; and there is, besides, a nutritive fruit resembling in some respects the jaca fruit of Bengal, and growing on a species of palm which is found in abundance in the woods. The country is divided into villages, consisting of ten or twelve huts, each of w hich has a captain, who carries on a barter¬ ing trade with the ships that arrive, but who has no pecu¬ liar privileges. The clothing of the men is somewhat pe¬ culiar, consisting of a narrow piece of cloth about three yards long, which they wrap round their waists, and then pass between their legs, and through the girth behind, leav¬ ing the end of it to drag after them ; a circumstance which 206 N I C Nicode- has given rise to the fabulous stories of men with tails re- mus. lated by Kioping, a Swedish navigator. ''—y'—' The religion of the natives is an absurd and unintelli¬ gible superstition, consisting of sorceries, conjurations, and other delusions practised on the ignorant multitude by the priests. Their language is remarkably poor in words; and the missionaries never having been able to acquire any considerable knowledge of it, have not succeeded in mak¬ ing many converts. These islands were first settled by the Danes in 175b, for the purposes of commerce, and from that people they received the name of Frederic’s Islands. But, owing to the unhealthiness of the island, almost the whole colonists died. A new attempt was made in 1768, in conjunction with the Baptist missionaries ; but in 1771 only two Europeans and four Malabar servants survived. The missionaries still per¬ severed in their attempts to effect a settlement on the islands, and received supplies from Tranquebar, both of provisions and of recruits. But the mortality continued unabated ; and no progress having been made in the conversion of the natives, the attempt was finally abandoned in the year 1787. The missionaries mostly died of fevers and obstruc¬ tions of the liver. NICODEMUS, a disciple of Jesus Christ, one who was a Jew by nation, and by sect a Pharisee. The Scripture calls him a ruler of the Jews, and our Saviour gives him the name of a master of Israel. When our Saviour began to manifest himself by his miracles at Jerusalem, at the first passover which he celebrated there after his baptism, Nicodemus made no doubt but that he was the Messiah, and came to him by night, that he might learn of him the way of salvation. Jesus told him, that no one could see the kingdom of heaven except he should be born again. Nicodemus, taking this in the literal acceptation, asked, “ How can a man be born when he is old ? Can he en¬ ter the second time into his mother’s womb and be born?” To this Jesus replied, “ Except a man be born of water and of the Spirit, he cannot enter into the kingdom of God. That which is born of the flesh is flesh, and that which is born of the Spirit is spirit.” Nicodemus asked him, “ How can these things be ?” Jesus answered, “ Art thou a mas¬ ter of Israel, and knowest not these things ? We speak that we do know, and testify that we have seen, and ye re¬ ceive not our witness. If I have told you earthly things, and ye believe not, how shall ye believe if I tell you of heavenly things ? No one hath ascended up to heaven but he that came down from heaven, even the Son of man, who is in heaven. And as Moses lifted up the serpent in the wilderness, even so must the Son of man be lifted up. For God so loved the world, that he gave his only begotten Son, that whosoever believeth on him should not perish, but have everlasting life.” After this conversation Nicodemus became a disciple of Jesus Christ, and there is little doubt that he went to hear him as often as our Saviour visited Jerusalem. It happen¬ ed, however, that the priests and Pharisees had sent offi¬ cers to seize our Lord ; but they, returning to their em¬ ployers, reported, that never man spoke as he did. To this the Pharisees replied, “ Are you also deceived? Have any of the rulers or of the Pharisees believed on him ?” Upon this Nicodemus thought himself obliged to make an¬ swer, saying, “ Doth our law judge any man before it hear him, and know what he doeth ?” To this they replied, “ Art thou also of Galilee ? Search and look; for out of Galilee ariseth no prophet. After this the council was dismissed. At last Nicodemus declared himself openly to be a disciple of Jesus Christ, and he came along with Joseph of Arimathea to pay the last duties to the body of Christ, which they took down from the cross, embalmed, and laid in a sepulchre. We are told that Nicodemus received baptism from the NIC disciples of Christ; but it is not mentioned whether this Nicolj was before or after the passion of our Lord. It is added, || that the Jews being informed of the circumstance, de-JJ^olas posed him from his dignity of senator, excommunicated^ v him, and drove him from Jerusalem ; but that Gamaliel, who was his cousin-german, took him to his country-house, and maintained him there till his death, when he was honourably interred near St Stephen. There is still ex¬ tant an apocryphal gospel under the name of Nicodemus, which in some manuscripts bears the title of the Acts of Pilate. NTCOLAIEV, or Nicolaief, a city of Russia, in the province of Cherson. It stands on the river Bug, at about , eight leagues from the entrance of that river into the Black Sea, and at the point where the river Ingoul falls into it. From the entrance of the Bug at Oczakow, up to this city, its depth in the mid-channel is from four to six fathoms, and the navigation is consequently safe for the largest ships. This place is one of the chief naval ar¬ senals on the Black Sea, and, besides ships of war, many gun-boats, with sails and oars fit for navigation, are built and equipped. The timber for ship-building comes chiefly by the Dnieper to Cherson. The admiral commanding in chief in the Black Sea, and a number of inferior officers, have their permanent residence at this place. The town is much scattered; its streets are wide and regular, and many of them are planted with trees on both sides, but scarcely any of them are paved. Almost all the houses are built of stone, and separated from each other by trees and gardens ; but scarcely any of them are of a large size, and few have any pretensions to magnificence. The climate is healthy, the air is pure, rents are moderate, provisions are cheap, and the society is good ; but fuel is scarce, and wa¬ ter is conveyed from a very copious fountain near the gates of the city. The principal public buildings are a new church in the great square, the guild-hall, the admiralty, the docks, the custom-house, the marine barracks, and the hospital. There is a school for naval instruction and for the education of the artillery, and a fine astronomical observatory. The number of inhabitants is now about 15,000, the greater part of whom are connected with the marine service. The observatory is situated in longitude 32. 0. 15. E. and latitude 46. 59. N. NICOLAITANS, in ecclesiastical history, Christian he¬ retics, who assumed this name from Nicholas of Antioch, who, being a Gentile by birth, first embraced Judaism, and then Christianity, when his zeal and devotion recommended him to the church of Jerusalem, by whom he was chosen one of the first deacons. Many of the primitive writers believe that Nicholas was rather the occasion than the author of the infamous practices of those who assumed his name, and who were expressly condemned by the Spirit of God himself (Rev. ii. 6). Their opinions and actions were indeed highly extravagant and criminal. They al¬ lowed a community of wives, and made no distinction be¬ tween ordinary meats and those offered to idols. Accord¬ ing to Eusebius, they subsisted but for a short time; yet Tertullian says that they only changed their name, and that their heresies passed into the sect of the Cainites. NICOLAS, Sx, a large market-town of the Netherlands, situated in the province of East Flanders, and arrondisse- ment of the Dender. It is well built, has a fine market¬ place, and is in one of the richest agricultural districts ot that rich country, where husbandry is better conducted than in almost any part of Europe. It has 11,500 inhabitants, many of w'hom are employed in making cloths and cotton goods, in distilleries, and in various other branches of ma nufacture. Nicolas, St, an island of the Atlantic Ocean, and one of the most considerable of those of Cape Verd, being si¬ tuated between St Lucia and St Jago. It is of a trian- 5 W N I C i • gular figure, and about seventy-five miles in length. Long. ^33. 35. W. Lat. 17. 0. N. NICOLE, Peter, a celebrated French moralist and theo¬ logian, the nephew of Claude Nicole, a French poet, and one of the most illustrious writers of the Port-Royal, was born at Chartres in October 1625. His father, John Ni¬ cole, having a perfect knowledge of the ancient languages, instructed him in the elements of grammar, and initiated him so thoroughly in the classics, that at the age of four¬ teen he had completed his preliminary studies, and read the best works in Greek and in Latin. He then proceeded to Paris, where he commenced a course of philosophy and theology, and at the same time applied to the study of Hebrew ; but the weakness of his sight, occasioned by ex¬ cessive application, obliged him to abandon this pursuit, in which he had already made great progress. Having com¬ pleted his course of theology, and received the degree of bachelor, he was preparing to take his license, when the troubles which broke out in the university, on the subject of the famous propositions of Jansenius, forced him to de¬ fer the accomplishment of this object. Being attached by gratitude and esteem to the inmates of the Port-Royal, he passed several years in that house, occupied in teaching the belles-lettres. But, in 1655, he returned to Paris to labour under the direction of Dr Arnauld, with whom he was united by the ties of the most intimate friendship ; and, desiring to live altogether unknown amidst the bustle of the capital, he took the name of Rosny. The advance¬ ment of Jansenism appears to have furnished the motive that induced him to undertake a journey which he made into Germany, in the course of the year 1658; and whilst there, he not only translated into Latin the Lettres Pro¬ vinciates, in the composition of which he had participated, but published them, accompanied with very virulent notes. He soon returned, however, to join Arnauld; and they retired together to Chatillon, where they applied them¬ selves to the preparation of different writings. Nicole, al¬ though he did not entirely adopt the opinions of the Jan- senists, made frequent excursions to Port-Royal, Paris, and the neighbouring provinces, in the interest of that party ; but in these he acted with extreme circumspection, not choosing, as he himself observed, to play any part in civil wars. Being warmly solicited by his friends to enter into holy orders, he at length resolved to demand ordination of the Bishop of Chartres, in wrhose diocese he resided. But that prelate refused to ordain him, no doubt by rea¬ son of his connections with the Port-Royal. He conti¬ nued undisturbed at Paris until the year 1677, when a Lettre, which he wrote in the names of the Bishops of St Pons and Arras, on the laxity of the casuists, raised such a storm against him, that he was obliged to withdraw from the capital. For some time he remained concealed in the environs of Chartres and of Beauvais; but the death of the Duchess of Longueville, the most ardent protectress of Jansenism, having decided him to quit France, where he md not consider himself as any longer safe, he left the mgdom, and took refuge successively at Brussels, the ey of Orval, and Liege, frequently changing his name and the place of his retreat, and believing himself inces¬ sant y exposed to the machinations of his enemies. At engt , by the intercession of M. de Harlay, the archbishop o ans, he obtained permission to return secretly to Uiartres, and soon afterwards to fix his residence at Paris, w lete ie resumed his ordinary occupations ; and it wras tnen that he completed his Essais de Morale, a work which s ess lead than esteemed, and which stamped his reputa- tion as a writer. In the last years of his life he mingled n the dispute about Quietism, and took the part of Bos- tt • aSrSt Fenelc?n’ but with wisdom and moderation. hanrk Sh °r SOme itime been d?Prived of the use of his » e was meditating alone in his cabinet when he was N I C 207 suddenly struck with apoplexy. The tidings soon spread Nicole, in the capital, and the crowd of persons who hurried to visit the pious cenobite proved the high consideration which he enjoyed. Racine, being reconciled to his master, came in a diligence, bringing a medicine (gouttes d’Angle- terre) which for a moment revived him; but the resusci¬ tation was soon succeeded by a relapse, and he died two days afterwards, on the 16th of November 1695, at the age of seventy. He had given orders that he should be interred without any ceremony; but his will, in this parti¬ cular, was not respected, and his remains were accompanied to the grave by the most distinguished men of the time. Nicole, being of a simple and ingenuous character, evin¬ ced during his wdiole life the timidity of an infant. No¬ thing was more easy than to embarrass him in discussion ; an objection which he had not foreseen entirely discon¬ certed him. Speaking of Treville, one of his friends, he said, “ Ireville beats me in the chamber; but before he reaches the foot of the stair I confute him.” In the last year of his life he seldom went abroad, being afraid that, in passing along the streets, a tile would fall upon his head. He had also a great dread of travelling, and particularly of aquatic excursions. During a long period he had relegated himself to the faubourg Saint-Marcel; and when asked the reason ot this, he replied, “ It is because the enemies who menace Paris will probably enter by the gate of Saint Martin, and consequently will be obliged to traverse the whole city before reaching the place where I live.” But, with all this simplicity and timidity, Nicole had a reach and an accuracy of thought which were altogether admir¬ able. He equalled the best dialecticians, in the order, the method, the sequence, and the depth of his ideas; but as his object in all bis works was rather to prove than to please, his style, although remarkable for its purity and clearness, often fatigues by its dryness and monotony. “ On quitte ses Essais sans peine,” says Palissot; “ on y revient^ sans plaisir, parce que les lecteurs ont besoin d’etre fiattes ” Nicole attempted panegyric, but soon found that he had no talent for a species of composition which re¬ quires invention and warmth of style. A list of the works of Nicole will be found in the 3/e- moires of Niceron (tome xxix.), at the end of his Life by the Abbe Goujet, and also in the Dictionary of Moreri. The following are the principal, viz. 1. Epigrammatum Delectus ex omnibus turn veteribus turn recentioribus Poetis, cum Dissertatione de vera Pulcbritudine, Paris, 1659, in 12mo ; 2. La Perpetuite de la Foi de 1’Eglise Catholique, touch- ant 1’Eucharistie, Paris, 1664, in 12mo, called ta Petite Per¬ petuite, to distinguish it from the great work which bears the same title; 3. Traite de la Foi Humaine, Paris, 1664, in 4to, a work in which Arnauld had some share; 4. Les Imaginaires et les Yisionaires, ou Lettres sur 1’Heresie Imaginaire, Liege, 1667, in two vols. 12mo; 5. La Perpe¬ tuite de la Foi de 1’Eglise Catholique, touchant I’Eucharistie, 1 aris, 1669—1676, in three vols. 4to, a masterpiece of rea¬ soning, which appeared under the name of his friend Ar¬ nauld ; 6. Essais de Morale, et Instructions Theologiques, Paris, 1671-1672, in twenty-five vols. 12mo ; 7. De 1’Unite de 1’Eglise, ou Refutation du Nouveau Systeme de Jurieu, Paris, 1687, in 12mo. The last writings of Nicole turn upon the system of general grace, which he supported, to the no small displeasuie of most of his friends. The consequence was a controversy, which appears to have produced some coldness on both sides. Arnauld, in his Letters (tome vii.), expi esses himself with muchforce on the subject; andQues- nel complained warmly to Nicole of this species of defection on his part. The various pieces produced in this dispute will be found in a collection of writings on general grace, published by bouillon in 1715, with a long preface; and a curious analysis of the Traite de la Grace Generate will be found in the Bibliotheque of the Dictionary of Richelet. 208 N I C Micomedes Nicole had a large share in the Methodes Grecques et La- II tines, and also in the excellent treatise on Logic, known Nicotiana. unr|er the name of the Port-Royal. The life of this able ' and laborious writer has been written by the Abbe Goujet, who is, however, more of a panegyrist than a biographer ; bv Besokme, in his Histoire de Port-Royal (tome iv.) ; and also by Saverien, in his Vies des Philosophes Modernes (tome L). , ,. „ NICOMEDES, the name of several kings ot the an¬ cient Bithynia. See the article Bithynia. NICOMEDIA, the metropolis of Bithynia, which was built by Nicomedes, the grandfather of Prusias. Nicome- dia was famous, not only under its own kings, but also un¬ der the Romans; it was the royal residence of Diocletian, and also, if we may credit Nicephorus, that of Constantine whilst Constantinople was building. It is situated at the bottom of a bay of the Propontis, in Asia Minor, and sti bears the ancient name. Long. 30. 0. E. Lat. 41. 20. N. NIC OMEDUS, a geometrician, celebrated on account ot the invention of the curve called conchoid, which is equal¬ ly useful in resolving the two famous problems of doubling the cube and trisecting the angle. It appears that he lived soon after Eratosthenes, for he rallied that philosopher on the mechanism of his mesolabe. Geminus, who flourished in the second century before Christ, has written on the con¬ choid, though Nicomedus was always esteemed the inven¬ tor of that curve. Those who place him four or five cen¬ turies after Christ must be ignorant of these facts, by which we are enabled to ascertain approximately the time at which he lived. mi i • i NICOPOLIS, a province of European Turkey, which extends in north latitude from 42. 44. to 43. 46. and in east longitude from 23. 30. to 26. 4. This district is na¬ turally fertile ; but agriculture is in a neglected state, and the chief product is cattle. The capital, ot the same name, is situated on the Lower Danube. It is fortified, .and c<™- nected with a strong citadel, and it is said to contain 10,060 inhabitants. It is the seat of a Catholic and also of a Greek k NICOSIA, a city of the island of Sicily, in the kingdom of Naples, and in the province of Demone, eighty miles from Palermo. It stands on the ridge of a rocky moun¬ tain, the Herbita of antiquity. It is an ill-built city, and suffers from a scarcity ot water; but as the situation is more healthy than that of many of the Sicilian cities, it contains a population of 12,060 inhabitants,occupying3167 houses, many of which are formed by excavations in the rocks. Near to it are two springs of fossil oil, a copious rock-salt mine, and several sulphureous baths. NICOT, John, seigneur of Villemain, and master of the French king’s household, was born at Nismes, and sent in 1559 as ambassador to Portugal, whence he brought the plant which, from his name, was called Nicotiana, but is now more generally known by the name of tobacco. He died at Paris in the year 1603. Nicot wrote a French and Latin dictionary, in folio; a Treatise on Navigation ; and some other works. NICOTERA, a city of the province of Calabria Ulte- riore, in the kingdom of Naples. It stands on the sea-coast, at the mouth of the river Mesina, is the seat of a bishop, and has a cathedral, with several other churches. It suffered by the earthquake of 1783 ; but has been since restored, and now contains 6250 inhabitants, who follow chiefly the fisheries, and cure large quantities of anchovies and sar- dinias. NICOTIANA, or Tobacco, a plant so called from Nicot NIC above mentioned. There are seven species of nicotiana, Nitoti* of which the most remarkable is the tabacum, or common ^“v» tobacco plant. This was first discovered in America by the Spaniards about the year 1560, and by them imported into Europe. It had been used by the inhabitants of Ame¬ rica lone before, and was called by those ot the islands noli, and by the inhabitants of the continent pmtun. It was’sent into Spain from Tabaco, a province of Yucatan, where it was first discovered, and from which it takes its common name. Sir Walter Raleigh, it is generally said, first introduced it into England about the year lo85, and taught his countrymen how to use it. Dr Cotton Mather, however, in his Christian Philosopher, says, that in the above year one Mr Lane brought over some of it from Vir¬ ginia, which was the first time it had ever been seen in Europe. Tobacco is commonly used by the oriental na¬ tions, though it is uncertain by whom it was introduced amongst them. Considerable quantities of it are cultivated in the Levant, on the coasts of Greece and the Archipe¬ lago, in Italy, and also in the island of Malta. "There are two varieties of that particular species of nico¬ tiana which is cultivated for common use, and which are distinguished by the names of Orinoko and sweet-scented tobacco. They differ from each other only in the figure of their leaves, those of the former being somewhat longer and narrower than those of the latter. They are tall herbaceous plants, growing erect with fine foliage, and rising with a strong stem from six to nine feet in height. The stalk near the root is above an inch in diameter, and surrounded with a kind of hairy or velvet clammy substance of a yellowish- green colour. The leaves are rather of a deeper green, and grow alternately at the distance of two or three inches from each other. They are oblong, of a spear-shaped oval, and simple; the largest being about twenty inches long, but decreasing in size as they ascend, till they come to be only ten inches long, and about half as broad. I he face of the leaves is much corrugated, like those of spinage when fully ripe. Before they attain maturity, when they are about five or six inches in "length, the leaves are generally of a full green, and rather smooth ; but as they increase in size they become rougher, and acquire a yellowish cast. The stem and branches are terminated by large bunches of flowers, collected into clusters, of a delicate red, the edges, when full blown, inclining to a pale purple. They continue in succession till the end of the summer, when they are succeeded by seeds of a brown -colour and a kid¬ ney shape. These are very small, each capsule contain¬ ing about 1000 ; and the whole produce of a single plant is reckoned at about 350,000. The seeds ripen in the month of September. The following extract, which is copied from a manu¬ script of Dr Barham,1 * containing directions for raising, cultivating, and curing tobacco in Jamaica, is perhaps worthy of the attention of those who wish to be further acquainted with this subject. “ Let the ground or woodland wherein you intend pla111" ing tobacco be well burned, as the greater the quantity of wood ashes the better. The spot you intend raising your plants on must be well strewed with ashes, laid smooth anu light; then blow the seed from the palm of your hand gently on the bed, and cover it over with palm or plantain leaves. « When your plants are about four inches high, draw them and plant them out about three feet asunder; ano when they become as high as your knee, cut or pluck o the top ; and if there are more than twelve leaves on the plant, take off the overplus, and leave the rest entire. 1 This gentleman was contemporary with Sir Hans Sloane. He was a man of great probity, an able physician, and a s u a ' ralist. He collected and arranged a number of the plants of Jamaica, which he presented to Dr Sloane, and made severa nications to the Royal Society. N I D iJi “ The plant should now be daily attended to, in order | to destroy the caterpillars that are liable to infest it; as dj j 1- also to take off every sprout or sucker that puts out at the n'^joints, in order to throw the whole vegetable nourishment into the large leaves. “ When the edges and points of the leaves begin to turn a little yellow, cut down the stalks about ten o’clock in the morning, taking the opportunity of a fine day, and be careful the dew is fully off the plant; and do not continue this work after two in the afternoon. As fast as it is cut let it be carried into your tobacco-house, which must be so close as to shut out all air (on this much depends), and hung up on lines tied across, for the purpose of dry¬ ing. “ When the stalks begin to turn brownish, take them off the lines and put them in a large binn, and lay on them heavy weights for twelve days ; then take them out, and strip off the leaves, and put them again into the binn, and let them be well pressed, and so as no air gains admission, for a month. Take them out; tie them in bundles about sixty leaves in each, which are called monocoes, and are ready for sale. But observe to let them always be kept close till you have occasion to dispose of them. , “ Let your curing house be well built, and very close N I E 209 and warm. If a boarded building, it will not be amiss, in Nidifica- a wret situation, to cover the whole outside with thatch ti011 and plantain trash, to keep oft' the damps; for by this care Jj , you preserve the fine volatile oil in the leaves. Observe, > iebuhl\ no smoke is to be made use of, or admitted into your cur¬ ing house.” In 1790, the quantity of tobacco retained for home con¬ sumption in Great Brirain and Ireland was 11,860,661 pounds, and the nett amount of revenue derived from it was L.645,579. 5s. lid. The quantity entered for home con¬ sumption in the year ending the 5th of January 1836 was 22,116,759 pounds, and the amount of duty received there¬ on was L.3,354,459. Is. 5d. The quantity imported in 1834 was 39,477,907 pounds; in 1835, 25,818,965 pounds: the quantity exported in 1834 was 13,264,614 pounds; in 1835, 13,492,000 pounds: the quantity retained for consump¬ tion in 1834 was 21,193,860 pounds; in 1835, 21,945,589 pounds. The price of tobacco in bond in the London market ranges from 3d. to 5d. per pound. The rates of duty per pound on tobacco in the year ending 5th of January 1836 was, for unmanufactured of any British possession in Ame¬ rica, 2s. 9d.; of any other place, 3s.; for manufactured to¬ bacco and segars, 9s.; snuff, 6s. An Account of the Number of Pounds Weight of Leaf Tobacco, Manufactured Tobacco, Segars, and Snuff, upon which Duty was paid quarterly from the year 1835, ending bth of January 1836 ; also the rate of Duty', and the total amount of the same. Quarter ending 5th April 1835. 5th July 1835.. 10th Oct. 1835. 5th Jan. 1836.. Quantity entered for Consumption in the United Kingdom in the several quarters of the year ended 5th January 1{13G. Gross Amount of Duty received thereon. Unmanu¬ factured Tobacco. 5,660,167 5,284,269 5,652,943 5,377,543 21,974,922 141,643 Manufac¬ tured To¬ bacco, &c. 34,023 34,863 39,730 33,027 Snuff. 40 34 97 23 194 Total. 5,694,230 5,319,166 5,692,770 5,410,593 U nmanufactured Tobacco. f L. s. d. 848,108 9 6 790,071 7 0 846,490 19 6 805,983 13 0 22,116,759 3,290,654 9 0 Manufactured Tobacco, &c. L. 15,310 15,690 17,882 14,863 63,746 1 4 Snuff L. s. d. 12 3 7 10 4 7 29 4 11 6 18 0 Total. L. s. d. 863,431 2 4 805,771 15 6 864,402 6 3 820,853 17 4 58 11 13,354,459 1 5 NIDDUI, in the Jewish customs, is used to signify se¬ parated or excommunicated. This, according to some, was to be understood only of the lesser sort of excommunication in use amongst the Hebrews. He who had incurred it was obliged to withdraw himself from his relations, at least to the distance of four cubits; and it commonly continued a month. If it was not removed in that time, it might be prolonged for sixty or even ninety days ; but if, within that term, the excommunicated person did not give satisfaction, he fell into the cherem, which was a second sort of excommuni¬ cation ; and thence into the third sort, called shammata ox memaUa, the most terrible of all. But Selden has proved that there wrere only two kinds of excommunication, the greater and less; and that these three terms were used in¬ differently. T a considerable town of Caramania, in Asiatic mkey, being the ancient Cadyna. Some parts of the old "as aie still standing, composed of large stones decayed i.iti age; and the streets contain many ruined fragments c columns. It is inhabited by about 5000 Greeks and U! s, who are very poor, and is the residence of a pasha, a is twenty-two miles east of Karahissar. • iDJI^UL, a fortress of the south of India, in the pro¬ vince of Mysore. It was taken in 1770 by the Mahrattas, afterwards recovered from them by Hyder, and now be- VOL. XVI. longs to the rajah of Mysore. Long. 77. 16. E. Lat. 13. 15. N. NIDIFICATION, a term generally applied to the for¬ mation of a bird’s nest, and its hatching or bringing forth its young. See Ornithology. NIDUS, amongst naturalists, signifies a nest or properre- pository for the eggs of birds, insects, Arc. where the young of these animals are hatched and nursed. NIDYCAVIL, a small village in the south of India, in North Coimbetoor, being situated in the tract between the Karnata and Chera countries. Long. 77. 42. E. Lat. 11. 51. N. NIEBUHR, Bertholdt-George, son ofCarsten Nie¬ buhr the celebrated Arabian traveller, was born at Copen¬ hagen on the 27th of April 1776. The father, on his re¬ turn from his travels in the East, had married the daughter of the celebrated physician Blumenberg, and would pro¬ bably have established himself in the Danish capital; but the disgrace of the minister Bernstorf, his protector, had inspired him with a great dislike for that city. Denmark, to which the traveller now belonged, desired to employ him in the corps of military engineers ; in fact, the government of that country intended to avail itself of his knowledge for determining some geographical positions in Norway. Nie¬ buhr, however, preferred a civil appointment, that of Lund- 2 D 210 NIEBUHR, Niebuhr, schrieber? at Mildorf in Holstein.* If he had retained his taste for distant enterprise and adventure, the East was th^ science of com- the theatre upon which alone he would have sought to in „ . he preiecti0ns given on this subject by dulge such a predilection ; but the attachment which le ™ > ag fn tiie most respectable mercantile had conceived for his wife, and the birth of two children, ^ » f tliof Jnh rltv But illustrious Yossius was Niebub: had conceived lOl nib wne, cum tuc uiilh 7 , o ♦Rnl- r\rh ritV presented insuperable obstacles to the execution of any ^ the friend of his father, and Klopstock likewise resided in Hamburg. How then could he resist the impulse of Ins genius, or escape being inspired with new ardour in favour of antiquity ? When Yossius spoke of the Greeks and Ro¬ mans, it might have been supposed that he had just quit¬ ted their society. Niebuhr was certainly no poet ^ but project of this kind. He therefore remained in the bosom of his family, occupied with the preparation of his travels, and intent only upon giving to his children useful lessons, enforced by a virtuous example. The original intention of the Arabian traveller was to open to his son the route to the East. With this view the fekTtself warmed by the conversation of these early studies of the youth were arranged; he was taught Eng- g ^ ^ Vosgius he was indebted for those views, so lish, a language almost indispensable to the navigator,^an^ ^ which he afterwards developed re¬ specting the people of antiquity ; whilst Klopstock taught him to interpret the language of tradition, when it speaks in its own natural voice, and describes, with equal grandeur and simplicity, the Ruminal fig-tree, the augury ^of the Arabic, which he might one day have to speak in the na¬ tive country of Mahommed; whilst geography and the ma¬ thematics were destined to form the basis of his education. But genius is a bough which it is vain to bend in a direc¬ tion not given to it by nature. Niebuhr the father had tion not given to it by nature. Niebuhr the attier naci ^ birth of Servius, or the truly Home- traversed space, Niebuhr the son longed to oveileap tim , , f the’ Labe Regillus. “ On dirait,” says M. de he saw his object distinctly marked beyond past ages, and, d es pages admirables son style, tantot free from all trammels, it was towards antiquity that his ranimer 1’esprit du lecteur, study- sent, j,ar intetval.es, une ante .atigu^e de .top .ongues rae- ing Sophocles. When Ins father chanced to give him a lt^tl0n^ anticiPate, Niebuhr, having entered the uni¬ lesson in geography, or to pronounce the name of On- vergit ’ of Kie] applied himself zealously to the study of juris- ville, for which he entertained the most profound vene a- J and’was distinguished by the philosopher Jacobi, tion, young Niebuhr saw before him nothing but the Gau ] . 5 afterwards esteemed, and also by Hentzler of Cmsar; he read again and again the commentaries of that great captain, and only derived from the learned French p 3 ’ , » voung student proceeded toEdin- geographer archeological notions calculated to illustrate the ne . , . . 0f his tether in prescribing this voy- progress of the Roman conqueror, or to restore some an- burgh. § Meet of father , ^ 3 Ci«th“ ese exercises were urerely preparatory, ‘-a. sciejrce, ^ wereUs vi^ j-Ws^artie^r d.. The celebrated philologist Jager, editor of the Latin pane appoi became so enamoured of his experiments gyrists, was the first master of Niebuhr ; and it was under to direcUhs attention definitively this renowned scholar that he became initiated into tie a 1 subiect and fix his views on discovering some new mechanism of languages. His father, indeed, regarded lan- J .i on re.awabenino-old and forgotten guages only as tlie means of attaining science ; he never substances rather t a o j |j„|lt. stopped ^examine the details; provided he understood ”h^Edinburghl^An oldthip-cap- the import, he was satisfiedc The lessons of Jagei too ^ i t f *Ur nf the* S(*otts had thirty years deep ™t in the analytical mind of his pupil, who already tanr of began to display that vigorous stamp of gemus which pro- bef The honest mises to make more discoveries in the obscure recesses of an s i P . 0f his old friend with affectionate a library than the most robust traveller can hope to achieve se™a"/ecely^‘ “1f°X'I‘S°'rttjae “lived in the great- on distant coasts, or on islands regarded as inaccessible to cordiality,and I uh laquelle,” the navigator. Already had the idea of exposing him to est intimacy w th the members o* rom Jcier the dangers of such an adventurous career been abandon- tolberv, PP ^ ^ „ leted. A r " ed. The mother, whose solicitude was pushed to an im¬ prudent excess, had at first created obstacles to the ac¬ complishment of the views of Carsten Niebuhr respecting his son. In fact, the too assiduous cares which she lavish¬ ed upon him so weakened his constitution that his health always continued precarious, and the irritability of his nerves sometimes re-acted upon his character, which, with¬ out ever ceasing to be noble and generous, was not always exempt from whim and caprice. The studies of Niebuhr were now completed. A resi¬ dence of eighteen months in Scotland had enabled him to study the institutions of that country ; but as he wished to become still more intimately acquainted with the nation which his father estimated so highly, he devoted six months to travelling through different parts of Lrreat Bri¬ tain. During this period he took the greatest pains to in¬ form himself respecting the manners, the usages, an customs of the people, and in particular directed his at en 1 Secretary of justice or registrar would be an incomplete translation of this word. The Landschrieber also exercised adminis tive and financial functions. That the place of Niebuhr the father was superior to that of a simple registrar, is evince y cumstance that he joined to it the title of counsellor of state. 11T10 „nnfrP'P aui. sous le * “ Au bord de 1’Oce'an Septentrional,” says M. de Golbery, “ non loin de 1 embouchure de 1 Elbe, est, une c ; ubres. nom de Hadeln, a fait partie de la ligue Frisonne, et qui renferme la paroisse de Ludingworth, composee de cu 1 . ^ Le duche de Saxe-Lauenbourg, le Hanovre, la France, ont successivement etendu leurs limites jusqu a ces nvage , ^ je personnes connaissent ce petit pays. Desormais il sera celebre, car il a donne a la science un nom deux tois 1 u® J *es ,}ont pere a su conquerir pour la geographic 1’Arabic, ITnde, la Mer Rouge, regions dont les longitudes netaient P . [le llome, les cartes etaient imparfaites; Niebuhr le fils a fait reluire des claries de son genie les antiques debris des in ain)0rte et d’un regard assure" il a reconnu, malgre' I’obscurite des siecles, la source du grand peuple, et les aliiuens T1 r Academe le tribut de leurs generations.’’ (Notice Historique sur la Vie et les Ouvrages de B. G. Niebuhr, conteiller d etat, mem des Sciences de Berlin.) 3- V NIEBUHR. 211 hr. tion to the system of British legislation ; nor do we know France, On the one hand, he had been accustomed to Niebuhr, —''any instance of a foreigner who, in the same space of time, hear only of the degenerate men or the effeminate cour-' acquired so extensive a knowledge of the public law and tiers of the old monarchy; and on the other, he had been policy of this country. Niebuhr, in fact, loved that iner- horrified with pictures of the revolutionists, their scaffolds, tia, amounting even to obstinacy, which resists ameliora- and their crimes. In vain did the French army throw its tion, and which sacrifices progressive improvement to the victorious sword into the balance. The father of Niebuhr desire of lepose. Ihi& sentiment uas with him pushed to remained unmoved by its achievements, or rather became excess, and hence he felt distrustful of every ministry which more exasperated in consequence of its successes; for if appeared to favour reform. In a word, he had imbibed Denmark was the country of his adoption, he w as a Ha- the essential spirit of Toryism, the distinctive characteris- noverian by birth, and each battle gained by the French tic of which is resistance to change. Dazzled by the great- afflicted the ancient subject of England, and wounded the ness which this country had attained, he hastily concluded sentiment of German independence. Even the expedi- that all was directly owing to its peculiar institutions ; and tion to Egypt, with all its romantic incidents and exploits, thinking that these were as perfect as human wisdom could found no favour in the eyes of the old traveller. That render them, he conceived that nothing remained but to the French neither could nor would do good, was with him place them beyond the reach of innovation. a settled maxim.1 tNiebuhr commenced his administrative career at Co- It is not to be wondered, then, if his son remained in¬ pen hagen, where he was at first appointed secretary to sensible to the astonishing achievements of Napoleon. Schimmelmann, the minister of finance ; and about the His soul, it is true, was formed to be moved with all noble same time we also find him acting as secretary to a com- and generous sentiments, to admire all courageous and mission instructed to arrange some affairs with the Barbary heroic actions ; but in the warriors of France he saw only powers. At the period of the bombardment of the Da- the slaves of a military despot, and the instruments em- nish capital by the English, the precautions taken by Nie- ployed by him to overwhelm Germany. The fidelity of buhr contributed materially to save from the common dis- Denmark to France was, according to him, nothing but a aster the library of which he had for some time been as- base and cowardly compliance. That state, he conceived, sistant-keeper. The knowledge which he had acquired was sacrificing its interests toils predilections; and when in matters of finance soon became of practical utility to Prussia imagined that she had merely evoked the shade its possessor, and he was appointed one of the directors of of the Great Frederick, in order to find nothing but Sou- the Danish bank. Distinguished alike for his ability and bises in the armies of France, Niebuhr associated himself his desire to do good, Niebuhr did not confine his labours with this final delusion, and was one of the first writers to the cabinet, but published several memoirs on the pub- to raise the cry of war. However, as the servant of a lie administration, and on political economy. In the year friendly power, he did not venture upon a direct attack. 1804 he married the daughter of the landvoght of the He borrowed the thunder of Demosthenes, translated the district of Heydt. This union proved happy, and opened first Philippic, added to it notes filled with allusions to to him the prospect of enjoying in the bosom of his family actual circumstances, and, lastly, dedicated the work, the the repose necessary for enabling him to discharge with first fruit of his classical acquisitions, to the Emperor credit his administrative labours. A career at once ho- Alexander. But he forgot that Napoleon was not Philip nourable and affluent seemed calculated to satisfy his am- king of Macedonia, nor his warriors the barbarous op- bition, whilst it afforded him leisure for the study of let- pressors of Athens ; and he also neglected to observe that ters; it appeared, indeed, that Germany must for ever civilization was not likely to come to us from the north abandon to Denmark both Niebuhr the traveller and in virtue of an imperial ukaz. Prussia, however, under- Niebuhr the future historian of Rome ; and to the bril- stood this language; she called Niebuhr to her service, hant position which the latter owed to his father’s celebrity and he was named director of the commerce of the Baltic! and his own merit, it might have been supposed that But he did not long enjoy his new dignity. Scarcely had he would content himself with adding the honourable re- he arrived at Berlin, when the storm which burst at lena putation which, in official situations, always follows talent and Auerstadt reduced the Prussian monarchy to dust; and probity. But fortune had ordered it otherwise. it became necessary to fly, and abandon to the homage of Hie French were now waiting upon the shores of the the conqueror the remains of the great Frederick. From Channel until winds less contrary should fill their sails, Konigsberg to Memel, from Memel to Riga, the court and waft them across to the white cliffs of Albion; their skulked from asylum to asylum. The French cannon ensigns, it was hoped, were destined to wave over another pursued it everywhere, and amidst the snows and mud of Hastings, and, by a new conquest, to efface the remem- Eylau, as well as on the plains of Friedland, the imperial brance of the warlike Normans. But England, alarmed at eagles rushed to victory. the prospect of a struggle for existence on her own soil, Nevertheless, Prince Hardenberg invited Niebuhr to called Austria to her aid. France, however, was not taken assist in all the councils which were held during this cri- unprepared. The legions arrayed for the invasion of Eng- sis. The rectitude and constancy of his character never lanu rushed like a torrent into the heart of Germany; yielded or flinched; the same love of country, the same in three months the Austrian monarchy was humbled in aversion for foreign domination, always distinguished him. me dust; and the Russians, then so much dreaded, were During his stay at Riga, he employed what leisure busi- dnven mto the lakes of Moravia. If less prejudiced, Nie- ness allowed him in studying the literature of Russia; ouiir would perhaps have admired the prodigies perform- but it appeared to him poor and barren, nor do we find ea oy the modern Romans; and these few months, which that his occupations in this way had much influence upon concentrated more glory than might have sufficed to il- his future labours. It may be supposed, however, that of tl 6 an|age,.’ would have appeared to him a fragment these pursuits inspired him with a predilection for the Rus- me annals of a great people. But early impressions are sians, and an aversion for Poland, which it is difficult to “ nevt’r e*taced' *rom his infancy, he had, in the pa- reconcile with the generosity of his character. After the ai mansion> imbibed the most bitter prejudices against conferences of Tilsitt, he returned to Beilin ; and recent as It would be unjust not to add, however, that Carsten Niebuhr afterwards saw reason concerns the sciences. to modify his prejudices, in as far at least 212 NIEBUHR. Niebuhr, events having made him advantageously known, he was em- ^— 'ployed on a mission of high importance, namely, to nego¬ tiate with the agents of Great Britain in Holland some affairs of finance. The latter country was then governed bv Kins* Louis, or rather it was administrated in spite ot him, and in the interest of his brother. If this prince had been master of his states, tradition would preserve, for gene¬ rations to come, the memory of one good king more. He understood perfectly all that was necessary to insure the prosperity of his new subjects ; he was enlightened, loyal, and generous. Of this it was not long ere Niebuhr ob¬ tained a satisfactory proof. The police of the empiie ha covered the kingdom of Holland with its agents, and he had become an.object of their attention. The king hasten¬ ed to apprise him of the dangers to which he was ex¬ posed, and even to assist him in effecting his escape. I he day came when this good king found himself proscribed and persecuted, even in the capital of the Christian world; all the thrones raised by his brother had been overthrown but the noble use which he had made of his power lived in the recollection of the ambassador of Prussia, for that ambassador was Niebuhr; and Louis was respected at Rome for having been beneficent at the Hague. When Niebuhr returned to his own country, the hour of her deliverance had not yet come. Prussia was then endeavouring to console herself for her misfortunes by a wise and liberal administration, and the ministry of Ber¬ lin was occupied in founding useful establishments. Nie¬ buhr, who had just been named counsel or ot state, had profoundly studied the agrarian law ot the Romans ; and Prussia at this period followed a system of improvement and colonization of waste lands, on which he furnished to the government some very remarkable memoirs. Roman history was thus in some measure applied to the soil, whilst the utility of the exact sciences, the progress of which exercises an influence on agriculture and the arts, was at the same time exemplified. In every point Nie¬ buhr powerfully seconded the able and generous views of M. de Stein. . , j _ About the same period, Berlin was distinguished for a scientific activity almost without example. The univer¬ sity was created, and the Academy of Sciences re-orga¬ nized. The recent labours of Niebuhr had secured him a place amongst the most eminent men of the kingdom; he belonged to the university, and was likewise a member of the academy. Buttmann, Heindorf, Spalding, and ba- vigny, arrived in succession. With these celebrated men he lived in terms of the greatest intimacy. In him also they recognised their equal, and, penetrating the depth of his views, notwithstanding the distrust which he felt of his own powers, they conducted him to that chair of Ro¬ man history, which he hesitated to occupy ; “ comme s if pressentait qu’apres en avoir franchi les degres, il ne lui se- rait plus donne de s’arreter; comme s il etait, effraye de la rapidite avec laquelle ils I’eleveraient jusqu a 1 immor- The eulogium contained in these words of Golbery may be thought exaggerated ; but in reality it is not so. 1 hose who see nothing in history but a sequence of annals, and of facts crowded on facts, are pre-occupied with the thought that contemporary authors have bequeathed to us all an¬ tiquity, and cannot conceive that the moderns should em¬ ploy themselves otherwise than in compiling and arrang¬ ing ancient texts. It appears to such persons that to re¬ store the beautiful edifice raised by Titus Livms, we must take fragments from Dionysius of Halicarnassus, Sallust, •md Polybius ; or glean here and there, in the grammarians and rhetoricians, some scattered indications which the current of ages would have swept into oblivion, if they had not scattered their erudition athwart its course. lo act in this way is no doubt useful. By doing so one may ac¬ quire the reputation of Trenshomius, make supplements to Hieh« P Titus Livius, and repair the mutilated monument of his his-^-y* ^ tory in much the same fashion as if a pillar of brick were substituted instead of a column of the Parthenon. Modern writers have only one advantage over these Latin compil- ers ; that of preserving an uniform style in their composi¬ tions, and never betraying in their sickly restorations the imposing vicinage of the ancients. Whether they confine themselves to translation, or attempt to complete what has been left unfinished, the edifice is all trowelled with the same mortar ; and if it has neither majesty nor solidity, its distribution at least may present an appearance of regula¬ rity. But if, in an access of hallucination, it should enter into the mind of a modern to abandon this coarse plastering in order to create in his turn ; in short, to construct a rival monument to that of Titus Livius; his folly would be the same as that which the viceroy of Egypt might be charged withal, if he should take a fancy to raise new pyramids be¬ side those of Djizeh, or to surpass the wonderful masses which traditionally own Cheops or Cephrenes as their ar- chitects. But such was not the conception of Niebuhr. His views on Roman history, at the moment when he undertook to teach it, were very different. If, said he, the masterpiece of Titus Livius were still entire, and presented to us a continuous history, it would be at once extravagant and presumptuous to attempt to imitate it in order to attain its perfection. Such an undertaking would be absurd, even althou'di we could collect materials more abundant than those which he had consulted, or record traditions different from his. If Titus Livius still existed entire, the task of the moderns would, in the view of Niebuhr, be limited to disentangling poetical history from the primary facts pie- served by tradition, and applying a critical and inquiring spi¬ rit to proud family legends, renowned consulates, imaginary triumphs, and those fallacious notions which have passed from panegyrics and funeral orations into histories. But of that admirable work we now possess only disjointed frag¬ ments; and if other indications enable us sometimes to di¬ vine its course, it is nevertheless with it as with those an¬ cient aqueducts of which, we discover the general direc¬ tion only because some of their ruined arches appear at various distances in the valley or the plain. The historian of Rome must have a different object in view ; an object which it would be his duty to attain, even if classical literature had still presented itself to our con¬ sideration as it did to that of the contemporaries of Au¬ gustus. It would be incumbent on him to apply his mind to the critical examination of facts, and to researches con¬ nected with institutions of which the indifference or igno¬ rance of authors has suffered the memory to perish, bal- lust conceived himself obliged to inforrn the Romans that their own country might, not less than Greece itself, glory in great actions. All their views were, in fact, fixed on the latter ; they disdained their own language ; they despised the annals of their country. In vain had the elder Cato written his Origines ; in vain had some other Romans at¬ tempted to create a national history. They had no readers; and perhaps Titus Livius was the first who succeeded in avenging that long oblivion of so many great actions and noble characters. Like a majestic hymn, his narration a once filled the ear and awakened the patriotic feelings ot the Roman. He struck a chord to which the hearts of fits countrymen responded; and henceforward they despised the subtil ties of the Greeks, who, excepting Polybius, oc¬ cupied themselves with debating questions of fatality on the grandeur of Rome, and who consoled the vanity ot their countrymen by announcing, in periods elaborate y rounded, that destiny had made Rome the mistress of tne world, and consequently that no disgrace attached to thei inevitable defeat. NIEBUHR. 213 pr- But what really were the ancient Institutions of Rome ? Was it to these that she owed her success ? Could her vir¬ tues and the devotion of her citizens fail to triumph over all obstacles ? These are questions which never engaged the attention of the Greeks. Neglected by the Romans them¬ selves, the original organization of the state had become a subject of doubt even in the time of Cicero. In regard to all that was known of old Rome, and what still remained of ancient institutions, every contemporary might form a judgment, but few persons paid any attention to the sub¬ ject ; and nothing respecting it was consigned to histories written for a posterity which it was not imagined could ever cease to be itself Roman. None of the authors whose works we possess, either in whole or in part, appears to have thought that it would one day be necessary to learn what every one knew in his time ; and that from the divi¬ sion of the people into centuries until the occupation of the day of the citizen, every thing would be an object of research. Titus Livius, moreover, has given himself little or no concern about this species of exposition ; anxious only to render his narrative attractive, he has rarely shown himself an archeologist, seldom formed a distinct idea either of the different peoples or states, and never consult¬ ed the old inscriptions of the Italic nations, or examined the archives of Rome. Hence it is necessary, by means of research and meditation, to penetrate the sense of de¬ tached notices comparatively few in number, and, by com¬ bining them together, to retrace the image of what the eternal city was at its birth ; to recognise in its primitive population the different elements of the Italic races, and in its institutions the result of this fusion; to follow the pro¬ gress of both, and, wherever the soil is covered with ruins, to seek under the rubbish for the ancient foundations by which it is still furrowed. It was on the 26th of October 1810, that, in a masterly and vigorous introduction, Niebuhr unfolded these brilliant and profound views. Their splendour might no doubt prove too much for eyes accustomed only to view Rome through the magnifying glass employed in libraries to decipher an¬ cient manuscripts. The school of routine, in fact, cried out scandal; but elevated minds were more enlightened than dazzled. Niebuhr was listened to; his lectures were nu¬ merously attended ; and their increasing success gave birth to the first volumes, published in 1811 and 1812, which he afterwards completely recast. The apparition of these volumes was for the time a meteor the reflection of which illuminated all the literature of Germany. They gave rise to profound controversies, to ingenious systems, and to learned philological discussions. Niebuhr himself, without conceding any thing to the criticisms of others, became a severe judge of his own work. He afterwards lamented that at first he possessed only the erudition of a man who had instructed himself; and he had the modesty to com- paie his own proceedings to the uncertain motions of the sleep-walker, who wanders at hazard on the edge of the roof. But with more justice it may perhaps be said, that m these first essays the lights of his genius were like those brilliant coruscations with which a fiery atmosphere irra- diates summer nights without a cloud, and which, so far tom keeping to any determinate place, incessantly show themselves at all points of the horizon. This period of creation and enthusiasm was also marked _ y other productions. Thus, in the same year in which he naturalized himself in the Rome of Servius Tullius, he na¬ vigated with Scylax, interrogated the text of his Periphis, and read to the Academy of Sciences a dissertation hav¬ ing for its object to determine the epoch when that work was composed, which, according to him, was the first half of the reign of Philip, or about the 105th Olympiad. A com¬ petent judge, M. Letronne, has declared that this disser¬ tation was the best which had yet appeared upon the expe¬ dition of Scylax.1 At this time also he delivered a deli¬ berate opinion concerning the epoch to which the second part of the inscription of Adulis belongs ;2 occupied himself with the geography of Herodotus ; determined the state of science in the time of the venerable father of history ; threw some light upon the annals of the Scythians, Goths, and Sarmatians; and, lastly, by an ingenious and sound criticism, effaced from the collected works of Aristotle the second book of the Economics, which had beyond all doubt been composed in Asia Minor subsequently to the time of Theophrastus. Nevertheless, the face of the world was about to change. The finest army which had ever been assembled for the purpose of conquest had just perished amidst the snows of Russia. We have already stated what were Niebuhr’s sen¬ timents in regard to France. At this critical moment he united with Arndt, and along with him published a jour¬ nal entitled the Prussian Correspondent. This journal was promptly informed of all events. From Spain to Poland, and from Italy to England, it collected every thing calculat¬ ed to rouse German valour; it announced or presaged suc¬ cess, published vehement manifestos, inflamed the minds of the youth, revived old resentments, and, in short, pre¬ pared a war of extermination. The cabinet of Berlin was not slow in obeying the impulsion thus given. Soon af¬ terwards, Niebuhr, having joined the armies of the allies, as¬ sisted at the battle of Bautzen ; and at that of Dennewitz he himself laboured with Schleiermacher in raising redoubts on the Creutzberg. But not long afterwards, the king of Prussia, whom he had accompanied into the field, sent him into Holland. This was about the time when the formation of the kingdom of the Netherlands began to be discussed in the diplomatic meetings. Niebuhr hesitated not to express decided disapprobation of the proposed fusion of the two states of Holland and Belgium. He spoke often against this project to the mother of the king, who had admitted him into her intimacy, because she had learned to esteem him ; and, not content with this frank manifestation of his sentiments, he placed himself in direct official opposition to the calculations of the statesmen of the moment, found¬ ed as these were upon confined views and superficial esti¬ mates of national character. But on this occasion medio¬ crity believed itself superior to genius, and, sixteen years afterwards, Belgium reproduced its protestation written in characters of blood. In the year 1815, Niebuhr was overwhelmed with severe domestic affliction. He lost his father on the 26th of April, and consequently took no part whatever in the events which followed the return of Napoleon from Elba. Ab¬ sorbed in grief, he sought consolation in writing the life of the Arabian traveller. Phis biography is short, and free from declamation; and the style is simple, natural, nay often sublime. No extravagance, no useless details, none of those digressions with which the smallest commentator conceives himself bound to overload the author whom he has made the object of his care, deform this composition. It is even remarkable for its strict impartiality. Carsten Niebuhr. geographersSwhi('hn;!)fnn0i/0n?er correct, Letronne has himself only to blame; for he has published a treatise on the ancient to observe that he al L a resliec[s a masterpiece of erudition. Niebuhr entertained a high esteem for this great scholar, and used 2 See al h 1 * WaS W°rt 1 a W lole academy- ‘ of the Lao-uiiE a wnti-'' !'.e ^’ and advantage which M. Champollion-Figeac has derived from these in his Annals some points of cbrnnoi/,^.0''?16 .• t Li^titute in 1819, and which, notwithstanding the controversies to which it has given rise on P °logy, is continually cited as an authority amongst our neighbours the French. 214 NIEBUHR. Niebuhr. Niebuhr, the son of a cultivator, died counsellor of state, ' fcnigbt of the order of Danebrog, and member ot the prin¬ cipal learned societies of Europe; he had never accepted anv other title of nobility, which, in his estimation, would have ooH served to impeach the humility of his virtuous progenitors- His son, the historian of Rome, was likewise counsellor of state, member ot the Academy of Sciences, ambassador, and he had no wish, any more than Jiafather, to be ennobled. Both judged rightly. The one h ad ed his name as teas the Indian Ocean; the other had car¬ ried it hack to the age of Rhea Silvia. The authority of parchments does not go so far in space, nor ascend so high inthneT \ tew weeks after the death ot his father, Nieouhr tedTte-ent the loss of his wife. To her, however, the historian consecrated no biography. The gent ®vir^es the female sex, concentrated around the domestic health, seek no illustration, and their remembrance rarely sur¬ vives even in those families the happiness of which they had mast essentially contributed to promote. The new tempest which had in the interval exhausted it- seK awakened ail sorts of ambition, and the conquerors vvere disoutimr with avidity the divisionot the spoil, or, in other words, that of continental Europe. Niebuhr took a pai t, somewhat too active perhaps, in favour ot the ambitiou pretensions of Prussia, and wrote, in a vehement stjle, a pamoiilet, entitled Prmsxns Bechte gegen den Sachudmi Hof or Rights of Prussia against the Court ot baxony. But he at the same time showed himself the courageous adver- 52-v of M. de Schmaltz, and the stedfast supporter of all the patriots. So much nobleness of character was not calcu- Ered to endure long the atmosphere ot courts. The virtue and the frankness of Niebuhr annoyed the ministry , and although his services had entitled him to aspire to the hig est dignities of the state, it was now resolved to remove him. 'His mission to the Holy See may there tore be con¬ sidered as oolv an honourable exile. But to N icbuhr the emplovment which removed him trom Berlin to Rome wai anv thing rather than a subject of regret. He felt himself as it were drawn towards that intellectual father- hud which had given him erudition. In the city ot the nootrSs be discerned from afar the vestiges ofthe enceinte of Servius TuHius, and occupied himself with the forum and the tribune or pulpit whence harangues had been de¬ livered to the people, much more than with the chair o b-Veter, with'which be bad to negotiate the interests ot the Catholic subjects of Prussia. By this time his scien¬ tific activitv had resumed all its vigour, and, notwithstand- ki- the distractions inseparable from the new union which fee' wished to contract with the grand-daughter of Ur Hentzler, be began his relations with the celebrated Angelo !daio bv publishing the fragments of Fronto, which that ’ rned’ Italian had just discovered. Associated with him m this undertaking'were Buttman and Heindorf, men ot a kitired 5tana. and. along with the historian of Rome, fonniag a triumvirate of which the learned in Europe will not soon lose the remembrance. About this period, also, Niebuhr read to the Academy of Sciences a dissertation ©a some scenes audaciously interpolated into the text of Piautus by the insipid versifiers of the middle ages. The science of law was then in course of being enriched with the fine conceptions of M. de Savigny. Niebuhr felt insiKfeti bv hb conversation; he venerated the jurisconsult, acd cherished the friend. M. de Savigny engaged him to risit several libraries of Italy, conceiving that they still or rather concealed, valuable remains of the an¬ cient iurisprodence. Niebuhr stopped only a few days at Manich. where he again saw Jacobi, one of the men whom he esteemed the most; then crossing the Brenner, the Niebui, limit which he had assigned to the ancestors ofthe Etrus-'-y* cans, he traversed the Tyrol, and having arrived at Ve¬ rona, almost immediately discovered the Institutions of Gaius, the prototype of those ot Justinian. v''er® found on a palimpsest or rescribed manuscript, which had for a^es remained unnoticed in the library of the chapter. During a residence of seven years in the ancient capital of the world, Niebuhr enjoyed almost uninterrupted happi- ness. He cherished his young children, and her who gave them birth. His house was open to his countrymen ; it was the resort of artists and learned men of all descriptions. The hour propitious to discovery had arrived ; Niebuhr, at- temptino- to glean where the celebrated Maio had reaped, published the Fragmenla Ciceronis ; and it the most en¬ tire concord did not always subsist between these learned men it is nevertheless agreeable to find them united by the most brilliant discovery of our time. When the learn¬ ed Italian had recovered the Republic of Cicero from be¬ neath some commentaries of St Augustin,1 Niebuhr fur¬ nished notes to the first edition, discussed and restored some of the passages which had been most altered or viti¬ ated, and by his ingenious conjectures contributed to ad¬ vance the science of philology. . Niebuhr, having greatly modified his ideas in regard to France, now observed with much interest the progress of constitutional opinions. Nevertheless, being attached to all governments consecrated by time, he was desirous that the old dynasties should strike their roots deep into the soil of constitutional Europe. In his opinion, too much blood had already been mingled with that soil to run the hazard ot shedding more. He had accordingly an equal aversion to revolutions on the one hand, and to the excess ot power on the other; and hence the distinguished orator who de¬ clared from the French tribune that it vyas necessary " to plant the royal standard in the midst of the nation, ex¬ pressed the opinion of Niebuhr with all the eloquence and maiesty of an ancient. The vehement and warm impro¬ visations of M. de Serre ; his noble and generous views, so often developed in the most brilliant harangues; obtained for him the esteem of the ambassador of Prussia, ine latter saw in him a Roman of the best days; and when, like himself, repulsed by courtiers incapable of entertain¬ ing elevated conceptions, M. de Serre was sent to Nap es, the French envoy appeared rather to arrive from another time than from another place. These men were soon con¬ nected by the ties of the closest friendship; and when a premature death had taken from France one of her noblest sons, Niebuhr formed the design of writing the history of his life, and never afterwards spoke of him without the deepest emotion. . It was in the year 1823 that Niebuhr took his departure from Rome, after having passed there seven years, the whole of which period had been devoted to the cultivation of the sciences. During this long residence, a great num¬ ber of important dissertations increased the claims which Niebuhr had already acquired to the admiration of learnea Europe. In 1819, we find him discussing the merit of the Chronicle of Eusebius, and endeavouring to ascertain what advantage chronology might derivef rom the discovery w hic had just been made in the Armenian convent at Venice. Not long afterwards, he determined the epoch m which Quintus Curtius lived, and that in which Petromus wrote- In elegant and easy Latin, he also explained the resm tions of which the inscriptions brought from Nubia V ■ Gau appeared to him to be susceptible, and read this bt tiful production to the Academy of Archeology. A ■ TW writi** appeared to Wong to the tenth century, and contained the commentaries of St Augustin on the Ptobns, srea tie llSth to the UOtii inclusive. NIEBUHR. man bookseller intending to have the topography of La- lande reprinted, Niebuhr strenuously opposed the design, and wrote on the subject a learned and luminous mono- graphy, which appeared in the Kunstblatt of Tubingen, and is also inserted in the collection of his works. Lastly, it was by his counsel and encouragement that Plainer and Bunsen undertook the important work, which is still, we be¬ lieve, in course of publication, and which will in all probabi¬ lity be the more perfect that M. Bunsen succeeded Niebuhr in the embassy, and consequently was placed in a situation to continue the researches of his illustrious predecessor on the topography of Rome. The demission of Niebuhr ap¬ pears to have been principally occasioned by the injurious influence of the climate of Rome on the health of his wife. But it is also possible that a little jarring or asperity in his diplomatic relations may have deprived him of the fa¬ vour of the court. He feared not to plead the cause of humanity, and though he had not been called to the con¬ gress of Verona, he remonstrated in favour of the Greeks, whom a policy equally ridiculous and barbarous had aban¬ doned to the legitimacy of the Turkish sabres. Before quitting Italy, Niebuhr proceeded to visit Na¬ ples, Pompeii, and M. de Serre ; he collated a manuscript of the grammarian Charisius, and then set out for Germany, without any determinate project as to his future establish¬ ment. Nevertheless, he resolved not to pass by Saint-Gall, where discoveries so important had been made in the fif¬ teenth century. In this ancient monastery he remained for some time, but only obtained by his researches a few obscure fragments of the poem of Merobaudes, which he published the same year, 1823. From Saint-Gall Niebuhr made a sort of pilgrimage to Heidelberg. The celebrated Vossius then resided in that city, and the ambassador of Prussia, the academician, and the historian of Rome, went to carry to this old friend of his father the grateful ho¬ mage of the young student of Hamburg. After this act of piety almost filial, he directed his course towards the provinces of the Rhine, there to await the orders of the king, and also because he entertained an anxious wish to visit Paris, and make the acquaintance of those learned men whose communications had served to gladden the last years of his father’s life. He was also desirous to converse with M. Letronne, whose positive erudition corresponded to the conscientious exactness of his own, and each of whose dissertations presented all the characters of mathe¬ matical demonstration. France then inspired him with the most lively admiration. She was rich in all kinds of scientific glory ; but the reading of hieroglyphics (which, low ever, does not belong to France as a discovery, but to England and Dr Young) was, in the estimation of Nie¬ buhr, the most splendid achievement of the erudition of our time. Detained at Bonn by fortuitous circumstances, he im¬ mediately set about continuing his Roman History, the pre¬ paration ot which had suflered considerable interruption. is residence at Rome did not admit of that assiduous la- bour, or that accurate examination of books, required by ie publication of a history ; he was only occupied in re¬ ceiving impressions, and in studying monuments. On the ° er land, he still hoped one day to rekindle those inspi¬ rations with which his mind had been originally filled and uelighted by the conversation of Savigny. The third vo- wimer^f moi1181 nryxT0fu^0me Wc? PrePared during the 1 1824', and Niebuhr was about to publish it, when e was recalled to Berlin, where he took part in the deli- eia ions o the council of state, and where, also, he was loure with the favour of the prince-royal. He had 215 perceived, however, that the publication of hia thirri naihacae Xieronr would require that the two preceding ones shocuki be cws- pletely recast. This he accordingly undertook in 18:25; and the gratuitous courses of lectures which fee ieu^ere'd facilitated his task. Pyrrhus said to his Efxrotes. - Y®» are my wings.” The zealous professor was anintatei wvtlk the same feeling towards pupils whom be loved, and who listened with their whole souls to his discourses. Wue: distinguished his prelections was not preciselv doqnemcsc, to which he made no pretensions. It was a sort ef inspi¬ ration; it was the richness and abundance of matter; was. in fine, the air and tone of earnest coovictien. a quafitv which never fails to make a deep impressioc. tho uju —r- V sometimes be pushed too far. Whenever he bid ir.-re~ headed and made himself master of a suojectL has -re became to him like an article of faith ; his persuasion vis complete.1 It may easily be supposed, therefore, that the attacks directed against his fundamental ideas rarr little impression on him. During the twelve year* wh dh had elapsed since his work first appeared, it .^Nes, oc¬ casion to a great deal of discussion. >L de Serhere-L in particular, had, in his Annals of Heidelberg. daBunei far Greece the honour of having given birth to the ~ roibut the article in which Niebuhr examined tnc.se national songs and traditions which sumwEad the erjcLe af Rome with a flickering and uncertain atmosphere arcear¬ ed to him a work of extraordinary merit. Three Tears af¬ terwards, Professor V nchsmuth, a man of oosicrre and se¬ vere erudition, wrote a history of the Roman. Stare, hi which he constantly advances alongside of fai# adversarr. attacks him without intermission, re-estahushes whaJt re had overturned, and pulls down what he had busk op,, none of the editions of his first volumes which he after¬ wards published, did Niebuhr make any mention, of formidable antagonists. On the contrarv. fee aafecre i. si¬ lence in regard to them, notwithstanding he hflU engaged in a warm controversy with Steinacker, Francius. ansi Ekiaas:.. on the celebrated passage in the republic of Cicera. cap¬ taining details respecting the comma. Some years behare his death, Golbery asked him, if, in his second ed-^itu he would not reply to Schlegel and Wadsusrmitik. At this question his countenance became clouded with in excres- sion of dissatisfaction, and he answered drdv tnat ue name no one. The man who believes in the knowledge fee j r~Tri; » the Moslemin confides in the Koran, cannot fad co be exci sive. Unfortunately this was the great defect at Nieduhr. He kept too much aloof from other men of learning, mi-, even from those whose labours do honour to their emaUr . whenever the shock of opinions, or a different system in¬ terposed to wound his orthodoxy. It would be eudies to enumerate all his antipathies, or to name the dktkagunsk- ed professors with whom he was at feud. It is more atfa- factory to state, that his aversions were not of long dun- tion, and that, it prone to take offence, he was e, controversial character, Niebuhr observes, wuh ecaa. _s- tice and discrimination, “ It often happens in literary dis¬ cussions, that a moment of passion, or a transient irrutsoi- lity, leads us to give pain to a man who is ot -ti-onse the co~ ject of our esteem. Ot this there have been niamerDm* ink- stances, from the stormy contentions of the Forum to those of the Chamber ot Deputies, and, in philology, morn cue time of Laurentius Valla to that of Hermatu. I expe¬ rience the regret which accompanies these unfortunate dis¬ plays ot vivacity; I feel satisfaction in seeing the rrtaem-. N,iebuhrl-eD°fedhetlwtRewtc,eeme, - expression of a learned critic, “ on passera sur sa trace, sans ^ Niebuhr made immense sacrifices for the prosperity of the university of Bonn. He gave public courses of lectures, although he did not occupy a chair in that seminary; and -P . . ofofo no tmmnpn ntested some of his discoveries; he only aiinouh . as counsellor of state he founded pretended that what they had attacked m their criticisms iom ns PP questions of history and philology, which was not the weak side of Ins work. Hence he did not t0 the students. As soon as think it enough to persist in the greater par of ^ Urceived in the latter indications of merit, his purse he had new proofs to produce, and new solutions to give At the same time, he freely abandoned a fundamental idea of his original essay. In his eyes Rome was no longer Etruscan, but formed by an union of the Etruscan element with the Sabines and the Latins. His residence in the ancient capital of the world had enabled him to illustrate some points which were formerly obscure; and since the commencement of his researches, three new and abundant sources of information had been opened by the publication of Lydus, of Gajus, and of the fragments of the Republic of Cicero; whereas, previously, ages had passed away with¬ out adding any thing to the means of extending our know¬ ledge. B°ut it is only by study that his book can be un lie urunvj&cLi jwi • i • he perceived in the latter indications of merit, his purse was open to them ; in him they found at once a patron, a director, and a friend. He only quitted his new residence twice ; once to undertake a journey to Berlin, of which we have already spoken; and some years afterwards to con¬ duct his wife into Holstein, and there to seek the repose rendered necessary by the excessive labour he had under- o-one. It has been remarked as a proof of his modesty, that, in passing through Gottingen, he inscribed his name on the register of the library, with the addition of Private Teacher at Bonn. - , • „ The last period of his life w^as not the least laborious, inasmuch as he then conceived and executed the project ledge. But it is only by study that his book can ne un- inasmucu ^ ^ B ine Collection. The derstood. The perusal of it is difficult, nay, even pamfu; nor ^ reP’ , d Dhil0l0m8ts in Germany were associated can the meaning of the author be discovered or appreci ated, except by those who have thoroughly mastered the ancient texts. The quaint archaism of the phraseology also serves as an additional obstacle to its intelligibility. To him may justly be applied what Cicero said ot the first most celebrated philologists in Germany were associated in this enterprise, and the learned M. Hase was enabled to restore to erudition his Leo Lhaconus, the first edition of which had been lost by shipwreck. Niebuhr himselt commenced the collection by the publication ot Agathias; him may justly be applied what Cicero said ot tne nrst comineuwc.* other auth0rs; orators of Attica ; in them we remark noble expressions he suPe™ ^ 0f tlfe volumes ; and a great abundance of ideas, many things in few words, and e enn he directed the labours of his young friends withal a little obscurity.1 The inspiration which is most fa- by J NJ^huhr had also established the miliar tp the author often blends itself with this obscurity, and Niebuhr then appears to give out oracles. But if in the expression there be any want ot finish or precision^ oi any thing which subjects the mind to a labour of divination, such deficiency is compensated by the elevation of the thought, and by a penetration hitherto without example. The defects of his style are still more sensibly felt in the French translation, because the language of our neighbours, Schopen and Classen. Niebuhr had also established the Museum of the Rhine, a periodical publication, which he enriched with most learned dissertations. He there de¬ monstrated that Lycophron was only contemporary with Philip the son of Demetrius; and that he had been erro¬ neously confounded with the tragedian of Alexandria. Availing himself of a passage of Tzetzes and of a scholium, he discovered an important fact in Italic history. In an- French translation, because the language ot our neighbours, ne a.scove.cu ^ fragments of Teles always clear and precise, does not naturally admit of vague ^^^Xscu^ passage of Athenaeus, an determined the and uncertain forms of expression ; and because, in reqmr- with an obscure pa g Chremonidian. As to ing an author to make an entire disclosure of his thought, precise war which the latte Niebuhr makes him a it had to undergo no small violence in order to accommo- Chremomdes, who gave it Ins name Niebu^k^n date the expression to the standard of the German origi- general in the service nal. This inconvenience it was almost impossible to avoid, events l^eStl°hn ^ havi£g discovered a Rag- without injury to the peculiar character of the work, piad o^oy’^^Niebuhr, notwithstanding multi- Niebuhr, whose mind was in other respects so elevated, ment of Dion Lassms, in e , guccTess, and was not less the proprietor of his words than of his ideas, plied lacwuc, restored t Roman history, particu- and without accepting the one we could not be enriched demonstrated its -P^an^o ^ with the other. France, however, required a translation, larly in reference to the qua ^ ^ capture and one almost interlineary was produced, resembling some- senate on the subject of the^a ^ what the versions of Flomer which are put into the hands of scholars. The book, in short, was intended for science, not for literature ; although this circumstance, which is dis¬ tinctly stated in the preface, has been lost sight of by seiuiic uu me of the Janiculum, and the Lex Hortensia. Amidst these multiplied occupations, the second v of his Roman history was in its turn recast, and the manu¬ script had already been prepared for the press, when, on Brutus, De Claris Oratoribus. _ * M. Lerminier, in Lc Globe. 3 Both these dissertations -were, in 182G, translated into French by M. de Golbery. N I E ihr. the fth of February 1830, a night of disaster destroyed the '■—''fruit of so much labour. A violent conflagration consumed the upper floors of the house which Niebuhr had destined to be the asylum of his old age. This severe calamity ob¬ liged him to recommence his volume entirely, and he pass¬ ed several months in this painful occupation. His facul¬ ties were even affected by the toil which it imposed : “ I advance,” said he, “ by means of efforts which I may ven¬ ture to call excessive ; my memory is impaired to such a degree that I can no longer deceive myself as to the cause of this decay.” We have already stated that Niebuhr was of a very feeble constitution. "He was of small stature, with a quick and keen eye ; his countenance was agreeable, and of a mild expression. The family affections constituted his whole happiness ; and the most profound studies never prevented him from smiling on his infant children, or call¬ ing to his arms his little Marcus, whose interesting figure, happy disposition, and amiable character, struck every per¬ son who saw him beside his good father, a man as deserv¬ ing of the domestic happiness he enjoyed, as of the great reputation he had acquired. “ Twice during my residence at Bonn,” says M. de Golbery, “ I went to see him ; and of both visits I retain recollections that can never be effaced. The conversation of men such as Niebuhr is an advantage rarely enjoyed ; the hours passed in listening to him have left in my mind an impression at once delightful and so¬ lemn ; he appeared to me simple and good. During my first visit he related to me the history of his whole life ; se¬ veral of the facts and judgments contained in my notice of him I owe to that conversation ; but, in my sketch, they are presented without that charm of expression, and that elevation of thought, which caused me to forget the flight of time; and the approach of night alone apprised me that one of the longest days of summer was drawing to a close.” Niebuhr had not yet recovered from the effects of the excessive labour to which the destruction of his house had condemned him, “ when,” to use the expression in the preface to his second volume, “ the madness of the court of France broke the talisman which kept enchained the demon of revolutions.’ I he news of the ordonnances of July had filled him with indignation ; and in his public course he made a vehement address to his pupils, in which he spoke of the perversity of a ministry that sacrificed to despotic and sacerdotal notions the happiness of a nation and the imprescriptible freedom of thought.1 The saga¬ city of Niebuhr did not, however, enable him to foresee The true results of that unparalleled act of audacity and folly. He was strangely surprised when, three days later, he re¬ ceived intelligence of the events which had occurred in Tans. Niebuhr regarded the rights of nations as sacred as those of kings, and, as a vindication of the former, he applauded the principle of the Revolution of July ; a prin¬ ciple, we may add, which was speedily disregarded by the government w hich that great popular commotion installed on the ruins ot the oldest dynasty in Europe. o much agitation, disquietude, and labour, rendered it -mpossible for him to receive very strong impressions with- out danger; any thing, however slight, which affected his ea th, might become fatal. Niebuhr often went out to ea t e journals. On Christmas day he returned with a severe cold from a reading-room, where he had perused j c eeP atJ;cntion the pleadings of M. Martignac and M. -i'r- " ^ch strongly affected him. A slight degree ver accompanied this cold ; but, from the 30th of De- N I E 217 cember, his medical attendant recognized the symptoms of Niece a mortal inflammation. The pain, however, diminished in- II versely as the danger increased. He preserved to the last NieuPort- moment his reason entire, saw the term of his existence ^ appioach without discomposure, and surrounded himself with the objects of his affections. At length, on the 2d of January, at two in the morning, this truly great man breath- _hjsJasC ant^ <( 1 arr)c du juste alia se confondre dans la divinite, dont elle etait une faible mais pure emanation.” Madame Niebuhr, weakened by protracted suffering from an affection of the chest, sunk under her sorrow in°a few days afterwards; and four orphan children, confided to the care of M. de Classen, were subsequently sent to some re¬ lations by the father’s side in Holstein. . Niebuhr left but few manuscripts. The third volume of his Roman History, which had escaped destruction when his house was burned, has since been printed ; and there exist also some fragments of the fourth volume, but in small number. Much may be expected from M. de Savigny, who was thoroughly cognisant of all the great conceptions of his friend ; and from M. de Classen, who, for a long pe¬ riod, had not quitted his house. In his last letter to M. de Golbery, Niebuhr had offered him additions to the first volume of the Roman History ; but it is uncertain whether these were found amongst his papers, or whether he had wiitten the life of M. de Serre, which he had certainly the intention of publishing. There may also be found amongst his papers a project relative to Goethe; it was addressed to M. Schweighceuser, whom he had requested to obtain from the priest of Sessenheim a portrait of Goethe such as he was when his residence at Sessenheim rendered that place celebrated. When this was sent to him, little did either M. Schweighceuser or his friend M. de Golbery fore¬ see that Niebuhr, who was still in the vigour of his ao-e, would reach the term of his cai’eer before the patriarch^of German literature, whose likeness he was so anxious to piocuie. A short time before his death, the Prussian go¬ vernment had engaged him to return to Berlin ; but^he declared to M. de Golbery that he preferred the quiet of his retreat, and pursuit of his peaceful labours, to the tu¬ mult of the capital and the cares of public business, (a.) # NIECE, a brother’s or sister’s daughter, which in the civil law is reckoned the third degree of consanguinity. NIEMEN, a large river of Poland, which rises in Li¬ thuania, where it passes by Bielicka, Grodno, and Kowno; it afterwards runs through part of Samogitia and Prussia,’ where it falls into the lake called the Kurisch-haff, by se¬ veral mouths, of which the most northern is called the Russ. This lake communicates with the Baltic. NIEPER, or Dnieper, a large river of Europe, and one of the most considerable of the north, formerly called the Borysthenes. Its source is in the middle of Muscovy, and it runs westward by Smolensko as far as Orsa; it then turns south, and passing by Mohilow, Bohaczo, Kiow, Czyrkassy, the fortress of Kudak, Dessau, and Oczakow, falls into the Black Sea. NIESTER, or Dneister, a large river of Polish Rus¬ sia, having its source in the lake Niester, in the palatinate of Lemburg, where it passes by Halicz. It then separates Podolia and Oczakow from Moldavia and Budziac Tartary, and falls into the Black Sea at Belgorod, between the mouths of the Dnieper and the Danube. NIEUI OR r, a fortified city of the Netherlands, in the province of West Flanders, and arrondissement of Furnes. nac/and the prKic^ ofTeToSt ^ °f ^ b°th th°Se who °PP0Sed this old obsti- partmental law. ' He had unhmmX ^ alsVh°fu WS° Prev;alled on,the chamber to refuse its support to the discussion of the de- tbe approbation which M de V?arttiaS, tfH aeJn"13 and nobIe character of this statesman, and was more proud of VOL. xvi -Martignac had expressed of his Roman History, than of any other testimony in its favour P 2 E 218 Nievre II N iger. N I G The environs are unhealthy, from the low situation, which, by the facility of inundation, forms one of the chief means of defence. It is situated at the mouth of the Iser, by ’ which it has water communication with Dunkirk, Br'1g^s’ and Ypres. It contains 2600 inhabitants, who are chie y occupied in the herring and cod fisheries. Long. 2. 39. L. ^NIEVRE, a department of France, formed out of the ancient duchy of Nivernois. It extends m north latitude from 46. 52. to 47. 36. and in east longitude from 2. 39. to 4. 6. It is bounded on the north by the departments of the Loiret and of the Yonne, on the east by the Cote d’Or and Saone-Loire, on the sohutht,byrt11;eerSa0I"e;^0ent and the AUier, and on the west by the Cher. In exte H is 2953 square miles, or 686,619 hectares, and .s dmded into four arrondissements, twenty-hve cantons, and MO communes, the population of winch amounts » nersons. It is generally a hilly district, and on the eastern side it is mountainous. Nearly one third of the surface is covered with forests ; and as the cultivation is bad, it does not produce a sufficiency of corn for the supply of the peope, what it does yield consisting mostly of oats, rye, and bar ey, with very Me wheat. SoL of the meadows on the banks of the rivers feed cows, which, with the produce of the fo¬ rests furnish the chief commodities with which the peop e are enabled to buy corn. There are some mines of iron the working of which, and converting the raw material into common ufensils, furnish the chief employment to the scan- ty population. Some wine is grown, but ™»st'y ln^r‘” mialitv and not adequate to the consumption. By its rivers 2nd Sul the department is well .-PP^ wf cheap means of conveyance for its wood and its iron. Ihe hshene on the rivers and the lakes are productive, and in part sup¬ ply fish to Paris. The department elects two deputies for die legislative body. The capital is the city of Nevers. NIGER, or, more properly, Quorra, a great ™er ° Central Africa, the course and termination of which, for upwards of forty years, excited an interest beyond a y other question connected with the geography of the globe, exceotino- perhaps that of the north-west passage. 4 his arose not only from the importance which naturally be- N I G. longs to the solution of any great geographical F°J>W but from the various and conflicting theories which had been formed relative to the Niger. The points which so long remained undecided were, whether the large inte¬ rior river of Africa, first mentioned by Herodotus, and after- wards by Pliny, Ptolemy, Leo Africanus, and others, could be idendfied with that which we now call the Quorra or the Joliba, which latter is its name during the earlier par of its course ; and whether this river lost itse f ^ the great Lake Tshad, Tshadda, or Shary, or terminated in the At¬ lantic Ocean. These were the main questions which were agitated by geographers; but there were others which occupied no inconsiderable degree of attention, such as, whether it carried its waters under ground through the Great Desert, into the Gulf of Syrtis, or whether it flowed in an easterly direction, and formed a branch of the Nile. But every difficulty has at length been cleared away by the enterprise and perseverance of Britons, and we can now trace the entire line of this great river. To the first question, whether the Quorra be the Niger, meaning by that the river so named in the works of ancient geographers and historians, a negative answer has been very generally criven ; and with regard to the termination of the Quorra, it has been found to flow into the Atlantic through a number of mouths situated in a delta, at the head of the great gu o the western coast of Africa. The discovery of the termi¬ nation of the river which has been so long and so impro¬ perly called the Niger, was made by Mr Richard Lander, a very humble but intelligent individual, who, without hav¬ ing any prejudices to gratify, or theory to support, set about the task in a straightforward manner, and accomplished, not without difficulty and danger, an undertaking in which all former travellers had failed, from having fallen victims either to the insalubrity of the climate or the more fatal bar¬ barity of the natives. But before tracing Lander s voyage along the Quorra, it may be necessary to give a short ac¬ count of what was previously known respecting that river. Herodotus, in his geographical notice of Africa, mfor us that some young persons belonging to a people who dwelt in the north of Africa, on the borders of the Mediterranean, travelled in a westerly direction from a part of Egypt, un- ider was born at Truro, in Wales on the 8th rzr „„ . education was accordingly of the most ordinary “*vhefe“ “ K™t £hile together in one place, and used to he delighted savs he, “began to display themselves in early youth. I never ey S l c&uld steal an opportunity ; as well as to mix tn" rdav truant, and stroll from town to town, and from vil 1 S’ j uged ajs0 to iisten with unmixed attention to old in the ^society of boys possessing restless habits and inchnaUons sim ^ons 0'f the earth.” Domestic calamities compelled him to women’s tales about the ceremonies and manners of t th eariy afTe of eleven he accompanied a mercantile gentleman to ouit his paternal abode when he was only nine years of ^ tn hifnaUv^ coimtrv in 1818, where he entered into the service of the West Indies. He was absent three years, and returned to his 1 g on ^ Continent. An opportunity having again oc several individuals, one of whom he accompanied to France and othe servant to Major Colebrooke, one of his ma- curred of visiting distant regions, he traversed the colony of the Cape ^^^^Pfr’i^o England in 1824, he accepted a situation m iestv’s commissioners of inquiry into the state of the British colon • „ g , time passed away pleasantly and thought- the establishment of a kinsman of the Duke of Northumberland, ^ Denham from the interior ^Africa in the following year again lessly enough, till the return of Captain C^rtXatutas the intention of the British government to send out another expedition roused my rambling propensities.” Having heard that it was the intentio B cla t011j and was engaged by tbr the purpose of exploring the yet undiscovered parts of Cenf™1 are well known. After the death of Clapperton, that enterprising traveller as his confidential ser\ ant. e himself home, which, however, he did not accomplish in ess on the 10th of April 1827, Lander sought every opportunity of c?nT^‘n£;“ saccatoo in Houssa, to Badagry, on the western coast of than a twelvemonth, having had to make Ins way detence ess an t ^ Portsmouth, on the 30th of April 1828 bringing wit Africa a long, difficult, and dangerous journey. At length he arr ^ . ot. hig own> Being unable, from ill health, to su r ssot u sirs ^ ^ ^ »ame ^ Portsmouth on the 9th of January 1830, and arrived at Cape ^oast C the mercenary chief of till place. At length they set ou Sryeot"„5v»tL9 La auH-ennga, they.on the 06. of June,^a Boos^ the western bank of the Quorra, which place no European when he was accompanied by Lander. 4 rom Boossa NIGER. 219 J tJI t^iey came t0 a ^arge river ^ croco^'les> and flow- towards the rising sun; and that they were conducted by the natives to a considerable city situated on its banks. The fact of the Nile flowing from the west in an early part of its course, led the Father of History to conclude that this river was a distant branch or source of the Nile. Thus originated the first error regarding the Niger, and the weight which was attached to the opinions of Herodotus (scarcely less than belonged to those of Aristotle in a still more important branch of human knowledge) continued for ages to involve the subject in the greatest obscurity. The successive facts discovered relative to the hydrography of Africa were bent and twisted to answer the conditions of a vague hypothesis, for the truth of which there was no proof, and only the authority of a fiame. Notice is taken of the Niger by Strabo, but Pliny treats largely of this river, conducting it in an easterly direction, through sandy deserts, to the Nile of Egypt, and thus coinciding in opinion with Herodotus. Mela, another geographer, had the can¬ dour to confess, that w7hen the Niger reached the middle of the continent, no one knew what became of it. Ptolemy was the first who demolished the notion that the Nile and the Niger are the same; but his account of the Niger is vague, and somewhat unintelligible. He adhered to the former opinion regarding its general direction, and consi¬ dered as one river streams that were entirely distinct. But to return to Herodotus. The difficulty has been to identify the track of the travellers which he mentions, and their account of what they saw, with what is now knowm of the river lately discovered, and the part of Africa in which it is situated. Without going into the details of this sub¬ ject, we may briefly state how the facts stand. Herodotus distinctly mentions, that the Nasamonian youth travelled directly westward; and if so, they certainly could never have reached the Joliba or Quorra. But others assert, that as the ancients were not very accurate with regard to their bearings, the wmrds of Herodotus are not to be interpreted strictly; and consequently, if we allow that they proceed¬ ed, not directly westward, but a little to the south, the tra¬ vellers might have arrived at the river. The city to which they were conducted has been surmised to have been no other than Timbuctoo itself.1 But it is clear, that if we allow of such latitude of meaning to the terms employed by the ancients, either in geography or any other science, there will be no end to conjecture regarding what they did or what they did not know. If Herodotus is to be taken as authority at all, we must accept of him without any emendation whatever, just as he stands; and if so, w'e must certainly come to the conclusion, that the Joliba or Quorra is not the great river to which he alludes. It may ha\ e been one of the many streams flowing in an easterly di¬ rection in that part of Africa which was called Segelmessa ; and what seems to confirm this conjecture is, that Pliny evi¬ dently points to one of these. The celebrated Arabian geo- giaphers Abulfeda and Edrisi, and Leo Africanus, a native of Spain, all assigned to the Niger of Ptolemy a w’esterly course ; and the twTo former gave it a source identical with that of the Nile, but Leo supposed it to take its rise in a lake situated to the south of Bornou, whence it was believed to flow westward to the Atlantic Ocean. The early European navigators, in their discoveries on the western coast of Afri¬ ca, found successively the estuaries of the Senegal, Gambia, and Rio Grande, and believed them to be the mouths of the Niger, which was described as traversing nearly the entire breadth of Africa. In course of time they were tempted to explore the Senegal and Gambia, for the purpose of reaching treme point of the expedition, where they arrived on the 27th of June. The descent of the river commenced on the 2d of and the results of the expedition are related in the text. In their voyage downwards to the sea, their adventures were sometimes of an amusing, sometimes of an alarming character. As they proceeded, however, their difficulties and dangers increased • but thp'f* -f £!th ‘Jjf 11,051 man1/ an^ determined resolution. At Kirree they were plundered, and nearly lost their lives ’ On their f Eb0 that the Joliba flows in the general the former being, according to hls/“0“"t; abt0"‘tb“ndryed direction of its course south-east till it reaches Yaoon. journey distant from its source, and the '“‘tet ‘wo hunp e Ximbuctoo to Yaoori, however, very httle is known miles from Timbuctoo. In his second journey, undertake ^ ^ river . but the fact tnat Park sailed down at the instance of the British govemment, he traced h ftom thesone lace to the other fully establishes the con- Niger as far as Boossa, where he “n|“;‘u"f'7scP”ained ,i„uity. From Yaoori to the sea it was navigated by the in the river, as was afterwards satisfactorily ascerta ^ Land'rSj and was found t0 dow at first nearly due south, by Clapperton and Lander. A e Lander’ who then to take a rapid bend to the east, and afterwards g names of Laing, De Caille, Clapperton, andi;dn^r’Jcur duai|y to return and take a south-south-westerly direction all ascertained important facts regarding ^ > ^ t0 the Atlantic Ocean. Of these fortunate discovere in connection with the discovery o p k pevished, we shall now proceed to give some account. perton crossed the river at the po nt where I Boossa, the first city in the vicinity ot the Quor a at and soon afterwards died himself at Saccat . , , which the Landers arrived, is situated on its right bank. Lander, his faithful servant, on Return to Engiand, mile frora the river, in latitude 10. 14. north, and volunteered to navigate the river from Boos a ^ longitude 6. 11. east. Black rocks were seen to rise ab upt- mination; his offer was accepted by the Bntish go the centre 0f the stream; its surface was ag tated nient, and in a few months this enterprising mdmd al whirl ols ; and in the dry season its largest branch was accomplished the work of ages, having entered the A 1 y ^P & across> The travellers pro- tic by the River Nun, one of the branches by which -n a canoe from Boossa to \aooii, between which great river discharges itself into the sea. Dlaces the river was found divided into many channels, by 8 The source of the Quorra or Johba although not yet places nve^ ^ ^ islands> COVered with tall rank actually explored, has been asce^ain.ed ^ hupdred grass’; and some of the channels were so shallow that their tuatedin the high country of Kissi, about two hundred Sanoe’was constantly grounding. /rheywere told at^ miles north-east by east of Sierra Leone. I t oori however, that above that place, and below Boossa, which is best known is said to originate n the east ;avio.ation was not interrupted either by rocks or sand- Lide of Mount Loma, one of the range called the Moun- hat after the malea or wet season, which sets tains of Kong, and which appears to be in with fourteen days of incessant rain canoes of all kinds the Gibel el Kumn, or Mountains of the > to and fro betvveen Yaoori, NoufFe, Boossa, and Funda • 9. 15. north, and longitude 9. 36 west, h^ P^. ^ &, flourishing kingdom, ruled by a hereditary stream, under the name of Johba, bends its con ^ sovereign, who exercises absolute despotism. Ihe cap a east through Foota Jallo and Kan an, where city, which bears the same name, is of great extent, be g r cS: —gtSwtr "“und it, befwoen twenty and thirty miles in circuit, and very popu . When the orticl“ ^mS'ampl/’narrative of their discomies is necessary i» Ihis place’/wsupply any deficiency whifh may be found in our geography of Africa. NIGER. 221 lous; but, from the low nature of the banks of the river, it ’—'was found very swampy. Returning to Boossa, and sail¬ ing downwards, the Quorra was found completely navigable to a finely-wooded island called Patashie ; but from thence to Lever or Layaba, a distance of about twenty miles, the channel is so full of rocks and sand-banks, as to render the passage very difficult. From Lever all the way down to the ocean, the Quorra is a broad and noble stream, varying from one to six, but being most commonly between two and three miles in breadth. The banks in some places were flat and marshy, but elsewhere presented the most pleasing aspect. They are described as “ embellished with mighty trees and elegant shrubs, which were clad in thick and lux¬ uriant foliage, some of lively green, others of darker hues; and little birds were singing merrily among the branches. Magnificent festoons of creeping plants, always green, hung from the tops of the tallest trees, and, drooping to the wa¬ ter’s edge, were pleasing and grateful to the eye.” Further down, the river is bordered by lofty mountains, seemingly forming part of the great chain which crosses Africa in this latitude, but which has not been sufficient to arrest the course of this mighty stream. These eminences are de¬ scribed as gloomy and romantic, fringed with stunted shrubs, which overhang immense precipices ; and their re¬ cesses are tenanted only by wild beasts and birds of prey. Even in the mid-channel, a rocky islet called Mount Kesa rises to the height of 300 feet; and its steep sides, fringed with magnificent trees, present a majestic appearance. The island Zagoshie is one of the most remarkable spots in all Africa. It is about fifteen miles in length and three in breadth, in the midst of the Quorra, the broad channel of which on either side separates it from the continent. The surface is very low, and muddy, yet throughout well cul¬ tivated, and extremely productive. The manufactures of this place are highly valued, and superior to any in the kingdom of Nouffe or Tappa, to which it belongs. The laigest and most flourishing city of this domain is Rabba, situated about two miles from Zagoshie, in latitude 9. 14., and between five and six hundred miles from the sea. The surrounding country abounds in the most valuable grains, in horned cattle of remarkable size, and in horses much ad¬ mired for their strength and beauty. Below Zagoshie and Rabba the Quorra flows almost due east for upwards of a hundred and twenty miles, present¬ ing throughout a magnificent body of water, at one place neaily eight miles broad. The shores are generally well cultivated and inhabited; and at one point two very lar^e cities appeared on the opposite banks. Towards the end of this reach the Quorra is joined by a large stream from the north-east, called the Coodonia. About twenty miles lower is Egga, a very large town built close to the river, in a situation low, and liable to inundation. The inhabi¬ tants trade both up and down the river; and here were found Portuguese cloths, brought from Benin. Egga is the boundary town of Nouffe, and closes on the south that range of flourishing and comparatively well-governed countries which here extend along both banks of the Quorra. The riyei now flows east-south-east along a fine country, covered with numerous villages, the principal being Kacunda, which consists of three large villages, all under the absolute sway of a single chief. The river then takes a direction nearly due south, and, at the distance of three or four days’jour¬ ney below Egga, is joined by another river nearly as iaro-e as itself, falling in from the north-eastward. This is the Ishadda, Shar, or Shary; and Lander was informed that Fundah, of which Clapperton heard so much when at Sac- catoo, was at the distance of three days’ journey on the banks of this river, and not, as had been supposed, on those of the Quorra. This fact was verified some years afterwards by Mr Laird,1 who, in his voyage up the Quorra, ascended the river Fshadda (uniformly designated Sharv in his work) for six or seven days, when he entered a creek, from the extremity of which a land journey of about ten miles conducted him to Fundah, a large and populous town. Below the confluence of the rivers Quorra and Tshadda the course of the river is south-south-west, and a'kSLw ^ “ the “1 Alburkah, in regard to the sonroo nfT. T ^ .01dfiel(h skiving officers of the expedition, London, 1837, in two vols. 8vo. With denlv tto thn Niger There iXfe't^de u^fthA-l that °f ^ Niger- .'1:he.ris!7?f commence, sooner and more sud. Soudan, would n.mrally he immense Pn.Tthe^hr 7 C0mPan;01! wl,t.h the Niger which, if it communicated with the Sea of that thicountry lie, vefy neirThe emiator ” With ,n Vf 7’ ,9h0“>d. think that its rise is in a mountainous country, and to he a W0u^d hal>Pen if the source of the river were a large reservoir of water, such as we knew the r ike tui,i t stream LuS fron/tf fater’ ^tif "c*1 know1n’ is kePt permanently colder than a small one under the same circumstances - the signed to the course of the0^6^ therefor.e’ and flowmo °nly 500 miles (which is probably more than the limit that ought to be as- versed nearly 3000 miles in a tronica^climafe1 het0 or.lginate .V1 Lake 1 shad), will beyond all doubt be colder than one which has tra- and, from itJshallow lentl whln f?’ be?ominP fuelled during its long course only by a great number of small tributaries of the solar beams u C0.mPa^ed to a lar^ inland sea, having its temperature raised considerably higher by the influence proves, tfiat a^the cmnmencemei^of^he ^ ^ TT than " ^ Ca*e with the Ni^> and a^ -ore clear" effect at the noint V * f 1 befor^ the tnl>ntaries which join it previously to its reaching Timbuctoo have taken dence to the contraw’ ZT U? ,.re bf remarkably favourable to such an hypothesis. Indeed, in the absei trade on the Shary is’smalle^than0i'f woIThUmlfthmk ^ regard t0 Mr Laird’s third reason, that the know more of the countries L tn V bTe lf . l communicated with Lake Tshad, nothing satisfactory can be advanced until we ! denis, and that an exteSe commerce and Jt WaS^nformed that tbe Tsbadda ^ Shary flowed through large and fruitful king- to make either for or aaainst its erit t navigation were carried on by means of it. We can see nothing in its mere trade lous country ; and this is certdnly the ca^ ^ a S 5 ProvidinS 11 be ^vigable to a great distance into the interior of a popu- 222 NIGER. its width, as usual, varies from two to five or six miles. Opposite to Bocqua, a considerable town situated below the junction of the Tshadda, is the common path to the city of Fundah; and here both banks of the river continue hilly and well wooded, and are thickly studded with towns and villages. Of this town Mr Laird observes, “ Bocqua, or Hickory, as the natives call it, is the centre of this trade (in slaves, cloth, and ivory), and a fair of three days’ dura¬ tion is held there every ten days, attended by Eboe, and Attah, and even Bonny traders from the south, and those from Egga, Outturn* Curaffe, and Fundah on the north ("north-east ?], besides great numbers from the interior country on both banks of the river. The traders from the upper country bring cloths of native manufacture, beads, ivory, rice, straw-hats, and slaves, all of which they sell for cowries, and buy European goods, chiefly Portuguese and Spanish. About twenty-five large canoes passed us every ten days, on their way to this market, each containing from forty to sixty people. The trade is carried on by money, not by barter; cowries are the circulating medium, and their sterling value on an average may be taken at one shilling per thousand.” Still farther down is the town o Attab or Iddoh, picturesquely situated on a hill overhang¬ ing the river, in some places with cliffs 300 feet in neight. Standing above the alluvial soil at the entrance of the val¬ ley of the Quorra, and thus removed from damp, it is heal¬ thy, and, according to Mr Laird, commands at present the whole trade of the interior. The same traveller informs us, that above this town the river forces its way through a chain of mountains which he calls Kong, being in all like¬ lihood a part of the range already mentioned as traversing this part of Africa. They seemed to be of nearly equa height, apparently from 2500 to 3000 feet above the level of the river, and had all flat summits. They are proba¬ bly composed of sandstone resting upon granite, of which latter rock large masses were found in the vicinity of the river. About forty-five miles below the junction of the Tshadda with the Quorra, and on the left bank of the lat¬ ter river, stands the town of Abbazacca; and still farther down Damuggoo, at which place Lander found that the Quorra fell two feet in as many days, yet still overflowed the town. European goods here made their appearance in considerable abundance, consisting of powder, muskets, soap, Manchester cottons, and other manufactures, toge¬ ther with large quantities of diluted rum, in all which articles the natives trade to Bocqua, where they receive in exchange ivory and slaves, which, again, are sold to European traders. Some ten or fifteen miles below Da¬ muggoo a stream flows in from the eastward; but this, Lander thinks, is a branch previously separated from the main stream, and on his map it is made to enclose the large towns of Abbazacca and Damuggoo, together with a num¬ ber of villages. At the reunion of this stream with the Quorra stands Kirree, a large market-town, at which place the great delta of the Quorra may be said to commence, extending south-westerly to the mouth of the river Benin, and south-south-east to that of Old Calabar. At Kirree a great branch was seen to go off to Benin ; but it is not till the traveller reaches Eboe, a large town seventy miles far¬ ther down the river, that it begins to separate into those numerous channels which intersect the country in every direction, and enter the Atlantic by so many estuaries. At a little distance above Eboe a large branch runs to the westward, terminating also, it is said, at Benin, but more probably in one of the numerous rivers to the south-south¬ east of that estuary. Another large branch goes off' at the same place, flowing to the south-east, apparently towards Old Calabar and the Rio del Rey, two large estuaries. At the point where these two arms of the Quorra strike off, the river spreads out into a vast lake, which is said Niger, to receive a number of small rivers. ^ J In sailing down from Kirree to Eboe, the Landers found a complete change from the beautiful and smiling aspect which nature had presented on the upper banks of the stream. The country became almost throughout an alluvial swamp, covered with vast entangled forests, which con¬ cealed the villages. Grain and cattle had disappeared from the fields, and the sole subsistence of the inhabitants was derived from the produce of the trees, from roots, the ba¬ nana, the plantain, the yam, and from the fish, caught in the river. The Quorra abounds in fish, and the inhabitants of the banks are expert and persevering fishermen. They make immense nets ot grass, which they use as seines with great dexterity. The palm-tree, also, is not only an ex¬ tensive article of trade, but affords a refreshing juice. Eboe is situated on the side of a creek running parallel with the Quorra, and in the flooded season communicating with it at both extremities. It may contain about six thousand inha¬ bitants, who are the most enterprising and industrious trad¬ ers on the river. The town itself, with the immediate vi. cinity, is unhealthy, owing to the swampy nature of the ground. The staple trade of Eboe consists of slaves and palm-oil, the latter being produced in immense quantities; and yet so plentiful are the trees which yield it, that, Mr Laird says, not the twentieth part of the natural produce is collected. But as long as the slave-trade exists, it is vain to look for the development of industry and com- merce in these countries. Is it likely that the natives will explore the palm forests whilst the atrocious practice of kidnapping them on every convenient occasion is carried on by Europeans and Americans? Industry, however, would soon follow security, and the trade in palm-oil might be rendered exceedingly valuable to Europe. Be¬ low Eboe, the branches thrown off by the Quorra on both sides are large and numerous, and that which forms the Bonny may perhaps claim to be considered as the main stream. The Brass River, however, flowing in a direction nearly south-west from Eboe, and entering the Atlantic at Cape Formosa, was that by which the Landers reached the sea. The next points to be considered are, the extent of the Quorra, its tributaries, and the size and character of its delta. “ If we measure two distances,” says an able writer on this subject,1 “ one from the source to Timbuctoo, and the other from that city to the sea, we shall have nearly 2000 miles, which may be considered as the direct course; and the various windings must raise the whole line of the stream to upwards of 3000 miles. For several hundred miles of its lower course it forms a broad and magnificent expanse, resembling an inland sea. The Niger must, after all, yield very considerably to the Missouri and Orellana, those stupendous rivers of the new world; but it appears as great as any of those which water the old continents. There can rank with it only the Nile and the Yang-tse- kiang, or Great River of China. But the upper course of neither is yet very fully ascertained; and the Nile can compete only in length of course, not in the magnitude ot its stream, or the fertility of the regions which it waters. There is one feature in which the Niger may defy compe¬ tition with any river, either of the old or new world. Ibis is in the grandeur of its delta. Along the whole coast, ffoni the river of Formosa or Benin, to that of Old Calabar, about three hundred miles in length, there open into the Atlan¬ tic its successive estuaries, which navigators have scarce y been able to number. Taking this coast as the base of the triangle or delta, and its vertex at Kirree, about a hundre and seventy miles inland, where the Formosa branch sepa¬ rates, we have a space of upwards of 25,000 square mne>> 1 Edinburgh Review, No. cx. p. 415. N I G I. equal to the half of England. Had this delta, like that of the "’■''Nile, been subject only to temporary inundations, leaving behind a layer of fertilizing slime, it would have formedathe most fruitful region on the earth, and might have been al¬ most the granary of a continent. But unfortunately the Niger rolls down its waters in such excessive abundance, as to convert the whole into a huge and dreary swamp, covered with dense forests of mangrove and other trees of spread¬ ing and luxuriant foliage. The equatorial sun, with its fiercest rays, cannot penetrate these dark recesses ; it only exhales from them pestilential vapours, which render this coast the theatre of more fatal epidemic diseases than any other, even of Western Africa. That human industry will one day level these forests, drain these swamps, and cover this soil with luxuriant harvests, we may confidently anti¬ cipate ; but many ages must probably elapse before man, in Africa, can achieve such a victory over nature.” These broad estuaries of the Quorra communicate with each other by creeks, and, frequently overflowing their banks, render the shore a vast alluvial wooded morass for more than twenty miles inland. The natives, having thus far extended water communications, are the most active traders anywhere in Africa; but, excepting slaves, the commodities in which they deal are now entirely changed. Gold has given place to ivory, which is collected in considerable quantities; but palm-oil is the great staple of the eastern districts. A vast quantity of salt is made at the mouths of the rivers, both for consumption at the spot and in the interior. The first leading feature is the river Formosa, which is two miles wide at its mouth; and on a creek tributary to it stands the capital of Benin. The surrounding territory is well cultivated, although not so completely cleared of wood as it might be. Jatto, about fifty miles below, is the port of Benin, and is accessible to vessels of sixty tons. The trade on this river has great¬ ly declined from what it once was. Warre or Owarri is another state and city, situated on another creek, commu¬ nicating with the Formosa on its opposite side. It con¬ sists of a somewhat elevated and beautiful island, sur¬ rounded by vast woods and swamps. After doubling Cape Formosa, and passing several estuaries, we come to that of the Brass River, called by the Portuguese the river of Nun. Ibis, though not the largest estuary of the Quorra, is most directly in the line of the main stream, and be¬ ing that by which Lander entered the Atlantic, it at pre¬ sent enjoys the reputation of being the principal channel. It is divided into two branches ; but the navigation is great¬ ly impeded, and the trade limited by a dangerous bar at its mouth. Brass Town is not built on either of the great branches, but on one of the numerous creeks connected with both, and in a country overgrown with impenetrable thickets of mangrove. It is a poor place, divided by a la¬ goon into two parts, each of which contains about a thou¬ sand inhabitants. Bonny River forms the next important estuary, having on its opposite sides the towns of Bonny and New Calabar, which, being only a few miles up, are si¬ tuated in the midst of the morassses which overspread all t is country. I he people support themselves by the manu- acture of salt, and they likewise trade in slaves and palm- m" u- east:vvard of Bonny is the estuary of Old Ca- a ar River, the broadest of all, and navigable for large vessels sixty miles up to Ephraim Town, which is govern- o y a chief who assumes the title of duke. It carries on a considerable trade, and contains about four thousand in- natntants. To this river succeeds that of Rio del Rey, and en t ie Rio Cameroons. The country yields a good deal o I'ory and palm-oil. rIhe continuity of the vast wooded a w ich extends along the coast for more than two hun- re rni es is now broken by some very lofty mountains, 13 000 fClpa °P suPPosed to reach the height of N I G 223 We have seen that, besides its own ample stream, the Quorra has a number of tributaries. Not far above the point where the delta commences, the Tshadda enters, being nearly equal in magnitude to the Quorra itself. A little higher up the Coodonia enters ; it is a smaller river, but still of great importance in a commercial point of view, as Lander had seen it flowing through a very fertile and highly cultivated country. Considerably higher up is the Cubbie, a large stream from the country and city of that name ; and higher up still is the Quarrama, which passes by Zirmie and Saccatoo. Between this point and Fimbuctoo we are ignorant of how many or what streams join the Quorra, nor is the tributary which passes that city of any great importance. But, at the eastern boundary of Bambarra, Mr Park describes the influx from the south of two great streams, the Maniand and Nimma; and it seems very doubtful if De Caille was not mistaken in sup¬ posing the latter to be a mere branch of the Quorra. The higher tributaries descending from the mountains swell the stream, without themselves affording any important navigation. An interesting question, and one which has occupied a considerable degree of attention, here presents itself, name¬ ly, what prospect does this great interior communication open to British commerce? Our intercourse with this part of Africa has hitherto been almost exclusively with thecoast, which is comparatively unproductive, whilst its inhabitants are idle and miserable. Inland, however, we find the people improve, and the country become fertile to luxuriance, and gradually more healthy. The territories rendered acces¬ sible by the Quorra and its tributaries are undoubtedly the most productive and industrious in all Africa; and their population, notwithstanding the difficulty of forming any precise estimate, can scarcely be rated at less than about twenty-five millions. Considerable results might reasonably be anticipated, from British enterprise having found access to such a region. But there are two great drawbacks to active intercourse with the interior of Africa; the insalubri¬ ty of the climate, and the inhuman traffic in slaves, which last is a thousand times more destructive to trade than all the forms which disease ever assumed. If this were re¬ moved and the cdnfidence of the natives restored, our com¬ merce with Africa by means of the Quorra might be great¬ ly increased. In the mean time, the late failure of Mac- gregor Laird and Oldfield will probably for a time damp the ardour of enterprise, and our commercial relations with this quarter of Africa may remain, for years to come, on nearly the same footing as before. (r. r. r.) NIGH I, that part of the natural day during which the sun is underneath the horizon ; or that time when it is dark or dusky. Night was originally divided by the Hebrews and other eastern nations into three parts or watches. But the Romans, and after them the Jews, divided the night into four parts or watches ; the first of which began at sun¬ set, and lasted till nine at night, according to our way of reckoning ; the second lasted till midnight; the third ex¬ tended to three in the morning; and the fourth ended at sunrise, dhe ancient Gauls and Germans divided their time, not by days, but by nights ; the Anglo-Saxons follow¬ ed the same method of reckoning; and the people of Ice¬ land and the Arabs do the same at this day. The length and shortness of the night or of darkness is according to the season of the year and position of the place ; and the causes of this variation are now well known. See Astro¬ nomy. Night-Watching, a practice of very remote antiquity, and which belongs to the oldest regulations of police. As earJy f the time of Solomon we find mention made of it, and likewise in the Psalms of David. Sentinels were sta¬ tioned in different places in Athens and in other cities of Greece, and they were kept to their duty by the visita- Night. 224 N I G N I L Nigidius tions of the thesmotheta. There were also triumviri noc- Figulus. lumi in the city of Rome, as we learn from the commen- - Varies of Henback on the police of the Romans. It ap¬ pears, however, that the design of these institutions was rather the prevention of fires than the guarding against alarms or dangers by night, although in process of time at¬ tention was likewise paid to these objects. The apprehen¬ sion of fires was the pretext of Augustus, when he wished to strengthen the night-watch for suppressing nocturnal commotions. , It does not appear that the practice of calling out the hours became established before the erection of city gates. It most probably had its rise in Germany ; yet it would have been attended with advantage in ancient Rome, where there were no public clocks, nor any thing in private houses to indicate the hours. The various periods for sol¬ diers to mount guard were determined by water-clocks; at the end of each hour they blew a horn, and by means of this signal every individual was apprised of the hour ot the night. It seems evident, however, that these regula¬ tions were only attended to in time of war. In the city of Paris, as at Rome, night-watching was established at the very commencement of the French mo¬ narchy; and De Lamare quotes the ordinances of Uothaire II. upon this subject, in the year 595. The citizens at first kept watch in rotation ; but this practice was afterwards set aside, and, by the payment of a certain sum of money, a permanent watch was established. In the opinion of the learned and indefatigable Beckmann, the establishment ot single watchmen, to call out the hours through the streets, was peculiar to Germany, and has only been copied by surrounding nations in more modern times. L he elector John George, in 1588, appointed watchmen in Berlin ; and Mabillon describes it as a practice peculiar to that country. Horns were made use of by watchmen in some places, and rattles in others ; the former being most proper for villages, and the latter for cities. , , „ , The Chinese, as early as the ninth century, had watch¬ men posted upon their towers, who announced the hours both by day and by night, striking forcibly on a suspended board, which in that country is said to be in use to the present period; and at St Petersburg the watchmen em¬ ploy a suspended plate of iron for a similar purpose. In this manner also Christians are assembled together in the Levant, for the purpose of attending divine service ; and at an early period monks were thus awakened in monas¬ teries to attend to the proper hours of prayer. We find mention made of steeple-watchmen in Germany in the fourteenth century. In the year lo63, a church- steeple was erected in Leisnig, and an apartment built in it for a permanent watchman, who was obliged to proclaim the hours every time the clock struck. In the fifteenth century permanent watchmen were kept in many of the steeples at Ulm. The same thing was practised at hrank- fort on the Mayne, at Oettingen, and in many other places ; and Montaigne records his astonishment at finding a man on the steeple of Constance, who kept watch upon it con¬ tinually, and who upon no pretext whatever was permitted to descend. NIGIDIUS FIGULUS, Publius, one of the most learned men of ancient Rome, who flourished at the same time with Cicero. He wrote on various subjects, but his pieces appeared so refined and difficult that they were not regarded. He assisted Cicero, with great prudence, in defeating Catiline’s conspiracy, and did him many services in the time of his adversity. He adhered to Pompey in opposition to Caesar, which occasioned his exile ; and he died in banishment. Cicero, who had always entertained the highest esteem for him, wrote to him a beautiful con¬ solatory letter, the thirteenth of the fourth book of his Epistolce ad Familiares. NIGRITIA, Negroland, or Soudan, a general name Nigrit h for a considerable portion of the interior of Africa, some li parts of which are as yet unknown, wink some have been^ only recently explored by Clapperton, De Caille, Lander, and others. It comprises a great number of kingdoms, large and small, each of which will be found described un- dei- its own head. It appears to include a 1 those countries which are situated between the sixth and seventeent i de¬ grees of north latitude, and the eighth degree of west and fhirty-second degree of east longitude 1 hey are represent¬ ed in maps as stretching along both sides of the Niger, and cluster around the great Lake 1 §Fad or Sh£ry- ^ h to the east, in the neighbourhood of the Bahr-el-Abiad or White River, one of the great branches ot the Nile, is the country of the Shilluks, comprising Donga, Kordofan, Dar¬ fur, and Bergoo. The other chief states are Bambarra, Timbuctoo, and Kong, on the west; and Houssa, Burgou, Yarriba, Nouffe or Nyffe, Fundah, Bornou, Mandara, Be- gharmi, Kanem, and others, in the centre. These, al¬ though widely scattered, will, if taken as a whole, be found to be bounded on the north by the Sahara, on the east by Nubia, on the south by the Mountains of the Moon and Lower Guinea, and on the west by Senegambia. As thus defined, Nigritia is about 2500 miles from west to east, 50C from north to south, and has a superficial area of 1,250,000 square miles. A considerable portion of this territory is tra¬ versed by the Niger. In the centre is Lake I shad, into which some large rivers empty themselves. For an ac¬ count of this vast inland sea, and the surrounding coun- try, the reader is referred to the article Bornou. There are several high ranges of mountains, such as those of Kong and Donga ; some of the summits of the Mountains of the Moon are covered with perpetual snow. Hie nature ot the climate, the productions and other particulars regarding this portion of Africa, will be found described in the article NIJIBABAD, or Nijibgur, a town of Hindustan, in the province of Bareilly. It was built by a Rohilla chieftain, as a mart for the Cashmere trade, and is situated on the north branch of a small river which runs into the Ganges. Long. 78. 41. E. Lat. 29. 35. N. NIKOLAJEW. See Nicolaiev. N1KOLSK, a circle in the Russian province ot Wologda, extending from east longitude 43. 45. to 47.59., and from north latitude 58. 10. to 60. 25., being 13,lo6 square miles in extent. It is an elevated district, sloping both to the north and the south, and is the source of severa rivers running in both directions. It is moderately productive, affording corn in average years sufficient for its scanty popu¬ lation, which does not exceed 65,000 persons. Nearly one half of the surface is covered with wood. The capital, of the same name, stands on the river Jug, and depends on the river navigation. Long. 45. 30. E. Lat. • • • NIKOLSKOI, a small town of Asiatic Russia, m the government of Oufa, on the Oural. It is eighty miles east- south-east of Orenburg. . r NILCUND, a town of Northern Hindustan, and one os the celebrated places of Hindu pilgrimage, situated among the Himalaya Mountains, on the frontiers of Ihibet. me cold at this place is intense; and at the end of June o beginning of August, when it is chiefly visited, the road b nearly impassable on account of the depth of snow. Ava¬ lanches are common on the road, and glaciers are seen various parts. In the vicinity of this place there is a co¬ lossal statue of Gunneis; but the temple is dedicated to Mahadeva, one of whose numerous names is JNilcuna, Blue Throat. Long. 88. 50. E. Lat. 27. 51. N. NILCUND AH, a town of Hindustan, in the Prov'n , of Hyderabad, forty-two miles south-east from Hydera a > and the capital of a district of the same name. Long. 15. E. Lat. 16. 55. N. NILE, 225 NILE, a large and celebrated river of Africa, which flows through Nubia and Egypt. A general account of this celebrated stream has already been given in the ar¬ ticle Egypt, and more particularly of its course below As¬ souan, where it enters the long valley of Egypt; but im¬ portant information having been obtained from recent travellers, especially regarding the upper courses of its two main forks, the Bahr-el-Abiad or White River, and the Bahr-el-Azrek or Blue River, it is necessary to give here some account of each of these branches. The knowledge which the ancients possessed of the river Nile was much more perfect than that which they had ac¬ quired of the river Niger. Eratosthenes, the librarian of Alexandria, who flourished about 220 years before Christ, had a knowledge of the entire course of the river more correct than has been attained by moderns until a recent date and if his remarks be compared with those of Ar- temidorus, Strabo, and Ptolemy, it will be found that little information was ever added to that of Eratosthenes, regard¬ ing either the Nile or its branches, which form the great peninsula of Meroe. Eratosthenes distinguishes three great branches of the Nile ; the first or most easterly being the Atbara or Tacazze ; the second the Astapus or Bahr- el-Azrek ; and the third the Nile proper, to which the two former are tributaries, namely, the Bahr-el-Abiad. He places lakes at the head of the Blue and White Rivers, and in so doing is followed by Ptolemy, who assigns an enor¬ mous extension southwards to the Blue River. In con¬ sidering the White River the real Nile, he agrees with Herodotus, inasmuch as the historian states that the Nile came from the westward, and that the Automoli were at a distance above Meroe equal to that of Meroe above Elephantine; thus placing the Automoli on the White Nile, in the country now inhabited by the Denka. Under the Ptolemies the Greeks exploded the vulgar error which prevailed in the time of Herodotus, of supposing that the rivers of Western Africa flowed to the Nile. The opinion that lakes were situated at the sources of the two main branches of this great river having been found correct with regard to the Blue Nile, there is some reason for presum- ing that the Nile proper may have a similar origin ; “ and if,’ as Colonel Leake says, “ we suppose Ptolemy to-have placed the two lakes of the Nilus, or White River, twelve degiees to the south of their real position, as he is proved to have placed the Lake Coloe at the source of his Astapus, or the Abyssinian branch, it will follow that the lakes of the , e Biver are about the latitude of five degrees north.” fhis, of course, is merely conjectural; nor is it very philo¬ sophical to determine the latitude in which a river rises on the ground of a presumed error. 11 ^ur jnf°rrnation regarding this great and unsolved pro¬ blem of African geography, viz. the source of the Bahr-el- Abiad, is derived from three modern authorities, Browne, Linant, and Ibrahim Kashef, who headed a party sent out by the viceroy of Egypt in order to capture slaves in the distant regions of Soudan. Browne, it is well known, pe¬ netrated some degrees to the south of Darfur ; and his in¬ quiries went to prove that the sources of the river were situated about latitude seven degrees nortu and longitude twenty-seven degrees east, not in lakes, but in °many streams flowing from the Gibel-el-Kumri, or Mountains of the Moon. It may be remarked, that this is precisely the name given by Ptolemy to the mountains at the source of the Nile ; and Denham also found it attached to a part of the same great range farther to the westward. Linant, who travelled for the African Association in 1827, sur¬ veyed the course of the White Nile from the confluence of the Blue River to Aleis, a direct distance of 132 geo¬ graphical miles. But the most recent information is that of Ibrahim Kashef, who set out from Khartum, at the fork of the two great branches. This expedition, divided into two parties, marched for thirty-five days along both banks of the river. On the twelfth day they reached the first island of the Shilluks, traversed the territory of that people for fifteen days, and on the twenty-ninth day entered that of the Denka, from which they returned at the end of six days. The river was then shallow, and full of islands, six hours in breadth, and there were no mountains to be seen. “ The latter part of the march,” says Colonel Leake, “ appears, from the description of Ibrahim, to have been in a direction nearly west; so that if the first island of the Shilluks, which they reached on the twelfth day, was not far from Aleis, as Linant’s journal gives rea¬ son to believe, the extreme point obtained by them was about twenty-nine degrees east longitude, and ten degrees north latitude. The result of the last expedition agrees with that of Browne’s, inasmuch as it gives an easterly course to that part of the river which lies to the south of Darfur, and as it makes the sources of the river to fall to the south-westward of that kingdom, not farther northward than seven degrees north. It supports the opinion also that Browne’s Donga is no other than the country of the Denka; that both the sources and mountains are more dis¬ tant than Browne’s information supposed ; and still leaves the possibility, therefore, that Ptolemy was right in de¬ scribing the river as originating in lakes. In fact, the enormous breadth attributed to the river by the Turkish slaving party, although it may be an exaggeration, and is certainly not to be reckoned by the usual allowance of the itinerary hour, leaves little doubt that the river, at the extreme point of their journey, was much broader than at its junction with the Blue Nile ; and indicates, therefore, that its conformation is of an extraordinary kind, its origin being perhaps in a lake or lakes, which may be supplied Nile. south weSernhhemt nf n Colonel Leake> was well informed on the course of the Nile above Egypt, and particularly as to the great Eratosthenes ,Do"gola’ iv.hich ^as scarcely known to the moderns before the journey of Burckhardt into Nubia. It was from dor us of lnhrsustlSra?°fide(ri,Te( iUS in/«rmatlon on the peninsula of Meroe, and it was probably from the same source that Artemi- firmed oSoriT rS °f ^eroLi vvas fifteen da*s distant frora the sea- Eratosthenes described the island of Meroe aS tasobas while the n?68 16 Nl 6’ name,d ^staboras’ now Atbara> and Astapus; but added, that the latter was sometimes called As- an-rees with Ptlu ® Astapus was applied to another river rising in certain lakes to the south, meaning the White Kiver. This proper Nile that T/t inasm.l!ch AafMh.e cl^ly attaches the name Astapus to the Blue or Abyssinian Nile,' and derives the Nilus, or Pliny followed tU J t7’ ^ ^ kkeS Sltuated far t0 the south- On the other htnd, Artemidorus, Strabo, and the Blue RRet The lau/r nf alluded to by Eratosthenes, who gave the name Astapus to the White Nile, and that of Astasobas to bank of the Bahr d AzS or Bb^'u ^ hj^°5 kte tl!'avellers ’ from whom we Barn, that on the right same a-e as those of J ^lver’a llttle abov! the fuork at Kharutum’ there are some ruins called Soba, apparently of The composition of this and the twJnfp06 would m that Astasobas meant the river of Soba, and that the Ast, which enters into the by the Effvntiar rrJiw 1 a? ^ nameS ot the nTers 0l Meroe> implies rtver, having probably been introduced into that country mon, andSShaDsGaBoktbrmn^aCevnif’.WhereAWefind US !iemenls’ doubtless ^ith the same lml)ort’ in the names Astneus, Stry- probablv of the ?fVer IIth mode!:n Vistntza. Astapus, in tact, was the name of a Macedonian city (now called Istib), and not im- that of Astapus may still hC ! ? VT",13 situat1ed- When lbe Eluue Nile had generally assumed the appellation of Astasobas, come attached also L. e W m theuUIllt(rd ?tream as tar as the junction of the Astaboras, and may at length have be- fbrmed of two nearly eoual e™ the\fork’^ a Process whl,cb has otten changed the names of rivers, especially when I of the time of Strabo ” C ** > .. ‘^ie ^camander or Iroy is a remarkable instance. The Simoeis of Homer was the Scamander trabo. (Journal of the Geographical Society.) VOL* XVI, 2 F LI 226 NILE. Nile. by streams flowing from a distant range of mountains. The 'existence of lakes having a communication with the nver only in time of high water is rendered highly probable by a passage in the journal of M. Linant, which states, that at the time of the inundation of the White River an incredible quantity of fish is brought down towards Khartum by the current.”1 This is all the knowledge we possess regarding the source of the Nile proper, which, in spite ot Bruce, st i remains the same problem as it has ever been. e^al. ing the Egyptian expedition, Colonel Leake observes, As a want of success alone caused the return of the Turkish slaving party, the natives constantly eluding their pursuit, it seems evident, that if geographical discovery, msiead man-stealing, had been their object, they nug a' plored the river much farther ; and that it ralShtc0^ quently be in the power of the viceroy of Egypt to arrive at the ’mysterious sources, or to escort an Luropea sion thither, if a motive sufficiently powerful shoa d * prompt him to assist in the attempt. In the mean time, a route by water, in the direction of the sources ot t White Nile, is now afforded from the westward by mean of the newly-discovered branch of the Quorra, called Shary, or Shadda, or Tshadda, which, being one mile and a halt at its junction with the Quorra, is probably navigable tor a Seit distance above the confluence.- There are great doubts, however, of the river Shary ever aiding in dis¬ covery of the sources of the Nile, inasmuch as it probably has its origin in Lake Tshad, which is situated at least ten degrees west-north-west from the reputed sources of th great stream. Nor are our hopes that the problem w 11 speedilv be resolved at all raised by the Egyptian expedi¬ tion ; tor the proceedings of the viceroy in hunting or slaves on the banks of the river has so exasperated the na¬ tives against the whites, that they will allow no opportu¬ nity of making reprisals upon them to escape, ^uch a least is the opinion of Mr Hoskins. “ The source ot the Nile could only,” he thinks, “ be discovered by an arm¬ ed force; and even that method would present great dit- ficulties. It would require a large army to subdue the grea extent of country through which the Bahr-el-Abiad proba¬ bly passes. Not only the chiefs, but the whole population, instead of any of them joining the standard of the invader, or furnishing him with provisions, would resolutely oppose him. Each man would fight with desperation for the Pre' servation of his property, family, and liberty. J Resides, they thirst for vengeance on all Mahommedans and white men, and the circumstance of their being trench or Eng¬ lish would not avail. “ They distinguish but two races, Pagan and Mahommedan, and two colours, black and white, their friends and enemies.” . The voyage of M.Linant along the Bahr-el-Abiad having thrown considerable light on its character near to the point of junction, we shall present a brief analysis of his journal. From the mean of this traveller’s astronomical ob¬ servations, a small island placed just at the junction of the Bahr-el-Abiad with the Blue River is situated in latitude 15. 34. north, and longitude 32. 30. 58. east from Green¬ wich. On ascending the river, it was found in many places a mile and a half in width, and even then was far with- in its regular banks, which sometimes seemed about tour miles apart, and were distinctly marked beyond a wide sandy beach destitute of any appearance of verdure. Even this is not the extreme breadth when the river is at its great¬ est height, as it then overflows the adjoining country to a considerable extent, especially to the westward, the eastern bank being the higher, although on both sides the general aspect of the country is flat. The farther banks are cover¬ ed on the eastern side with wood of stunted grow th, rooted chiefly in the sand ; on the western side it is of larger size, Lowing on a better soil. The borders of the river were crowded with water game, such as wild geese, pelicans, swans, and the like. On being repeatedly sounded the depth was always found to be from three to tour fathoms. Farther up, the river was found to be somewhat nar¬ rower, the eastern shore to be lower, and both banks very richly wooded, with fine verdure clothing it clo5e to the water’s ed^e. Fish were taken in abundance by the na¬ tives, and ^hippopotamuses and crocodiles swarmed every¬ where. Numerous islands were passed at intervals, some of them beautiful spots covered with tall trees of a splen¬ did ureen, and thickly set with herbaceous plants. Mul¬ titudes of birds were found upon them ; and Irom the trunks of trees bee-hives were easily procured. The bhil- luks came from a distance for the sole purpose of ob¬ taining this honey, and chasing the hippopotamuses. Aleis was the highest point attained by M. Linant; and the fol¬ lowing are the conclusions which he draws from the voy- acre • “ The Bahr-el-Abiad is undoubtedly the principal of the two rivers which form by their junction the Nile of Eevnt. It discharges a greater volume of water than the Bahr-el-Azrek ; and although somewhat narrower imme¬ diately at the confluence than it is higher up, it is, e\en in this respect, equal to the Blue River. The colour c its waters is also that which characterises the conjunc stream in the dry season, the Bahr-el-Azrek being tlieu of a greenish hue, while the Bahr-el-Abiad is always white, and as it were soapy, even during the inundations, when the Bahr-el-Azrek becomes reddish, from the nature of the detritus brought down by the Bahr-Toumat, which falls into it in the province of Fasuolo. And the Bahr-Mo- gren, or northernmost branch of the Nile, also brings down at this time a quantity of black earth, which influences the general colour.”....44 I have been unable, he continues, “ to obtain any precise information as to the origin of ffie Bahr-Abiad, none but the Arabs called Corouns and the Silt, f: canr-Auiau, uuut * • TJ Wed Abrof pretending to know any thing of it. iiassan, the sheikh of Fasuolo, a well-informed man for his coun- tlie sneixn oi Actauuiu, » ...... . try, and who has travelled a great deal in the adjacent districts, gave me, however, some particulars, which m- duce me to believe that it cannot rise m a lower latitude than Fasuolo.4 For the merchants who go directly west from that province into the country of the Negroes, ind those who traverse the countries south of Darfur and Kor- dofan, along nearly the same road, and m the same paraf lei of latitude, as the Coroun Arabs, the Bagarras, the Wed Abrof, &c. all agree in saying that they pass no river west of Fasuolo, excepting the Toumat, and some sligtit streams which are nearly dry in the summer season; and that during the same season they have no water in their encampments along the skirts of the Ethiopian chain, which extends east and west a great distance, except wbatthey find in the beds of torrents or among the rocks. \ i asked them, also, why they did not rather follow thebanks of the Bahr-Abiad, they always answered me that it pa- ed a long way north of them ; and that, beyond the bhd- luks, it came directly from the west quarter. , “ It is certain that, in the country of the there are other rivers which come from the west; and tn following is a list of them in the order in which thev^ met in ascending the stream. First, the iVid-e/-xJ, Feast of the Nile, which passes close under the moun^ tain called Guebel Dahir, or Mountain of the Round, » 2 Ibid. 1 less so the resuit of tke oral 4 The journey of Ibrahim Kashef, already mentioned is adverse to tins opinion, tion obtained from Mehemet Bey, by M. Ruppel, in Kordofan. NILE. 227 Nl called because it is ascended spirally. It is covered with negro villages, is situated in the country of the Tagal- la, and the river which passes to the south of it is said to flow from a great lake, to which I heard several names given, none of which I shall therefore recite. Several other rivers are reported to fall into it, the first called the Bahr- Soudan,1 the second the Suar, the third the Hor-el-Karna, the fourth the Serat, and the fifth the Hor-el-Nahal, be¬ sides some others. “ The Sheikh Hassan of Fasuolo also told me, that south of the Shilluks the Bahr-Abiad is lost in some extensive lakes, which stretch away to the westward, and commu¬ nicate with each other during the inundations, the inter¬ vening country being flat and marshy. And the remarks which I made on the stream agree well with this state¬ ment, neither gravel nor sand indicative of its being fed by torrents being found in it, and its shoals being all clay, proving that it does not come from mountains, but from a country of the same nature ; or, at least, that if it does ori¬ ginate in mountains, it has a long subsequent course over a country of an opposite kind ; whence its source cannot possibly be in the Mountains of the Moon, or, at least, in the place where they are marked in our maps. Besides all which, another remarkable fact seems to me to prove in¬ dubitably that it comes from a system of lakes; namely, the prodigious quantity of fish w'hich arrive with the freshes at their first appearance ; for these fish can only come from lakes, where they remain imprisoned when the waters are low, and escape when the inundation takes place.” At the point of its junction wdth the Bahr-el-Azrek the Bahr-el-Abiad is about eighteen hundred feet across ; but, as we have already observed, it enlarges much a little above, its banks being frequently three or four miles apart, and in some places during the inundations the waters ex¬ tend twenty-one miles from side to side. “ It is said that they are specifically lighter,” says M. Linant, “and more wholesome for use, than those of the Azrek ; it is certain, at least, that the banks of the Abiad are much the more healthy.” The cause of the comparative heaviness of the waters of the Azrek here mentioned, is no doubt to be at¬ tributed to the presence of earthy matters held in sus¬ pension by the w aters, being part of the “ detritus brought down by the Toumat,” as described by M. Linant. But the statement regarding the superior salubrity "of the wa¬ ters of the Abiad is quite at variance with that of Mr Hos¬ kins. “ I have been assured by several Arab merchants, and also Turks,” says he, “ that the water of the river is less sweet than that of the Azrek, that the caravans sta¬ tioned on what they call the island, between the two rivers, universally prefer the water of the latter. The Egyptians, therefore, are indebted to the Azrek for the singular sweetness of the waters of the Nile.’2 Mr Hoskins con¬ tinues : “ The Arabs’ invariable description of the Bahr- el-Abiad is, that it has waves like the Red Sea, but the current is not powerful like that of the Blue River; that a boat would sail rapidly up, on account of the prevailing northerly winds, but it would be more difficult to descend. It is not improbable that the reason of the superior rapi¬ dity of the Blue River is its proximity to its source in the mountains, whilst the Bahr-el-Abiad may pass through im¬ mense districts, where the surface is more level and uni- orm. 3 The shores of the Abiad are in general very at, especially on the western side; and the water is only eep towards the middle of the stream. On the western side the bank is composed a of deposit from the river, Nile, without any sand; but, on the opposite side, it is entirely of a yellow ish sand, not brought down by the river, but by the south-east winds during the winter; and this being stopped by the river, forms hillocks, which give this side a greater elevation, and the descent from it to the water a greater declivity than on the opposite shore. Hence, also, the water on this side is a little deeper. The rise of the Bahr-el-Abiad is not perceptible till some time after that of the Bahr-el-Azrek. Below the junction the general as¬ pect of the Nile has much more of the character of the Bahr-el-Azrek than that of the Bahr-el-Abiad, excepting in the colour of its waters during the dry season. In every respect it resembles the former as to the nature of its banks and adjoining scenery, its width, sinuous course, sand-banks, and the want of large shells, such as are only to be found on the shores of the Bahr-el-Abiad. Below, also, as well as along the banks of the Bahr-el-Azrek, there are compa¬ ratively few aquatic birds, whilst near the Bahr-el-Abiad they are innumerable. Lord Prudhoe thus compares the two rivers: “ The banks of this river (the Bahr-el-Abiad) are low' and flat, presenting a succession of grass lawn, and fine trees of the harrez (accacia). No scenery can be more unlike the Nile, whilst the Bahr-el-Azrek is its fac¬ simile ; the same high banks forming steppes from the an¬ nual inundations, bare of trees, but eminently fertile from the rich deposit of the river; whilst the Bahr-el-Abiad, stretching into wide lakes during the inundation, leaves the soil so sterile, that neither corn nor other crops, not even doorrah, can be grown when the waters subside ; in lieu springs up grass, a production nearly unknown in Egypt. Here we saw a bird like the ibis, never seen on the Nile; it was black and white, with a curved beak, as represented in Egyptian sculpture. Many of the picus species were also flying about, with feathers of blue and red. The fish, too, of the Bahr-el-Abiad are peculiar to that river, and are not found in the Nile.”4 Such is a summary of the facts ascertained regarding the main branch or artery of the Nile. The Bahr-el-Azrek, the other branch, flowing from the south-east, rises in Abyssinia, and joins the Bahr-el-Abiad under the parallel before specified. The province of Go- jam, in which it rises, is very mountainous; and numerous streams which have their origin in this chain flow first eastward and form the great lake of Dembea, one of the most conspicuous features of Abyssinian geography. That which appears to be the largest of these issues from two fountains in Sacala, near Geesh, and after flowing into the lake, and quitting it on its eastern shore, sweeps in a se¬ micircular direction round the provinces of Damot and Go- jam, flowing first in a westerly course, and then taking its main bearing, which is north-north-west. The result of about forty observations of Bruce places these fountains in east longitude 36.55. 30. and 10.59.25. north latitude. The mercury in the barometer stood at twenty-two inches, which indicates an altitude of more than two miles above the level of the sea. This river is considered in Abyssinia as the real Nile, and was so regarded by Bruce. All the Portuguese travellers and missionaries, from whom alone our early in¬ formation is derived, were impressed with the same idea. It is not, therefore, wonderful that Bruce embarked on his ar¬ duous undertaking of penetrating to its sources under this impression; and that, after having placed his glory in the discovery, he should have admitted slowly and with can¬ on t)11 Linant, he was informed by some Takrouri pilgrims from Dar Sille, that they travelled two months ward- a"ttb i betore tbe-Y frrived at Sennaar; that, before arriving at the Abiad, they followed the course of another river up- 5’ ""u . • the ^biad had its rise in a country called Bahr-el-Lesse, from which some of the waters flow towards Marok, or Aiaiocco, that is, to the north-west. 4 ^°5kins 1 ravels in Ethiopia, above the Second Cataract of the Nile. 3 Ibid. p. 119. ournal of the Geographical Society, vol. v. part i. p. 41. 228 NILE. Nile. tion the observation of D’Anville, that the Bahr-el-Abiad, 'admitted to be the greater stream, even by the traveller himself, had in all respects the best title to be considered as the Nile of the ancients. But even granting that it is not, the admission will deduct little from the achievement of Bruce, whose journey to the fountains of Geesh, througn wild and unexplored regions, must ever be regarded as one of the noblest instances of human daring, directed by judg¬ ment and science. -p. In its northerly course, the Bahr-el-Azrek, or Blue it - ver, receives an accession of several considerable, streams, amongst which are the Beto and Bahr-Toumat, flowing in on the western side, and the Bender, Rehab and Baba , which unite with it on the eastern side. Ihe waters ot the Bahr-Toumat are very considerable during the freshes, but at other times they are so dried up as not even to flow. When it begins to rise, however, it does so with such rapidi¬ ty and violence as to carry every thing before it, the noise of its approach being thus heard at a considerable distance, and taken as a signal to escape from its banks with the ut¬ most precipitation. At Sennaar, which is about one hundred miles above thej unction of the Blue and White Rivers, Bruce describes the former as a “ delightful river, above a,mile broad, full to the very brim, but never overflowing. Every¬ where on these banks are seen numerous herds of the most beautiful cattle of various kinds.”... “ Ihe banks of the L \ e about Sennaar resemble the pleasantest parts of Holland in the summer season ; but soon after, when the rains cease, and the sun exerts his utmost influence, the dorra begins to ripen, the leaves to turn yellow and to rot, the lakes to putrefy, smell, and be full of vermin, all this beauty sud¬ denly disappears.” The principal tributary ot the united streams of the Azrek and the Abiad, called various y the Tacazze, Atbara, Astaboras, Sittet, and Mugrum, falls into it in east longitude 34. 5. and in north latitude 17. This river rises in Abyssinia, and flows through a great portion of it, draining all the high chains or mountains in its western part. The streams which combine to form the main river spread over a wide tract of country, and are very numerous, which is partly the cause of the 1 acazze having so many names. Its principal tributaries are the Mareb and Mogreu (the March of Bruce), the latter join¬ ing it not far from its confluence with the Nile. Here Bruce found it a quarter of a mile broad, and very deep, flowing through a parched, desert, and barren country, its banks having lost the beauty which clothed them whilst it flowed through Abyssinia. Mr Hoskins gives a more par¬ ticular account of it. “ Opposite to Unmatur is the junction of the Mugrum, the ancient Astaboras, with the Nile, which is comparatively clear at this season (March). I perceived also that the taste was different, and that it had a strong disagreeable smell.”...“ Ihe width of the - lu- grum, as the Astaboras is now called, from what I could fearn, is, at the time of the rise, about a thousand feet. At this season they tell me it is almost stagnant. It swells many days earlier than the Bahr-el-Abiad or the Azrek ; and I think the green colour that tinges the whole Nile for the first thirty or forty days after its rise may be attributed to the influx of the waters of this river. The chief province or district on its banks is called Atbaia, evidently a corruption from the ancient name of the river, which is curious, as any analogy is rarely to be found be¬ tween the modern and ancient names in this country. ... .« From the best information I have been able to obtain, there are seven days’ journey from the mouth of the Mu- o-rum to Goss Radjeb, the principal village on its banks : tor the first two days the direction of this river is nearly east.”1 Mr Hoskins was also informed by some intelligent Arabs that the Mugrum abounds much more than the Nile in hippopotamuses and crocodiles, and that the west¬ ern bank is infested with lions. This river, along with the Nile and its branch the Bahr-el-Azrek, encloses a tract of country called Meroe, which obtained from the ancients the name of Island. See Merge. . . . R , After the junction of the Bahr-el-Azrek with the Bahr- el-Abiad, the Nile takes a very remarkable bend, which, as it appears on the map, cannot be better described than by savinu that it resembles an irregular letter, S, the upper part, inclining to the left- This immense tortuosity extends from about the sixteenth to nearly the twenty-third degree o north latitude. To give a detailed account of the Nile and its banks during this long course, would only be to present an ever-recurring picture of the same objects. Ihe width of the Nile varies exceedingly, being sometimes more than a mile, and at other times only about a quarter of a mile, in breadth. It is studded with innumerable islands, some of which are of very considerable size, and clothed w ith the richest vegetation. The banks of the Nile, also, are often picturesque and beautiful; and the portions of land which may be said to be enclosed by the bendings of the river contain a much greater extent of cultivated soil, and sup¬ port a larger population, than any part of Lower Nubia. The whole of the country, however, which has been sub¬ jected to cultivation, can only be described as a long and narrow oasis, that has been rescued from the surrounding desolation by the river which traverses it. Dongola is the name of the territory most remarkable for its fertility and beauty. High granitic rocks enclose the green and culti¬ vated valley of Jarjar, which flourishes in freshness and fertility in the bosom of the wildest waste. Immediately beyond it there is a pass called the Water s Mouth, parti¬ cularly celebrated for the grandeur of its scenery. It is formed by a succession of huge detached masses of naked rock, and of large fragments scattered along the plain. Be¬ low is the large island of Argo, a spot of peculiar and strik¬ ing fertility, forming in the bosom ot the desert -the most luxuriant natural garden. About ten miles above it is J\ - raega, El Ourde, or New Dongola, the last name having been given to it by the Mamelukes, who, during their tem¬ porary occupation of this country, made it their capital. Before the Nile enters Egypt there occur those cataracts of the river so celebrated in antiquity, and so much exag¬ gerated by some modern travellers. The first is situated about three miles above the island of Elephantine, in a i- tude 24° north. The beauty of this green spot on the waters strikes all travellers with admiration ; by the natives it is termed the Island of Flowers, and travellers call it he Garden of the Tropics. It presents, inueed, withm the space of a mile in length and a quarter of a mile m breadth, a verdure and fertility equal to the finest parts of E yp • Whether or not the body of water of the Nile has, in course of ages, worn or rather broken down the precjce over which the river once rushed, we cannot say ; but mis is certainly not at all probable. However, the thundering sound of the cataracts which was said to compe! the inha bitants to remove to a distance from the deafemng comm tion, is no longer to be heard. It does not appear that here is at present any considerable fall, the highest not being above1 five feet in perpendicular descent. A pictu and extraordinary scene, however, is produced by dashing through the wild confusion of granite rocks, witn which its bed for several miles is thickly strewe - rocky chain which stretches along either hank, pre ing projections of every form, meet and cioss in i die of its course. The river, which above flows m cal majesty upwards of a mile in breadth, is here narrowed t Kile, Hoskins’ Travels in Ethiopia above the Second Cataract of the Nile. S « N I L N I M 229 lo ter. half that space : and its stream, forcing its way through 'the innumerable islets situated above, amidst, and below the cataract, boiling and foaming amidst a thousand rocks, presents a scene of peculiar grandeur and effect. The water in the different channels is tossed about in every direction, forming numberless little cascades ; and the noise, resembling that of a tempestuous ocean beating on a rocky shore, is in winter and spring very formidable, being heard at the distance of three miles. There are six of these cataracts enumerated by travellers, besides some falls of inconsiderable size, although not surrounded by pic¬ turesque scenery. The most celebrated is the second ca¬ taract, situated at Wady Haifa, in latitude 21. 50. north. This cataract has also disappointed travellers, who expect¬ ed to find it a mighty waterfall. Like the first, it is formed by a multitude of rocky islands, through which the Nile dashes amidst clouds of foam, and is whirled and tossed in perpetual eddies. The rocks consist of a species of black marble, not of granite, and the islets being covered with patches of verdure, and several of them being even in¬ habited, produce a picturesque effect, which relieves the aspect of desolation characteristic of the first. The fifth cataract is not to be compared to either the first or second for picturesque effect. “ There are here no mountains or even hills,” says Mr Hoskins, “ and the fall at a little dis¬ tance is scarcely perceptible. The sound is great, the ra¬ pids strong, and of such an extent, that at this season of the year (February) certainly no boat of any size could pass; when the Nile is high there would be little difficul¬ ty.” The other cataracts do not require any particular notice. It is clear that they are rather what the Ameri¬ cans call rapids than what w'e are accustomed to associate with the name of cataract; a series of inconsiderable falls, remarkable rather for their number and the picturesque scenery adjacent thereto, than for any other circumstance or peculiarity. The Nile enters Egypt at Assouan, near the site of the ancient Syene, in latitude 24° north. It follows nearly a northerly course, and below Cairo (latitude 30. 15. north) divides into two main arms, the Damietta or the eastern, and the Rosetta or western branch. A description of this, the most important part of the course of the Nile,-has al¬ ready been given at sufficient length in the article Egypt, to which the reader is referred, as well as for an account of the inundation and other circumstances connected with this great river. As to the length of its course, the dis¬ tance from the confluence of its two head branches to the sea has been estimated at 1500 miles, and from its high¬ est sources at 2500 miles. (u. r. r.) KILOMETER, an instrument used amongst the ancients to measure the height of the water of the river Nile during the periodical inundation. The word comes from Ns/Aof, Nile, and [urgov, measure. The Greeks more commonly called it Ns/Xoffxcmoi/. The nilometer is said, by several Arabian writers, to have been first set up, for this purpose, by Joseph during his regency in Egypt; and the measure of it was sixteen cubits, this being the height of the in¬ crease of the Nile which was then necessary to the fruit¬ fulness of Egypt. From the measure of this column, Dr Cumberland de¬ duces an argument, in order to prove that the Jewish and Egyptian cubits were of the same length. In the Royal Library of Paris there is an Arabic treatise on nilometers, entitled Neilfi alnal al Nil, in which are described all the overflowings of the Nile, from the first to the 875th year of the Hegira. Herodotus mentions a column which had been erected in a point of the island of Delta, to serve as a nilometer; and there is still one in a mosque at the same place. However this there before him, and left him the sovereignty , bu^we h be(!n yit must be owned that Nineveh was one cline to think that he seized Shinar from the descendan s of ^ ^^ ancient cities of the world. It is Shem, driving out Ashur, who went from thence and found- ot the largest ana must n _ ed Nineveh, and other cities in Assyria The Scripture does not inform us when Nimrod began his reign. Some date it before the dispersion ; but such a conjecture does not seem to suit with the Mosaical his¬ tory ; for before the dispersion we read of no city but Ba¬ bel, nor could there well be more whilst all mankind were yet in a body together. But when Nimrod assumed the very difficult to assign exactly the time of its foundation, but it cannot have been long after the building of Babel. It was situated upon the banks of the Tigris ; and in the time of the prophet Jonas, who was sent thither under Je¬ roboam II. king of Israel, and, as Calmet thinks, under the reDn of Pul, father of Sardanapalus, king ot Assyria, Nine¬ veh was a very great city, its circuit being three days jour- ’-U^WeTee^s to have been other cities and this shows that he must have done so a considerable time afte circumference, and that it was surrounded the dispersion. The learned writers of the Universal His- se^n, I?1*eS’ j? C^Cd towers . t’he former being 200 feet in tory place the beginning of his reign thirty years after that with y broad tbat tbree chariots might drive event, and in all likelihood it should be placed rather a er abreastJ and tbe iatter 200 feet in height, and than earlier. . . ~ 150a ;n number; and Strabo allows it to have been much Authors have taken a great deal of trouble to find Nim- < Babvlon Diodorus Siculus was, however, cer- rod in profane history. Some have imagined him to be aronter than Babylon. Uiodorus aicuius _, the same with Belus, the founder of the Babylonian em¬ pire ; and others take him to be Ninus, the first Assyrian monarch. Some believe him to have been Evechous, the first Chaldcean king after the Deluge ; and others perceive a great resemblance between him and Bacchus, both in actions and in name. Some of the Mahommedan writers suppose Nimrod to have been identical with Zohak, a Persian king of the first dynasty ; whilst others contend for his being Kay Kaus, the second king of the second race; and some of the Jews say that he is the same with Amraphel, the king of Shinar, mentioned by Moses. But there is no certainty greater than Babylon, - • tainly mistaken in placing Nineveh on the Euphrates, sm all historians as well as geographers who speak of that y> tell us in express terms that it was situated on the 1 igris' ^ the time of Jonah’s mission thither, it was so populous tnai it was reckoned to contain more than six score thousana persons who could not distinguish their right hand nom their left (Jonah, iv. 11), which is generally explained young children who had not yet attained to the use o Ln l so that upon this principle it is computed to.' “ inhabitants of Nineveh were then above 600,000 perso Nineveh was taken by Arbaces and Belesis, m the y N I N fijoo the world 3257, under the reign of Sardanapalus, in the time ot Ahaz, king of Judah, and about the epoch of the ups, foun(Jation of Rome. It was reduced a second time by J.-^Astyages and Nabopolassar, who took it from Chynalada- nus, king of Assyria, in the year 3378. After this time, Nineveh no more recovered its former splendour. It was so entirely ruined in the time of Lucian us Samosatensis, who lived under the Emperor Hadrian, that no traces of it could be found, nor so much as the place w here it stood. However, it was rebuilt under the Persians, and again de¬ stroyed by the Saracens about the seventh century. NINGPO, a city of the first rank, and a great seaport, of China, in the province of Tchekiang, known to the early Portuguese navigators under the appellation of Siampoo. It is five miles in circumference, is situated in a fertile plain surrounded by hills, and is watered by numerous ca¬ nals. It is much resorted to by the Chinese merchants of Fokien, as well as by those settled in Siam and Batavia, who icpair thither tor the purpose of buying the silks pro¬ duced in its neighbourhood. It also carries on an exten¬ sive trade with Japan. Long. 120.14. E. Lat. 29.51. N. NINIA, or Ninian, commonly called St Ninian, a holy man amongst the ancient Britons. He resided at or near a place called by Ptolemy Leucopibia, and by Bede Cati- dida Casa; but the English and Scotch called it White- home. He is said to have been the first who converted the Scots and Piets to the Christian faith, which he effect¬ ed during the reign of Theodosius the Younger. Bede informs us that he built a church dedicated to St Martin, in a style unknown to the Britons of that time ; and adds, that during his time the Saxons held this province ( Cra/Zo- vidia, now Galloway), and that, as the converts to Christi¬ anity increased in consequence of the labours of this saint, an episcopal see was established there. Dr Henry, con¬ sidering that few or none of the writings of the most an¬ cient fathers of the British church are now extant, and that we can know but little of their personal history, and the extent of their erudition, gives a short account of some ot them. Of St Ninian, he says that he was a Briton of noble birth and excellent genius. “ After he had received as good an education at home as his ow n country could af¬ ford, he travelled for his further improvement, and spent several years at Rome, which was then the chief seat of learning as well as of empire. From thence he returned into Britain, and spent his life in preaching the gospel in the most uncultivated parts of it, with equal zeal and success. NINIANS, St, a large village in the parish of the same name in Scotland, about one mile and a quarter distant irom Mining. It has an ancient appearance, and consists of one large narrow street. Many of the houses are of con- si erable antiquity, and on them are carved the implements °ueirln tra^e ^e original proprietor. During the rebellion m 1745-46, the former church of St Ninian! as use v the Highlanders as a powder magazine, and bl°'Vn Up on their hurried departure for the r,°r i i 6 ste?P^e» however, escaped unscathed from c ®stryct‘on> and now stands separated from the i ' esihesthe parish church, there is in the vil- ofPRare ifuChapeL, • Be.tvveen St Ninians and the village the pa!00 ^ "hich is situated at a short distance to rnmp mraS f°U,sht the famous battle known by that inp thp The PapiSh °f St Nmians is also celebrated for be- wa! foutbT- ^ °tber battles; that of Stirling, which Tomm Jd 2w?uWhen the Scottish ^ uade‘- the ST faS:iWlll*m Wallace’ entirely defeated the James III ^aachleburn, where the forces of kine nut r*n tbose of his nobility, and the he had been carried fr0m the field’ t0 which *d in the man f f ” ^habitants are chiefly employ- m the manufacture of nafis and leather; the former are N I O 231 considered as superior to those made in England. A con- Ninon de siderable trade is also carried on in the manufacturing of I’Enclos carpets, tartan and other stuffs of the same kind, five hun- « dred of the inhabitants being thus employed. The popu- ■Nions* latl°n °f the Parish amounted in 1821 to 8274, and in 1831 to NINON de i/Enclos, a lady of a noble family, born at Pans in the year 1615, and famous for her wit and her gallantries. Her mother was a person of exemplary piety, but her father early inspired her with the love of pleasure. Having lost her parents at fourteen years of age, and find¬ ing herself mistress of her own actions, she resolved never to marry. She had an income of ten thousand livres a year • and, according to the lessons she had received from her father, drew up a plan of life and gallantry, which she pur¬ sued until her death. Never delicate with respect to the number, but always so in the choice, of her pleasures, she sacrificed nothing to interest, but loved only whilst her taste for it continued, and had amongst her admirers the greatest lords of the court. Notwithstanding the levity of her conduct, however, she had many virtues. She was con¬ stant in her friendships, faithful to what are called the laws of honour, of strict veracity, disinterested, and more par¬ ticular^ remarkable for perfect probity. Women of the most respectable characters were proud of the honour of having her as their friend; at her house there w'as an as¬ semblage ot every thing most agreeable in the city and the court; and mothers were extremely desirous of sending their sons to that school of politeness and good taste, that they might learn sentiments of honour and probity, and those other virtues which render men amiable in society. But Madame de Sevigne remarks with great justice in her letters, that this school was dangerous to religion and the Christian virtues, because Ninon made use of seducing maxims, capable of depriving the mind of those invaluable treasures. This singular woman was esteemed beautiful even in old age, and is said to have inspired the passion of love at eighty. She died at Paris in 1705. NIX US, the first king of the Assyrians, is said to have been the son of Belus. It is added, that he enlarged Nine¬ veh and Babylon ; conquered Zoroaster, king of the Bac- tnans ; married Semiramis of Ascalon ; subdued almost all Asia ; and died after a glorious reign of fifty-two years about 1150 before Christ- But all these alleged facts are apocryphal. MO, an island of the Archipelago, situated between iSaxi on the north, Armago on the east, Santerino on the south, and Sikino on the west, and about thirty-five miles in circumference. It is remarkable for nothing but Ho¬ mer’s tomb, which it is pretended is in this island, where he is said to have died in his passage from Samos to Athens- Long. 25. 35. E. Lat. 36. 43. N. NIOBE, according to the fictions of the ancient poets, was the daughter of Tantalus, and the wife of Amphion, king of Ihebes, by whom she had seven sons and as many daughters. Having become so proud of her fertility and high birth, as to prefer herself before Latona. and to slight the sacrifices offered up by the Theban matrons to that goddess, Apollo and Diana, the children of Latona, resent¬ ed this contempt; the former slew the male children, and the latter the female, upon which Niobe was struck dumb with grief, and remained without sensation. Cicero was of opinion, that on this account the poets feigned that she had been turned into stone. NIONS, an arrondissement of the department of the Dome, in France, 470 square miles in extent. It compre¬ hends four cantons, divided into seventy-five communes, and containing a population of 33,800 persons. The ca¬ pital is the city of the same name situated on the river Aigues. It contains only 2850 inhabitants, who carry on some trade in silks, woollens, and leather. 232 Kiort Nisan. N I S N I S NIORT, an ammdisseinent of d|P ‘ e miles. Two Sevres, in France, extending ove ^ q ^r ,It contains ‘en,c.a"t“8’"h’f8?loopersons. The capital, communes, and inhabited by , t nt jg tbe city both of the arrondissement and t P river Sevres- of the same name Mortaise. It has a fine Gothic c^wcn, a a bo. a library of 12,000 volumes, a chemical It tanic garden, and a cabmet of p ys P 1^5 who contains 1980 houses, and , an(j in’ preparing occupation in making woo ,g , Ago 000dozen pairs leather, chiefly for gloves, of ^Arich’hf consequence are annually produced. It su . the Revolution, of the insurrection in La Vendee p b return of but has in a great ^e reccrvere^smce^ret tranquillity. Long. 0. 34. _ • • f ^ -a form- NIPHON, an extensive island ^ ^ e^°ire of japan. ing by much the largest P°[ 10 rous windings, and is It is of an irregular form, wit a"Ni-gua is in lat. lorv north^'and 1^° ™ -t /f Paris, about forty- eight leagues west of Caraccas. province of Be- tvtrmtTT. a town of Hindustan, m tne pi . 33NISAN a^nonthof the Hebrews, corresponding to our MaXuJ t hich --t^“.AA^hT^ An;l; ?^2d Cd iJ It rtvfthAol of tire cSil (Exod.xi. . 11 d Abib. The name Nisan is y6fv found since^the time of Ezra, and the return from the only found since tne month the TeKdtXe dea* “hilefren of Aaron On tbe tenth day was celebrated a fast for the deat i o i i • m tbe sister of Moses, and every one provided himself nam the sister oi^ ^ 0n this day the Israelites with a lam P der the conduct of Joshua. On the mb div in the evening, they sacrificed the paschal lambVand the’day following, '’^"^thethtenth they offered a'sheaf of tlmeilisof barley as the first fruits of the fff of that vear. The twenty-first, being the octave of She palso.er, wL solemnized with particular ceremomesu On ?he twenty.sixth the Jews fasted in memory ot the Un y16 i „nd this dav they commenced then 2 mM wS,s 23: NISHAPOUR, an ancient city of Persia, formerly oneKsb,, ft of the richest and greatest in the extens.ve jn-o.mce o ^ Kliorassan, is situated in a fine plain, about g 5. ri.i ivnordsscui, uVOQfitiy well studded with finev Kborassan, is situateu m a « ,, q -..i, n in length by fifty or.^ty in breadth, villages,1 ami pl’entiful gardens full of trees, which bear S of the hfghest flavour. Accordmg to Frazer m In, Narrative of a Journey into Kliorassan (p. 43.), it was a rich and pleasing scene, and by far the most populous and cultivated tract he had seen in Persia. This plain was formerly irrigated by 12,000 aqueducts, winch have now been suffered to fall into decay, and are destitute of water. The city has suffered deeply from the wars which have at different times desolated Persia. It was destroyed ‘b Alexander the Great, and was, after the lapse ot many years, rebuilt by Sapor I., whose statue was to be seen at Nishapour until it was overturned and broken in pieces by he Arabs. About the middle of the twelfth century Nishapour was taken by tbe Tartars, and so completely ruined by those barbarians, that the inhabitants, on the.r return, could not distinguish the site of their own houses. Hakani the Persian poet, who flourished at this period describes, in tbe most affecting terms, the overthrow of this great'city. It recovered from this imn, however, and once more regained its former splendour, when it was again taken and pillaged by the savage Genghis Khan, and re¬ duced to desolation. The inhabitants amount at presen to about 15,000, who occupy only a single quarter of the city, the ruins of which are said to cover a circuit of twen- tv-five miles. The most delicious fruits are here found in the greatest abundance. The city is at present subject to the dominion of the king of Persia, and has nine districts dependent on it, each of which contains about ten waded villages. It is thirty miles south of Meshed, and 230 north NISHEGOROD, a province of the Russian empiie, in Europe. It takes its name from the capital city, and ex¬ tends^ north latitude from 54. 31. to ^ ^ ^ longitude from 41. 3/. to 46. 27., containing ~ , 4 miles. It is divided into eleven circles, which comprehend thirteen cities and 5380 villages, which latter are formed in- to 762 parishes, each having a Greek church. The inhabi tants are estimated at 1,500,000, feat adhere to the religion of the Greek church but her are many tribes of Tartars scattered throughout the pronne , who, like their ancestors, remain heathens. 1 he who province is undulating, with no elevations that are more than 400 feet above the level of the sea. Hie soi is ge¬ nerally sandy, but much of it is compounded of portions o clav and marl, and other earths, so that where cultivation is conducted with any degree of skill and attenUon,t e p duce is considerable. In corn the crops commonly yield one fourth more than the consumption requires, i he eti e grains are rye and buck-wheat; but there s much whea grown, and the increase on appropriate sods is said t tenfold the seed. A great quantity both of hemp d is raised, and all the common garden vegetables and trait The woods extend along the banks of the Sreat11'Auction afford abundance of fuel, and of timber for the constructio of houses and ships. The province is admirably watered, the chief river being the W olga, which receives t ^ of the Oka, the Kutma, the Kirsentz, the ^ra, b 1 ™ „nd the Alatvr, all of which are navigable to tne main stream. It is a manufacturing district, producing abundance of matting, hempen and flaxen cbths, soap candles, iron in bars and in common ^Uve cattle, raw corn, spirits, and some glass. These, hides, and wood, form the principal articles of the trade which is chiefly carried on by the W otgaanu tributary streams. The city ot Nmliegoro , t e c p ^ ^ 830 miles from St Petersburg, being platitude G- ^ ^ north, and in longitude 4b. 23. a. east. a S N I S i junction of the Oka with the Woiga, in a picturesque situ¬ ation, between hills; and it is the centre of the trade, as ^.well as of the government of its province, and the seat of a Greek bishop. It contains 1826 houses, mostly of wood, and 12,300 inhabitants, who chiefly subsist by manufactures and trade, which connect them with the Persians, Sibe¬ rians, Turks, and Tartars, who resort in great crowds, es¬ pecially to a fair which lasts from the 29th of June to the end of July annually. NISIBIN, a village of Persia, in the pachalik of Bag¬ dad, which was in ancient times the celebrated fortress of Nisibis, and, from the time of Lucullus until the decline of the empire, was regarded by the Romans as the firmest bulwark of the East. This city was taken by Lucullus, from Tigranes, king of Armenia. It was three times be¬ sieged by the king of Persia, who, by the treaty of Dura, at last obtained quiet possession of the fortress, which had successfully resisted the utmost efforts of his arms. Ni¬ sibis, in the hands of the Persians, braved the attacks of successive emperors, and baffled the military talents of Belisarius; until at last, after the final overthrow of the house of Artaxerxes, it was reduced, along with the other cities of Mesopotamia, under the power of the Saracens. Ihe foundations of the walls, and several detached towers, as well as part of the church built in honour of St James, who was formerly bishop of Nisibis, are still standing. They overlook the little but rapid river Mygdonius, and are ap¬ proached by a small Roman bridge of twelve arches. To the west there is a view of the lofty mountains of Sinjar, covered with verdure ; and the prospect to the north and east is bounded by the ridge of Mount Masius, forming a vast amphitheatre, at the extremity of which, in a clear day, may be descried the distant turrets of Merdin. The adjacent country has a pleasing appearance, the number¬ less villages w'hich overspread the plains being built whol¬ ly on conical hills, bearing a striking resemblance to our feudal castles. Grecian and Roman coins, with other an¬ tiquities, are frequently dug out of the ruins. The black tents of the Kurds now cover the greater part of the city. jSisibin is seventy-eight miles south-east of Diarbekir, and seventy north-west of Mosul. NISI PRIUS, in Law, a judicial writ which lies in cases where, the jury being impanelled and returned before the justices of tbe bank, one of the parties requests to have such a writ for the ease of the country, that the trial may take place before the justices in the same county on their coming thither. The purport of a writ of nisiprius is, that t ie sheriff is thereby commanded to bring to Westminster the men impanelled, at a certain day, before the justices, nm. Pnus justiciaru domini regis ad assisas capiendas ve- nermt. NISMES, an arrondissement of the department of the tjard, m.I ranee, 635 square miles in extent. It compre¬ hends eleven cantons, divided into seventy-five communes, and contains 122,4-50 inhabitants. The capital is the city or tlie same name, which is situated in an extensive and fruit¬ 'd Plailfi bounded by two parallel hills. It has a labyrinth o narrow and ill-built streets ; but the suburbs are much !e leguai, and contain the best edifices, together with ome open places, and pleasing promenades. Nismes con- tlipnt many1 hh'ains of antiquity, especially a Roman amphi- thpdrid capa^ e seating 20,000 spectators. It has a ca- linnco^ ’ i Vo™ . anc* ^Ve ’’formed churches, with 4800 1,-p p8* ant* 42,800 inhabitants, of whom about one eighth 30 nnn° eifants‘ 4t contains an academy, with a library of of silkc V0 U™es’ ^ts ihdustry consists in the manufacture dv XT-5 10sleiT’ cottons, lace, ribbons, and especially bran- P^eadhlT? W-S t le !)irthI)!ace of the celebrated Protestant P NtSro^u1"’ and of the P°et Fiorian. killed bv twn of r°d 0t theu.Assyrians- Sennacherib was vol. xvi ° US S°nS Vvdllst he was Paying his adora- N O 233 No. tions to the god Nisroch in his temple (2 Kings, xix. 37) ; Nithsdale but it is not known who this god Nisroch was. The Sep- " tuagint calls him Mesrach, and Josephus denominates him Araskes, while the Hebrew of Tobit, published by’ Munster, calls him Dagon. The Jews have a strange no¬ tion concerning this deity, whom they fancy to have been a p ank of Noah s ark. Some think that the word signifies a dove ; and others understand by it an eagle, which has ^ given occasion to an opinion, that Belus, from whom the Assyrian kings pretended to be derived, was worshipped by them under the form of an eagle, and called Nisroch. NITHSDALE, Nitiusdalb, or Niddisdale, a district of Dumfriesshire, in Scotland, lying to the westward of Annandale. It is a large and mountainous tract, deriv¬ ing its name from the river Nid or Nith, which rises on the borders of Ayrshire, and, running by Sanquhar and Dumfries, discharges itself into the Solway Frith. N1TOCRIS, the mother of Belshazzar, whose father was Evilmerodach, and his grandfather Nebuchadnezzar. She was a woman of extraordinary abilities, who took upon heiself the burden of all public affairs, and, whilst her son followed his pleasures, did all that could be done by hu¬ man prudence to sustain the tottering empire. She per¬ fected the works which Nebuchadnezzar had begun for the defence of Babylon; raised strong fortifications on the side of the river; and caused a wonderful tunnel to be con¬ structed under it, leading from the old to the new palace. She likewise built a bridge across the Euphrates, and ac¬ complished several other works, which were afterwards ascribed to Nebuchadnezzar. Philostrates, in describinff this bridge, tells us that it was built by a queen, who was a native of Media; and hence we may conclude that this illustrious princess w'as by birth a Mede. NIVELLE de la Chaussee (Peter Claude), a comic poet, was born in Paris, and acquired great reputation by inventing a new kind of entertainment, called the Weep- Ylo Comedy. Instead of imitating Aristophanes, Terence, Moliere, and the other celebrated comic poets who had preceded him ; and instead of exciting laughter by paint¬ ing the different ridiculous characters, or giving strokes of humour and absurdities in conduct; he applied himself to represent the weaknesses of the heart, and to touch and soften it. In this manner he wrote five comedies: 1. La Fausse Antipathic ; 2. Le Prejuge a la Mode ; 3. Mela- mde ; 4. Amour pour Amour; and, 5. L’Ecole des Meres. He was received into the French Academy in 1736, and died at Paris in 1754, at the age of sixty-three. He also wrote a tragedy entitled Maximianus; and an epistle to Clio, an ingenious didactic poem. • NIVFLFES, a circle of the province of South Brabant, in the Netherlands, comprehending six cantons, divided 1?*° I1.5 communes, and containing 87,480 inhabitants, i he chief place is the city of the same name situated on the river Ihienne. It contains 750 houses, and 7000 in¬ habitants, whose chief employment consists in making lace cambrics, and other linen goods, and in growing hemp, flax! 50 S^^N m SUrroundinS Long. 4. 10. E. Lat. NIZAMPATAM, a town of the south of India, in the province of the Northern Circars. It is situated at the mouth of the Krishna River, forty miles west-south-west from Masuhpatam. It carries on a considerable coasting trade. Long. 80. 35. E. Lat. 15. 56. N. NIZZA DELLA PAGLIA, a city of the province of Aqup m Piedmont, standing on the river Belbo, where t le Nizza falls into it. It is a poor place, surrounded with Wa,fc’(;0i1^ai]nia8 a few splendid houses, five monasteries, and 51o6 inhabitants, who chiefly subsist by spinning silk and cultivating vineyards. NO, or No-Ammon, a considerable city of Egypt, dedi¬ cated to Ammon or Jupiter. The Septuagint translate 2 G 234: Noacote II Noah. N O A the name in Ezekiel, Diospolis, or the City of Jupiter. Bo- chart takes it to be Thebes in Egypt, which, according to Straho and Ptolemy, was called Diospolis. Jerome, a er the Chaldaic paraphrast Jonathan, supposes it to be Alex¬ andria, named thus by way of anticipation; or an anC1^ city of that name which is supposed to have stood on the snot where Alexandria was afterwards built. NOACOTE, an inconsiderable town of Northern Hin¬ dustan, situated in a fruitful valley of the same name* Though small, it contains some of the largest and best loo - in- houses in Nepaul, also a celebrated Hindu temple de¬ dicated to Bhavany. Its situation is of importance, ^ com¬ manding the only entrance into this quarter from Upp as well as Lower Thibet, and standing close to Mount Dhvboon, by which the Chinese army was obhged to de¬ scend in 1792, when they invaded Nepaul. The valley of Noacote, in which the town .is situated, 18 S1X m length by one mile and a quarter in breadth. Long. Hb. SO E Lat ST. iSf. NOAH, Noach, or Noe, the son of Lamech, was born in the year of the world 1056. Amidst the general cor- ruptioninto which all mankind had at this time fallen, Noah alone was found to be just and perfect in his generation, walking with God. This extraordinary person having there¬ fore found favour in the sight of Heaven, the A mighty, see¬ ing that all flesh had corrupted their ways, told Noah that he was resolved to destroy mankind from the face of the earth by a flood of waters; and not them alone, but all t e beasts of the earth, and every creeping thing, as well as the fowls of the air. The Lord therefore direc ed Noah as a means of preserving himself and his family (for had three sons, Shem, Ham, and Japheth, who were all married before the Flood), to build an ark or vessel of a certain form and size fitted to that end, and which mig besides accommodate such numbers of animals o all sorts, that were liable to perish in the Flood, as would be suffi¬ cient to preserve the several species, and again to replen¬ ish the earth. . , . , , In the year of the world 1656, being the six hundredth of his age, Noah, by God’s appointment, entered the ark, together with his wife, his three sons, their wives, and all the animals which God had caused to come to him ; and being all entered, and the door of the ark being shut down from the outside, the waters of the Deluge began to fall upon the earth, and increased in such a manner that they were fifteen cubits above the tops of the highest mountains, and continued thus upon the earth for 150 days; so that whatever had life upon the earth, or in the air, was de¬ stroyed, except such as were with Noah in the ark. But the Lord remembering Noah, sent a wind upon the earth, which caused the waters to subside; so that upon the seven¬ teenth day of the seventh month the ark rested on the mountains of Ararat; and Noah having uncovered the root of the ark, and observing that the earth was dry, he re¬ ceived orders from the Lord to come out of it, with all the animals that were therein. This he did in the six hundred and first year of his age, on the 27th day of the second month. See the article Deluge. Then Noah offered as a burnt sacrifice to the Lord one of all the pure animals that were in the ark ; and the Lord accepted his sacrifice, and said to him that he would no more pour out his curse upon the whole earth, nor any more destroy all the animals, as he had now done. He gave Noah power over all the brute creation, and permitted him to eat of them, as well as of the herbs and fruits of the earth; excepting only the blood of animals, the use of which God did not allow him. He bade him increase and mul¬ tiply, made a covenant with him, and engaged no more to send an universal deluge upon the earth ; and as a me¬ morial of his promise, he set his bow in the clouds, to be as a pledge of the covenant which he had made with Noah. NOB Noah, being an husbandman, began now to cultivate the - vine; and having made wine and drank thereof, he un- „ warily became intoxicated, and falling asleep in his tent,.- happened to uncover himself in an indecent posture. Ham, ^ the father of Canaan, having observed him in this condi- tion, made sport with his father, and acquainted his two brothers, who were without, of the exposure of the patriarch But they, instead of making it a matter of sport, turned away from it, and going backwards, they covered their fa¬ ther’s nakedness, by throwing a mantle over him. Noah awaking, and knowing what Ham had done, said that Ca¬ naan the son of Ham should be accursed, that he should be a slave of slaves in respect of his brethren. It is thought he had a mind to spare the person of his son Ham, for fear the curse might light upon the other children of Ham, who had had no part in this action. He cursed Ca¬ naan by a spirit of prophecy, because the Canaamtes, his descendants, were afterwards to be rooted out by the Israel¬ ites. Noah added, Let the Lord, the God of Shem, be blessed, and let Canaan be the servant of Shem. And he was so in effect, in the person of the Canaamtes subdued by the Hebrews. Lastly, Noah said, Let God extend the possession of Japheth; let Japheth dwell in the tents of Shem, and let Canaan be his servant. This prophecy had its accomplishment, when the Grecians, and afterwards the Romans, being descended from Japheth, made a con¬ quest of Asia, which formed the portion of Shem.* But Noah lived yet after the Deluge three hundred and fifty years ; and the whole duration of his life having been nine hundred and fifty years, he died in the year of the world 2006. He left three sons, Shem, Ham, and Ja¬ pheth, of whom mention is made under their several names; and, according to the common opinion, he divided the whole world amongst them, in order that it might be re¬ peopled. To Shem he gave Asia, to Ham Africa, and to Japheth Europe. Some will have it, that, besides these three sons, he had several others. The spurious Berosus assigns him thirty, called Titans, from the name of their mother. It is also pretended that the Teutons or Ger¬ mans are derived from a son of Noah called Thuiscon. Methodius likewise mentions Jonithus or Jonicus, a pre¬ tended son of Noah. , St Peter calls Noah a preacher of righteousness, because before the Deluge he was incessantly preaching and de¬ claring to men, not only by his discourses, but by his blameless life, and by the building of the ark, m which he was employed six score years, that the wrath of God was ready to descend upon them. But his preaching had no effect, since, when the Deluge came, it found mankind plunged in all their former enormities. V Several learned men have observed, that the Heathens confounded Saturn, Deucalion, Ogyges, the god Ccelus or Uranus, Janus, Proteus, Prometheus, arm others, ^th Noah. The wife of Noah is called Nonah by the Gnos tics; and the fable of Deucalion and his wife Pyrrha is manifestly a corruption of the history of Noah. NOANAGUR, a very large town, and the capital ot a district of the same name, surrounded by a stone wall o great strength, with round towers and a ditch. It is sa ated on the river Nagne, which is suPPose(J .by thef,np Jve. to possess some qualities peculiarly favourable for the 0) ing of cloths, for which, as well as the manufacture the e off this place is celebrated. The chief of Noanagur c money in his own name. His subjects are addicte P racy ; but in the year 1808 he entered into a treaty ^ the British to refrain from this practice, and not to P der any ships which might be driven on their coast by tress. Long. 70. 15. E. Lat. 22. 20. N. . . NOB, a sacerdotal city of the tribe of Benjamin Ephraim. St Jerome says, that in his time it was e ^ destroyed, and that the ruins of it might be seen NOB >bi 7 from Diospolis. When David was driven away by Saul, he went to Nob, and asking the high priest Ahimelech for some provisions and arms, the priest gave him the shew- bread which had lately been taken off the holy table, and the sword of Goliath. Saul being informed of this by Doeg, caused all the priests of Nob to be slain, and the city to be destroyed. (1 Sam. xxi. xxii.) NOBA, a small island in the Eastern Seas,near the west¬ ern coast of Aroo. Long. 135. 13. E. Lat. 5. 5. S. NOBAH, a city beyond Jordan, which took the name of Nobah from an Israelite of this name who had conquered it. Gideon pursued the Midianites as far as this city. Eusebius informs us, that there is a desolate place of this name about eight miles from Heshbon, towards the south ; but this could not be the Nobah now mentioned, because the latter was much farther to the north. NOBILIARY, a book containing the history of the noble families of a nation or province. NOBILITY, in general, signifies dignity, grandeur, or greatness, but more particularly antiquity of family, joined with riches. In the common acceptation of the word, it means that quality or dignity which raises a man above the rank of a commoner. Whether that equality of rank and condition which has sometimes been contended for would be more agreeable to the order of nature, or more conducive to the happiness and prosperity of mankind, may be made a question ; but it is one, Ave apprehend, which cannot receive different answers from men capable of reflecting without preju¬ dice and partiality. A state of perfect equality can subsist only amongst beings possessing equal talents and virtues; but such beings are not human. Were all mankind un¬ der the constant influence of the laws of virtue, a distinc¬ tion of ranks would be unnecessary ; but in that case civil government itself would likewise be unnecessary, because men would have attained all that perfection to which it is the object of civil government as well as of religion to guide them, and every man would then be a law unto him¬ self. But whilst, in so many breasts, the selfish passions predominate over those which are social, violence must be restrained by authority; and there can be no authority without a distinction of ranks, such as may influence-pub¬ lic opinion. r It is observed by Hume, that government is founded solely on opinion ; and that this opinion is of two kinds, opinion of interest and opinion of right. When a people are persuaded that it is their interest to support the go¬ vernment under which they live, that government must necessarily be stable. But amongst the worthless and un¬ thinking part of the community, this persuasion has sel¬ dom any place. All men, however, have a notion of rights ot a right to property, and a right to power ; and when tne majority of a nation considers a certain order of men as having a right to that eminence in which they are placed, this opinion, call it prejudice or what you will, contributes «CTit0 r -peace and haPPiness of civil society. 1 he distinction of rank and honours,” says Blackstone, jlecefary in every well-governed state, in order to re- waid such as are eminent for their services to the public, witLTine^ the moSt desirable to individuals, and yet ,.mK;.Ut burdea to the community; exciting thereby an in nth!°US ,audab^ ardour, and generous emulation, nf ant‘ FS* i -u ^mu^ation> or virtuous ambition, is a spring ren?h , “ WhlC^’h0^eVerdan^erous or ^vidious in a mere ed wiib ^ ^ a desP°tic sway, will certainly be attend- out destr&m°- e?ects ynder a free monarchy; where, with- |allv restmflnf kS efistence> its excesses may be continu- nour k rW byihaf suPenor power from which all ho- i-jives life o'6] ’ • UC 1 a sPirit> when nationally diffused, Ss oLn d Vlg0Ur t0 the cornmunity; it sets all the g 'rnment in motion, which, under a wise regu- N O B 235 ator, may be directed to any beneficial purpose ; and there- Nobility, y every individual may be made subservient to the pub-v ic good, while he principally means to promote his own particular views. A body of nobility is also more peculi¬ arly necessary in our mixed and compounded constitution, in order to support the rights of both the crown and the people, by forming a barrier to withstand the encroach¬ ments of both. It creates and preserves that gradual scale of dignity which proceeds from the peasant to the prince; nsmg like a pyramid from a broad foundation, and dimi¬ nishing to a point as it rises. It is this ascending and conti acting proportion that adds stability to any govern¬ ment ; for when the departure is sudden from one extreme to another, we may pronounce that state to be precarious.” . Dm origin 0f nobility in Europe is a subject involved in considerable obscurity. In this place we shall only con¬ sider the manner in which nobility may be created in this country, with the incidents attending it. 1. Ihe right of peerage seems to have been originally tenitonal, that is, annexed to lands, honours, castles, ma¬ nors, and the like, the proprietors and possessors of which were, in right of those estates, allowed to be peers of the realm, and were summoned to parliament to do suit and ser- vice to their sovereign; and, when the land was alienated, the dignity passed along with it as an appendage. Thus in Migland the bishops still sit in the House of Lords in right of succession to certain ancient baronies annexed, or sup¬ posed to be annexed, to their episcopal lands ; and thus in 11 Henry VI. the possession of the castle of Arundel was tidjudged to confer an earldom on its possessor. But after¬ wards, when alienations became frequent, the dignity of the peerage was confined to the lineage of the party ennobled, and, instead of territorial, became personal. Actual proof of a tenure by barony became no longer necessary to con¬ stitute a lord of parliament; but the record of the writ of summons to him or his ancestors was admitted as a suf¬ ficient evidence of the tenure. Peers of Great Britain are now created either by writ or by patent; for those who claim by prescription must suppose either a writ or patent to have been issued or granted to their ancestors, though by length of time it has been lost. The creation by writ or the king’s letter is a summons to attend the House of Peers, by the style and title of that barony which the king is pleased to confer ; that by patent is a royal grant to a subject of any dignity and degree of peerage. The creation by writ is the more ancient way ; but a man is not ennobled thereby, unless he actually take his seat in the House of Lords; and some are of opinion that there must be at least two writs of sum¬ mons, and a sitting in two distinct parliaments, to establish a hereditary barony; and therefore the most usual, be¬ cause the surest way, is to grant the dignity by patent, which endures to a man and his heirs according to the limitation thereof, although he himself should never make use of it. Yet it is frequent to call up the eldest son of a peer to the House of Lords by writ of summons, in the name of lus father’s barony, because in that case there is no danger of his children’s losing the nobility in the event of his never taking his seat; for they will succeed to their grandfather. Creation by writ has also one advan¬ tage over that by patent. A person created by writ holds t e dignity to himself and his heirs, without any words to that purport in the writ; but in letters-patent there must e words to direct the inheritance, otherwise the dignity endures only to the grantee for life. For a man or wo¬ man may be created noble for their own lives, and the dignity not descend to their heirs at all, or descend only to some particular heirs; as where a peerage is limited to a man and the heirs male of his body by Elizabeth his present lady, and not to such heirs by anv former or future wife. 236 NOB N O C Nobility. 2. Let us next take a view of a few of the principal in¬ cidents attending the nobility, exclusive of their capacity as members of parliament, and as hereditary counsellors ot the crown. And here it may be observed, that in criminal cases a nobleman must be tried by his peers. The great are always obnoxious to popular envy. Were they to be iudged by the people, they might be in danger from the pre- iudices of their judges ; and would moreover be deprived ot the privilege of the meanest subjects, that of being tried by their equals, which is secured to all the realm by Magna Charta (c. 29). It is said that this does not extend to bishops, who, though they are lords of parliament, and sit there bv virtue of the baronies which they X\o\& jure ec- clesice, yet are not ennobled in blood, and consequent ) no peers with the nobility. As to peeresses, no provision was made for their trial when accused of treason or felony, till after Eleanor duchess of Gloucester, wife to the lord pro¬ tector, had been accused of treason, and found guilty ot witchcraft, in an ecclesiastical synod, through the intrigues of Cardinal Beaufort. This very extraordinary trial gave occasion to a special statute (20 Hen. II. c. 9), which en¬ acted, that peeresses, either in their own right or by mai- ria^e, should be tried before the same judicators as peers of the realm. If a woman, noble in her own right, marries a commoner, she still remains noble, and must be tried by her peers ; but if she be only noble by marriage, then by a second marriage with a commoner she loses her dignity , for as by marriage it is gained, so by marriage it is also lost. Yet if a duchess-dowager marries a baron, she continues a duchess still; for all the nobility are pares, and therefore it is no degradation. A peer, or peeress, either m her own right or by marriage, cannot be arrested in civil cases , and they have likewise many peculiar privileges annexed to their peerage in the course ol judicial proceedings, peer sitting in judgment gives not his verdict upon oath, like an ordinary juryman, but upon his honour ; he answers also to bills in chancery upon his honour, and not upon ms oath : but when he is examined as a w itness either m civil or criminal cases, he must be sworn ; for the respect wTich the law shows to the honour of a peer does, not extend so far as to overturn a settled maxim, that injudicio non ere- ditur nisi juratis. The honour of peers is how ever so highly tendered by the law, that it is much more pena to spread false reports concerning them, and certain other great officers of the realm, than concerning other men ; scandal against them being called by the peculiar name of scandalum magnatum, and subjected to peculiar punish¬ ment by different ancient statutes. A peer cannot lose his nobility except by death or at¬ tainder, although there was an instance, in the reign o Edward IV., of the degradation of George Neville, duke of Bedford, by act of parliament, on account of his pover¬ ty, which rendered him unable to support his dignity. But this is a singular instance, which, by having happen¬ ed, serves to show the power of parliament; and, by hav¬ ing happened only once, proves how tender the parlia¬ ment has been in exerting so high a power. It has been said, indeed, that if a baron waste his estate, so that he be not able to support the degree, the king may degrade him ; but it is expressly held by later authorities, that a peer’eannot be degraded except by act of parliament. Matthseus observes, that nobility amongst the Romans was quite a different thing from what it is amongst us. The nobles, amongst the Romans, were either those rais¬ ed to the magistracy, or descended from magistrates; there was no such thing as nobility by patent. Bartoli states, that doctors, after they have held a pro¬ fessor’s chair in an university for twenty years, become noble, and are entitled to all the rights of counts. But this claim is not admitted at court; though Bartoli’s sentiments be backed by those of several other authors, particularly Chassanseus in his Consuetudines Burgundia, Boyer sur la i ^ Coutume de Berry, and Faber C. de Big. Def. 9. The last, | however, restrains Bartoli’s rule to doctors in law, and^ princes’ physicians. ... NOBLE, Nobilis, a person who has any privilege which raises him above a commoner or peasant, either bv biith, by office, or by patent from his prince. The word comes from the Latin nobilis, formed from the ancient noscibilis, distinguishable or remarkable. In England the word noble is of a narrower import than in other countries, being confined to persons above the degree of knights ; whereas abroad it comprehends not only knights, but what we simply call gentlemen. The no- bles of England are also called pares regni, as being noti- litatis pares, though gradu impares. Nobles, amongst the Romans, were such ashadthejt/j imaginum, or the right of using the pictures or statues of their ancestors; a right which was allowed only to those whose ancestors had borne some curule office, that is, had been curule aedile, censor, praetor, or consul. For a long time none but the patricii were the nobiles, because no person except those holding that superior rank cou d bear any curule office; and hence in Livy, Sallust, and other authors, the word nobilitas is used to signify the patrician order, and is hence opposed to plebs. To render the true meaning of nobiles still clearer, let it be observed, that the Roman people were divided into nobiles, noyi, and igm- biles. The nobiles were those who had the pictures or sta¬ tues of their ancestors; the wot-t were such as had only their own; and the ignobiles were such as had neither. The Roman nobility, by way of distinction, wore a half moon upon their shoes, especially those of patrician rank. The nobility of Greece were called Euirurpoui, as be¬ ing descended from those old heroic ancestors so famous in history. Such were the Praxiergidce, Firobutidce, Ale- mceonidce, and others, all of whom had many privileges annexed to their quality, and, amongst the rest, that they wore grasshoppers in their hair as a badge of nobility. Noble, a money of account, containing six shillings and eightpence. The noble was anciently a real coin struck in the reign of Edward III., and then called the pennyoj qoldi but it was afterwards called a rose-noble, from its being stamped with a rose. It was current at six shillings and eightpence. .. , j NOCERA DE PAGANI, a city of the kingdom ot Naples, in the province Principato Citeriore. It stands at the foot of a hill near the river Sarno, and is the see o a bishop, containing a cathedral, several parish churches and monasteries, with 6790 inhabitants. NOCTAMBULI, Noctambulokes, or JSigM-wamh a term of equal import with somnambuli, applied to persons who have a habit of rising and walking about in their sleep. The word is compounded of the Latin nox, mg and ambulo, I walk. See Somnambula. NOCTILUCA, a species of phosphorus, so called nt cause it shines in the dark without any light being thro ^NOCTURNAL, something relating to the night, m contradistinction to diurnal. . < Nocturnal, Nocturlabium, an instrument chiefly u>e at sea, in order to take the altitude or depression of some stars about the pole, and thereby to find the lati u hour of the night. Some nocturnals are hemispheres or p nispheres, on the plane of the equinoctial. Those oom® ly used amongst seamen are two ; the one adapted polar star, and° the first of the guards of the Little Bear, the other to the pole star, and the pointers ot tlie u This instrument consists of two circular P^ates to each other. The greater, which has a hand‘e 1 the instrument by, is about two inches and a halt in a If NOE ter, and is divided into twelve parts, agreeing to the twelve months; and each month is subdivided into every fifth day, so that the middle of the handle corresponds to ' that day of the year in which the star observed has the same right ascension with the sun. If the instrument be fitted for two stars, the handle is made moveable. The upper left circle is divided into twenty-four equal parts for the twenty-four hours of the day, and each hour is subdi¬ vided into quarters. These twenty-four hours are noted by twenty-four teeth to be told in the night. Those at the hour of twelve are distinguished by their length. In the centre of the two circular plates is adjusted a long in¬ dex, moveable upon the upper plate; and the three pieces, viz. the two circles and index, are joined by a rivet which is pierced in the centre with a hole, through which the star is to be observed. To use the nocturnal, turn the upper plate till the long tooth marked twelve be against the day of the month upon the under plate; then, bringing the instrument near the eye, suspend it by the handle with the plane nearly pa¬ rallel to the equinoctial, and viewing the pole star through the hole of the centre, turn the index about, till, by the edge coming from the centre, you see the bright star or guard of the Little Bear (if the instrument be fitted to that star) ; then the tooth of the upper circle, under the edge of the index, is at the hour of the night on the edge of the hour circle, which may be known without a light, by counting the teeth from the longest, which is for the hour twelve. N 0 L 237 NOD, or the Land of Nod. It was to this country that Cain withdrew after the murder of his brother. The beptuagint, as well as Josephus, read Naid instead of AW, and have taken it for the name of a place. It is not easy to ascertain what country this was, unless perhaps it was the country of Nyse or Nysea, tow'ards Hyrcania. St Je¬ rome and the Chaldaic interpreters have taken the word Nod in the sense of an appellative for vagabond or fugi¬ tive ; “ He dwelt a fugitive in the land.” NODATED Hyperbola, a name given bv Sir Isaac Newton to a kind of hyperbola, which by turning round, decussates or crosses itself. NODES, in Astronomy, the two points where the or¬ bit of a planet intersects the ecliptic. See Astronomy. NODUS, or Node, in Dialling, a certain point or pole , in the gnomon of a dial, by the shadow or light of which either the hour of the day in dials without furniture, or the parallels of the sun’s declination, and his place in the „dliS with furniture> are shown. See Dialling. L ^OkSA BARON, an island in the Eastern Seas, near tne south coast of Java, about twenty-five miles in cir¬ cumference. Long. 113. 20. E. Lat. 8. 20. S. NOESA CAMBAZ, or Pulo Cannibaz, an island in ne Eastern Seas, near the southern coast of Java, about 128 ve mi es in circu inference. Long. 109. E. Lat. 7. ™qN(gESA I(A0ER’ a sma11 island in the Eastern Seas, 3 sV S S0Uthern coast °r Ceram. Long. 129. 0. E. Lat. Ia sma^ istand in the'Eastern Lat 8 9 rsthC n°rthern coast of Timor- Long. 126. 30. E. in Ecclesiastical History, Christian here-- 3her Of F Lhird CeVtUry’ followers of Noetius, a philoso- es Int KP nSU,I * * * S’ Wh,° I)retended that he was another Mo- Jr fmr ^ ° ’.an^ ^at brother was a new Aaron. >erson ^ affirming that there is but one jpirit ",e Codhead; that the Word and the Holy ‘onseauencpbUf rff6™31 denominations given to God in 'e is clledV/i'^ °Perations 5 and that, as Creator, " the aposlks, ISfy gS."""’ ^ and aS descendinS NOGARCOTE, a town of Northern Hindustan, in the Nogarcote kingdom of Nepaul. It is now tributary to the Chinese, T II by whom it was taken in 1792. It is sixty miles east from Nollekens. Catamandoo. Long. 86. 5. E. Lat. 28. 2. N. NOGENT le Rotrou, an arrondissement of the de¬ partment of the Eure and Loire, in France. It extends over 402 square miles, is divided into four cantons and sixty-five communes, and contains 42,500 inhabitants. The capital is the city of the same name, situated on the river Huine, which here unites with the Arcisse, and both form a remarkable cascade. It is a well-built place, in a fruitful district, and contains 1250 houses, with 6850 in¬ habitants, who are employed in weaving linens and serges. Long. 0. 37. E. Lat. 48. 20. N. NOGENT sur Seine, an arrondissement in the de¬ partment of the Aube, in France. It is 365 square miles in extent, contains 30,600 inhabitants, and is divided into four cantons, which are subdivided into sixty-nine com¬ munes. The capital is the city of the same name, situated on the left bank of the Seine. It contains 750 houses, and 3400 inhabitants, who make some cotton goods and hosiery, but whose chief trade consists in sending wood to Paris. Long. 3. 55. E. Lat. 48. 5. N. NOIRMO U TIER, an island belonging to the department of La Vendee, and arrondissement of Les Sables d’Olonne, in France. It forms a canton, and is on the western side of the island of Bouin. It is about fifteen miles in length, and about four in breadth. Its situation is low, and, to pre¬ vent the sea from overflowing it, it is surrounded with powerful dikes. The soil is very rich within the enclosure, and produces heavy crops of corn. Beyond the dikes are marshes, which afford abundance of salt formed by natu¬ ral evaporation. The inhabitants are 5700, and many of them expert seamen, occupied in the fisheries. The chief town gives its name to the island ; it contains 1600 inhabi¬ tants, and has a harbour capable of admitting vessels of fifty or sixty tons. Long. 2. 21. W. Lat. 47.1. N. NOJA, a city on a river of the same name, in the pro¬ vince of Basilicata, in the kingdom of Naples. It suffered a loss of one fourth of its population in 1816, from an epide¬ mic disease. The inhabitants now amount to 5400, who cultivate much cotton. NOLA, a city of the kingdom of Naples, in the province of Terra dx Lavoro. It is the site of an ancient Roman city, buried under the effects of an eruption of Mount Ve¬ suvius, and is altogether a gloomy place, w ith a cathedral and thirteen other churches, containing 8950 inhabitants NOLLE PROSEQUI is where a plaintiff in an action does not declare in a reasonable time, in which case it is usual for the defendant’s attorney to enter a rule for the plaintiff to declare, after which a non prosequitur mav be entered. A nolle prosequi is esteemed a voluntary confes¬ sion that the plaintiff has no cause of action ; and therefore if a plaintiff enters his nolle prosequi, he may be amerced ; but if an informer cause the same to be entered, the de¬ fendant may have costs. NOLLEKENS, Joseph, a distinguished English sculp¬ tor, was born at London, on the 11th of August 1737. His father, a native of Antwerp, was a painter by profession, , xt ne?tl0ned by Horace Walpole, under the name of Old N ollekens, as an artist of some repute. He died whilst Joseph was still very young, and his widow having mar¬ ried again soon after his decease, the education of the youthful sculptor was much neglected. In his thirteenth year we find him in the studio of Scheemakers, where he exhibited his passion for his art by drawing and modelling early and late with the utmost assiduity. As his powers expanded, he became a candidate for the prizes offered to rising genius by the Society of Arts, which in the year 1 /oJ gave him a premium of fifteen guineas for a group of figures in clay; in 1760 they presented him with thirty 238 N 0 L Nollekens. guineas for a bas-relief, and during the same year they — 'gave him ten guineas more for a model m clay of a dan- cino- faun. He now began to attract considerable notice, as much on account of his quiet, mild, inoffensive appear¬ ance as from the unquestionable cleverness of his produc tions; and Garrick, proverbially an observer of character, set down Joseph as a rising man of genius. No artist ever greeted with even the comparatively limited applause which the works of this young sculptor ellclt^’Jltl ° longing to visit those miracles of genius which are trea sured in the land where art, like one of the native deities, sprang forth at once ; nor was Nollekens an pception the rule. In his twenty-third year, we find him m Ror«e’ fripndless and nearly reduced to want, but enthusiastically W "vo"cS. He modelled and carved in stone a bas-relief which brought him ten guineas £ in the following year, his group of nmociea before Al ander in marble, was honoured by the Soc ety of Arts wit a premium of fifty guineas. This success placed h,m above absolute dependence ; and he was now noticed by the ar lists in Rome, particularly Barry, a".d^s0 ^ Engjhe visitors amongst whom were Garrick and bteine. great English actor recognised him one day in the Vatican, invited him to breakfast next morning, and ended by sit^ ting to him for his bust, for the model of which Garrick paid twelve guineas to the artist. Sterne likewise sat to him at Rome; and the bust of the wit, which is in terra cotta, is considered as an admirable likeness, fo the last hour of his life Nollekens alluded to it with pleasure. “ Dance,” he used to say, “ made my picture with my hand leaning on Sterne’s head ; he was right. But8Nollekens, if he did not discover, profited by other means of enriching himself, which were less laborious than cutting”out beautiful forms from the marble. In 1/6 , fragments of antique sculpture were more frequently to be met with in Rome and its vicinity ; and legs, arms, heads, and other members of the body, strewed abou like wrecks, when collected and put together with skill, were sold at very considerable prices. Joseph being sprung of a race of picture-makers and sellers, his spirit for bar¬ gaining was probably never surpassed; and this, with his proficiency as a sculptor, enabled him not only to collect the best fragments at the most reasonable prices, but to supply deficiencies, and put them together to the greatest advantage. That this proved a most successful specula¬ tion, the following anecdote, amongst many of the same kind which might be related, will sufficiently show. A loose head of Minerva, which even Englishmen would not purchase, lay on the shelf of a regular dealer m such arti¬ cles, where it attracted the attention of Nollekens. It hap¬ pened that the body of the same, or some other heathen goddess, was brought to light, and purchased by him for fifty guineas. A consultation was held with his brother dealer ; the head and trunk were found of similar propor¬ tions, and the sculptor undertook to unite them as neatly as if they had both been chiseled from the same block of marble. This he accomplished, and Minerva stood forth restored. “ It was sold,” says his biographer and executor, Mr Smith “ for the enormous sum of one thousand gui¬ neas, and is now at Newly, in Yorkshire.” A few specula¬ tions equally profitable would soon have raised the artist to affluence. He was, besides, liberally patronised by his countrymen who annually migrated to the capital or Ita y, •md for whom he executed many considerable works in marble, of which Mercury and Venus chiding Cupid are considered as the best. For all his productions he receiv¬ ed immediate and liberal payment. Early misfortunes had made Nollekens acquainted with privation. Being an eco¬ nomist from necessity, he became frugal from habit; and this continued to influence his conduct when the necessity for parsimony no longer existed. He lived at Rome in a N O L very humble manner, and after ten years of profitable study, he returned to London comparatively rich. . ^" ■A p Nollekens was now prepared to commence business upon his own account, and accordingly he took a lease of ex¬ tensive premises in Mortimer Street. J he busts of Sterne and Garrick had spread his fame in his native country, and he no sooner opened his doors than orders came in abun¬ dance. In 1771 he was admitted an associate of the Royal Academy, and in the following year was elected a mem¬ ber, much to the satisfaction of George III., who soon af¬ terwards honoured the artist by sitting for his bust. The history of a man of genius is that of his works; and the few events which diversify his career, besides the succes¬ sive appearance of his productions, serve but little to relieve its characteristic monotony. Amongst these the choice of a partner for life is probably the most important. Nolle¬ kens was not unfortunate in this respect. The lady of his choice was the friend of Samuel Johnson, and, it report mav in aught be credited, the great critic was not insen¬ sible to her charms. Mrs Nollekens was endowed with no small share of that parsimonious spirit which her hus¬ band is said to have been so abundantly gifted withal, and was quite of his opinion as to one material point, namely, that the accumulation of wealth is not the least of our terrestrial pleasures. Nollekens was fully aware that his strength lay in busts; and as this line of art was an ex¬ ceedingly profitable one, it may readily be supposed that his time and talents were principally devoted to it. Amongst his sitters were the great, the beautiful, and the titled of the land ; and his profits were commensurate with the con¬ dition of his employers. He also found leisure to work¬ out, slowly and with much care, marble groups and statues, amongst which may be mentioned those of Bacchus, Ve¬ nus taking oft* her sandal, Hope leaning on an urn, Juno, Paetus and Arria, and Cupid and Psyche. His portraits were excellent, and there was generally a gentleness in the expression, and a gracefulness in the handling, which never failed to please. The likenesses of his busts were acknowledged by all, and the prettiness of the statues could not fail to be as generally admitted. But original vigour was wanting. He was one in whom the merely imitative faculty infinitely surpassed,, the imaginative. He could transfer to the marble, with the most perfect certainty and success, the features of a sitter; but he could not impart to the works of his hands that ideal beauty which etherealzes the subject, and is equal to the creation of a whole dynast; of gods and goddesses. As his strength lay in tne sculp¬ ture of busts, so he pursued it with unparalleled success, and his studio became a fashionable lounge for those who reckoned their heads of sufficient importance to their triends or their country to have them modelled and cut in marble. Towards his sitters, even the most exalted personages, he conducted himself with exceeding homeliness. Nolle¬ kens was all his life an unsophisticated child of nature, ana his manners would no doubt appear very uncouth, periap vulgar, to that class of people who were accustomed to the dignified respect of Reynolds, or have since adrm ed the courtly attentions of Lawrence. He had too m knowledge of human nature, however, not in his own b un manner to employ flattery for the purpose of securing stea¬ diness or a good position in the sitter. ,, , The want of imagination Nollekens partially supplied by a diligent study of the antique; and hence, whilst eve y statue surpassed its predecessor in delicacy of wo ma ship, the artist only attained eminence by inCf ith He was not one of those prodigies who reach thel , ■ as it were at the first flight. He was probably asj debted to nature as most men who have attained gre but never-failing zeal for his profession, joined to untt ing industry, would have raised to distinction a e. p mising artist than Nollekens. During a period of te y N O L i- from 1776 to 1786, he exhibited sixteen busts, five statues, ^and four groups, some of which were not in marble. The statues were those of Juno, Diana, Adonis, Cupid, and Mer¬ cury, in which he followed the beaten track, without at¬ tempting any thing new. Amongst his monumental effigies may be mentioned that which commemorated the three commanders who fell in Rodney’s great battle of the 12th April 1782. This being one of the government statues, the choice of the sculptor rested with the Royal Academy, and, after a fair competition, the design of Nollekens was that approved of. The monument is of large dimensions, and has a look of magnificence; but it is deficient in na¬ ture and sentiment, which can only be compensated to a limited extent by fine marble and fine workmanship. Ano¬ ther of his monumental works commemorates a lovely wo¬ man who died in childbed, and in it Religion is by her side holding up her finger to heaven. This production has al¬ ways been greatly admired for the simplicity and beauty of the design, and for the skilful manner in which it is exe¬ cuted. The love of the nation for busts seemed to increase with the supply, and Nollekens found ample employment for his talents. Between 1786 and 1800, he sent some dozen of these to the exhibition; but during that period he is well known to have executed thrice as many more, his prices increasing with his fame, from one hundred to one hundred and fifty guineas. From his Venuses and other statues of that description, we pass on to those pro¬ ductions which were more suitable to the genius of the ar¬ tist. The ten years which followed 1800 were the busiest in the life of Nollekens ; for although he was between sixty and seventy years of age, he continued to work with the same diligence and skill as in his youth. Upwards of fifty busts proceeded from his chisel, besides nearly a score of groups and statues. Amongst the former were the far- famed heads of Pitt and Fox, those of the Prince of Wales, afterwards George IV., Dr Burney, the Marquis of Staf¬ ford, the Duke of Bedford, and others. Of the twenty sta¬ tues and groups, the statue of Pitt for Cambridge attract¬ ed most attention at the time. The Venus anointing her¬ self, however, was the favourite work of Nollekens, though it is deficient both in originality and in propriety of action. The workmanship of the statue, however, is very fine. By temperance and perpetual equanimity of mind, Nol¬ lekens, although declined into the vale of years, still la¬ boured as assiduously as ever. From 1810 till 1816, the last year of his exertions, he modelled some thirty busts, not a tew of which are ranked amongst the most valuable of his works. The principal heads are those of the Duke o York, Lords Castlereagh, Aberdeen, Erskine, Egre- mont, Liverpool; Canning, Perceval, Benjamin West, and ihomas Coutts the banker. In 1817 Nollekens lost his wife, but being above eighty years of age, he was beyond t lat period of life when grief can be very acutely felt; and it is even hinted by some of his biographers, that his na- tural parsimoniousness, not being kept alive by the exam¬ ple of Ins still more penurious lady, assumed a milder form, ne became in every respect more liberal, and presents to ie needy members of his profession, with donations to be- aevo ent institutions connected with art, were occurrences so uncommon as formerly. For several years he lin- ^ered in that state of listlessness in which the mind shares -ne decay of the body, and dissolution, being preceded only y a gradual and almost imperceptible sinking of the vital owerg when it does take place, may be said to be felt )o ie*" ^an nbserved. Nollekens departed this life on the 7 ° 1823, leaving a fortune of some two hundred ipPnSan Poun^s* 1 his appears a vast sum indeed to have , • i a^cumulated by an artist; but several other distin- hprJn ornarrijnts °1 the profession have been even more ail J rewarded than he was, and have only left less be- ley were either less industrious or less economical. N O L 239 Vith regard to the merits of Nollekens as an artist, Nollet. little need be added to what has already been said. It was' in bust sculpture that he most excelled; and here the chief attraction is ease and simplicity, whilst the chief defect is a want of dignity and sentiment. “ There is little dignity,” says his biographer, “ but much truth; sometimes mechanic vigoui, never exaggeration. It cannot be denied, however, that his vigour is often tame, his serenity languid ; that his women aie often beautiful without sentiment, and that in his men he is apt to miss that manly breadth of character which is the token of all that is great and noble.” There is, however, some cant and affectation in all this. It is not the business of an artist to look into the soul or read the characters of men and women. He has to do only with material forms, and all that can be expected of him is to interpret faithfully, and fix permanently, that natural ex¬ pression by which each individual is distinguished. Mr Nollekens, like Crabbe, was “ nature’s sternest painter, but her best.” Adhering to strict truth, rather than dealing in sentiment, he did not feel himself at liberty to misinterpret the signs of natural expression according to the rank of his sitter, and give the intellectual grandeur of a forehead like Burke s to the features of Castlereagh because he was a lord, or to those of Mr Coutts because he was a banker and could afford to pay for it. (Rt R> R>j • ■‘^^LE F, Jean Antoine, regius professor of physics in the College of Navarre, and member of the Academy of Sciences at Paris, of the Royal Society of London, of the Institution of Bologna, and of the Academy of Sciences of Erfurt, was born at Pimbre, in the diocese of Noyon on the 17th of November 1700. He was the son of re¬ spectable but not wealthy parents, who, to make up for the want of riches, determined to give their son a good education. They sent him to the College of Clermont in Beauvoisin, and afterwards to Beauvais, there to finish his introductory studies. The progress which he made in the different classes decided them to send him to study phi¬ losophy at Paris; and having intended him for the cle¬ rical order, they considered the strictness and purity of his morals, together with his unwearied application to study, as sufficient proofs of his vocation. The young Nol¬ let yielded without reluctance to the wishes of his parents. As soon as he was capable of showing an inclination for any thing, he had discovered a taste for physics; but this had not become his ruling passion; and he therefore sacri¬ ficed it to the study of scholastic divinity, to which he wholly dedicated himself during the time of his probation in 1728. No sooner had he been invested with the deacon- ship, than he solicited and obtained a license to preach. This new occupation, however, did not make him entirely lose sight of those studies which had first engaged his at¬ tention, and insensibly began to occupy a greater portion of his time, which was now more equally divided between theology and the sciences. The latter, however, prevail¬ ed ; and thenceforth he entered upon the study of phy¬ sics with an ardour which was only increased by that kind of privation to which he had been long subject. He was received into the Society of Arts established at Paris un¬ der the patronage of the Count de Clermont. In 1730, the Abbe Nollet was engaged in a work in conjunction with Reaumur and Dufay of the Academy of Sciences. In 1734 he went to London in company with MM. Dufay, Duhamel, and Jussieu; and his merit procured him a place in the Royal Society without any solicitation. Two years afterwards, he went to Holland, where he formed an inti¬ mate connection with Desaguliers, s’Gravesande, and Mus- schenbroeck. On his return to Paris, he resumed the course of experimental physics which he had begun in 1735, and which he continued till 1760. These courses of physics first suggested the idea of giving particular courses in other branches of science, such as in chemistry, anatomy, and 240 N O M Nomades natural history. In 1738, the Count de Maurepas pre- II vailed on Cardinal Fleury to establish a public class tor Nomarcha. • ntai nilvsiCS; and the Abbe Nollet was appcn^f11 vaileci on L-arainai ricuiy tu « r . j experimental physics; and the Abb6 Nollet was appointed the first professor. In the beginning of the year 1739, he was admitted a member of the Royal Academy °f Sciences , and in the month of April following, the king of ^ardima, intending to establish a professorship of physics at lun > invited the Abbe Nollet to visit his dominions. In m , he was honoured with an invitation to Versailles, to i struct the dauphin in experimental philosophy ; and the king and royal family were often present at h,s lef u"e&- The young prince, until the period of his death, showed marks of the strongest attachment to this ingenious phdo^ sopher • and even prevailed upon him to go and p< „ to a man in power whose patronage might be of service t him. The Abbe Nollet accordingly waited upon the ph^ man, and made him a present of his woi s. any works of that kind,” said the patron coldly, at the sam time casting a look at the volumes before him. > plied the Abbe, “ will you allow them ^ re™ain 'n you antichamber? There, perhaps, there may be found men « genius who will read them with pleasure. In the montli of April 1749, he made a tour in Italy, having been sent thither for the purpose of making observations. At iu- rin, Venice, and Bologna, the Abb6 Nollet appeared as a deputy from the philosophers of the rest of Europe. D ring Ids short stay in Italy, the wonders of electricity were not the only object of his researches ; every part of phy sics the arts, and agriculture, came equally under h.s no¬ tice. Upon his return through Turin, the king of Sard nia, sensible of his merit, offered him the order of St 1 la - rice which, however, he did not think proper to accept without his sovereign s permission. In 17o3 king in¬ stituted a class of experimental philosophy in he Royal College of Navarre, and appointed the Abbe Nollet pro es sor. In 1757 he received from the king a brevet appoint ing him preceptor in physics and natural history to ie Irfans de la France. In the month of August the same year he was appointed professor of experimental philo¬ sophy in the school of artillery, which was at that tme established at La Fere. In the month of November fol¬ lowing, he was admitted as a pensionary of the Royal Aca¬ demy of Sciences. M. de Cremillo, director-general of artillery and fortification, having founded a class of expe¬ rimental philosophy at Mezieres m 1761, the Abbe Nollet was appointed professor. This celebrated and laborious philosopher, who rendered the most important services to physics by the discoveries with which he has enriched every branch of this science, but particularly electucity, died^t Paris on the 25th of April 1770, aged seventy. His works are, 1. Several Papers inserted in the Memoirs of the Academy of Sciences, amongst which one on the Hearing of Fishes is particularly valuable ; 2. Lemons de Physique Experimentale, in six vols. 12mo; 3. Recueil de Lettres sur I’Electricite, three vols. 12mo, 1753 ; 4. Essai sur I’Electricite des Corps, one vol. 12mo ; 5. Recherches sur les Causes particulieres des Phenomenes Electriques, one vol. 12mo'; 6. L’An des Experiences, three vols. P~mo, 1770. .... i NOMADES, a name given in antiquity to seveial na¬ tions whose whole occupation was to feed and tend their flocks, and who had no fixed place of abode, but were constantly shifting their ground, according to the conve¬ niences of pasturage. The word comes from the Cnee ', wuw, pasco, I feed. NOMARCHA, in Antiquity, the governor or comman¬ der of a nome or department. Egypt was anciently divid¬ ed into several regions or departments, called names, from the Greek lo.aog, taken in the sense of a division ; and the officer who had the administration of each nome from the king, was called nomarcha, from io/aos, and command. N O M NOMBRIL Point, in Heraldry, is the next below the Not* fess point, or the very centre of the escutcheon. Sup- P- 1 . 9 ’ , aiwirWl into two eaual parts eo-n^lhe Escutcheon to be divided into two eq„a, pant J F : » . c tWn d Visions is the nombnl, !mn‘ rerwgtlieef”«"st of these divisions is the notnbril, ^ an NOMeE or ^Avnsfin Algebra, denotes any quantity^ with a sign prefixed or added to it, and by which it ,s con- fected with some other quantity, so that the whole becomes a binomial, trinomial, or the like. NOMENCLATOR, in Roman antiquity, was usually a slave who attended upon persons who stood candidates tor offices, and prompted or suggested to them the names o all the citizens they met, that they might court them and call them by their names, which amongst that people was the highest piece of civility. . , . Nomenclators, amongst botanical authors, are those who have employed their labours about settling and adjust¬ ing the right names, synonymes, and etymologies of names, in^regard to the whole vegetable world. - NOMENCLATURE, Nomenclatura, a catalogue of several of the more useful or radical words in any language, with their significations, compiled in order to facilitate the use of such words to those who are to learn the tongue, such as the Latin, Greek, French and Italian nomencla¬ tures : or it is a system of technical language, by which the objects of any science are denoted, as, for instance, the pre¬ sent language of chemical science, usually called the new. chemical nomenclature,” from its recent construction. NOMINALISTS, a sect of school philosophers, the dis- ^ ciples and followers of Occam, or Ocham, an English cor¬ delier, who flourished in the fourteenth century. They re¬ ceived the denomination of Nominalists, because, in opposi¬ tion to the Realists, they maintained that general terms, and not things or images, are the objects of the mind w en engaged in abstract reasonings or inquiries. This sect had its first rise towards the end of the eleven century, and pretended to follow Porphyry and Aristotle; but it was not till Occam’s time that they bore the name of Nominalists. The chief of this sect, in the eleventh cen- tury, was a person named John, who, on account of h s lo- gical subtilty, was called the sophist; and his principal dis¬ ciples were Robert of Paris, Roscelin of Compiegne, an Arnoul of Laon. At the beginning the Nominalists had the upper hand; but the Realists, though greatly divided amongst themselves, were supported by men of eminent abilities, such as Albertus Magnus, Thomas Aquinas, and Duns Scotus. The Nominalist sect thus fell into disrepute till Occam, in the fourteenth century, again revived t, ana filled France and Germany with the flame of disputation. His followers having joined the party of the F™1* monks, who strenuously opposed John XXII., that pop himself, and his successors after him, left no means tried to extirpate the philosophy of the Nommahsts, wh h was deemed highly prejudicial to the *c^l'eo|- and hence it was that, m the year 1339, the , L. Paris bv a public edict, solemnly condemned and prohi fd the pffiophy ofOccam, which was that of t he Nonoinal- • The consequence was, that the Nominalists flo Tor, ?han e°,T In the fifteenth century the controve », was continued with more vigour and animosity ha b fore- and the disputants, not content with using merey the force of eloquence, had frequently recourse to more dangerous weapons, and battles were the consequent ^ a philosophical question which neither side understood, i most places, however, the Realists maintained a. 1 over the Nominalists. Whilst the famous Gerson and most eminent of his disciples were living, the Nominal were in high esteem and credit in the university o ^ but. upon the death of these patrons, the to 1^ changed much to their disadvantage. > Bishop Louis XL, at the instigation of his confessor, the NON NON 241 It is much used in the calculation of Nonagon orfea- of Avranches, issued a severe edict against the doctrines pole of the ecliptic, ti of the Nominalists, and ordered all their writings to be solar eclipses. - . seized and secured, that they might not be read bv the NONFAflOlM „ i, • ... . xt 11 Z S1' PeoP,e ; but the same monarch mitigated this edict the a regular nonagon or^hal thJTna-llT6 ^ — ^ folio,.-ing, and pernntted acne of the books of that all e"qual, if ^ sect to be delivered from their confinement; and, in the of the tangent of 70° to the radius 1 ^ ° f year 1481, he not only granted a full liberty to the Nomi- NONCONFORMISTS fWo . V x- • • , nalists and their writings, but also restored that philosophi- established worship. Nonconformists 1 m cal sect to its former authority and lustre in the university, to be of two sorts First those wlm ah * rheld The student of philosophy will do well to examine the divine worship in the researches of Brucker and the other historians of philo- ligion, and attend the service of no olher persSua^0n "Z' sophy on the subject of Nominalism, and also to peruse condly, those who offend thro,.ah Persaasion- ^e- what is to be found on the subject in the works of Mr Du- mistaken or perverse zeal Bv^he Fn churchmen call a gald Stewart and Dr Thomas Brown. since the Ume of R pfh ? the English laws enacted NOMINATIVE, in Grammar, the first case of nouns dissenters were constdereLs^ which are declinable. The simple position, or laying down both were supposed to be equally schismaRc nnotcom of a noun, or name, is called the nominative case ; yet it is municating with the national church ; vdth this diffm™ not so properly a case, as the matter or ground whence that the Papists divided from it unon ml pH.1 M ! i ’ the other cases are to be formed, by the several changes roneous reasons, but many of the dissentpr® ' * er" or inflections given to this first termination. Its chiefSse of indifference, o^ln othL words for what wT T'T* is in being placed m discourse before all verbs, as the sub- no reason at all. “ Yet certainly as sTr W;nt «Tg ject of the proposition or affirmation. stone observes «nnr onLT. J ’ • , W 1.lham Black“ NONA, a city of Dalmatia, now remarkable only for its of compulsion and intolerance* ^TheTin ^ ^ their pla?S ruins, but which are so buried by the repeated devasta- is by no means ^ tions to which that unhappy city has been exposed, that ment. If, through welkness If iineUec^throuHr0^- PHUmsh" scarcely any vestige of them appears above ground. “I went ed nietv thrnmdi npw^ teflect, thiough misdirect- thither,” says Fo& in his T.'alels, « in ifopes of finding 0r> r0rthy •* notlc,e’ but 'T“ disappointed. No- tage in herding with a party! men quarrel wTthlh^cX siastical establishment, the civil magistrate has nothing to to with it, unless their tenets and practice are such as threaten ruin or disturbance to the state. He is bound indeed to protect the established church; and if this can be better effected by admitting none but its genuine mein- become a fetid pool, by means of a little muddyTive? that liberty so t^do th^disnolw^ffl11611^ ^ iS certainly at falls into it, after a course of about six miles throuS he vour 2nd d scretion i T h ^ belng matter of fa- rich abandoned fields of that district. The ancient inha! persecution fo^di^r^v nf P01 bfng once .^^ed, all bitants turned this water into another channel and madp absurd tlmv m l . ^ 0Plnions> however ridiculous or it ran through the vallev of Drasnfch to" dm sea and to “cv and ’f conb^7 t0 eVery PrinciJ,le “f the remain, of the bank'raised by them for that nu’rnose Sf he der^ to T 1‘T mmeS 0nd sub‘>''‘li"‘>tio„ are s«i„ t0 be seen But> notwithsLding £ ^ „ttK toS ^„° em X0"',,!!" ™Cfah Of this district, and the dreary situation of Nona in particu- unknown form nf nrilf.g nT\i J g in a known or ar, the inhabitants have not lost courage, but, animated by kind, must be left to the opdon^f eve^ ’tht' Same e privileges granted to them, have endeavoured to bring judgment.” See Toleration ^ inUn S puvate the population and agriculture once more into a flourishina NON-NATURAT S in ,,re Puvate persons, who have derived no inconsider- NON-OBSTATVTF , v; / j- able advantage from the fishina- and if flip,, l-o i i * . • oLAlS IE, notwithstanding, a clause frequent .he country for fore.gn salt hsh. To the left of the NON-SUIT signifies the dropping „f a 6uit or action> thing is to be seen that indicates the grandeur of the Ro¬ man times; neither are there any remains of barbarous magnificence to put one in mind of the ages in which the kingsof the Croat Slavi had their residence there.” It stands on a small island, surrounded by a harbour, which in for¬ mer times was capable of receiving large ships, but is now auu save at least a part oi t »™s a narrow channel in this place, which teLsi vfo U "h,en ‘h? is so ‘Person continues under the ao-f^f twenty1 o^e tllat f J?0NES’ non^ ln the Roman calendar, the fifth day gp’cxis “i^ ^ eckoned from its intersection with thirtv’-onc days Xh thXX h!,Xy!^ . L?““a’?ad egree of thp ppi; X , point, or ninetieth '•-etion, or equal to the distanXof theltetoh from the nof aSthet XTXsXXX ^ ^ 2 H 242 N O O NOR Nonjurors I! Noogoo. NONJURORS, those who refused to take the oaths to government, and who were in consequence under certain incapacities, and liable to certain severe penalties. It can scarcely be said that there are now any nonjurors in the kingdom ; and it is well known that all penalties have been removed both from Papists and Protestants, former¬ ly of that denomination, as well in Scotland as in England. The members of the Episcopal church ot Scotland were long denominated nonjurors ; but they are now improper¬ ly called so, because the ground of their difference from the establishment is more on account ot ecclesiastical than of political principles. j t> ^. NONIUS, Peter, in Spanish Nunez, a learned Portu¬ guese, and one of the most able mathematicians ot the sixteenth century, was born at Alcacer. He was precep¬ tor to Don Henry, son of Emmanuel, and taught mathe¬ matics in the university of Coimbra. He published the following works, by which he gained great reputation, viz. 1. De Arte Navigandi; 2. Annotationes in 1 heorias 1 lane- tarum Purbachii, which are greatly esteemed; A trea¬ tise De Crepusculis ; 4. A treatise on Algebra, it is ob¬ served in Furetiere’s Dictionary, that Peter Nonius, m 1530, first invented the angles of 45 degrees made in every meridian, and that he called them rhumbs in his language, and calculated them by spherical triangles. No¬ nius died in 1577, aged eighty. Nonius, the name given to the common device foi sub¬ dividing the arcs of quadrants and other astronomical in¬ struments, from the persuasion that it was invented by the above-named Nonius or Nunez. The generahty of astro¬ nomers, however, transferring the honour of the invention from Nunez to Peter Vernier, a native of Franche Comte, have called this method of division by his name. But Mr Adams, in his Geometrical and Geographical Essays, has shown that Clevius the Jesuit may dispute the invention with both of them. The truth seems to be, that Nunez started the idea, Clevius improved it, and Vernier carried it to its present state of perfection. The method of Nu¬ nez described in his treatise De Crepusculis, printed at Lisbon in 1542, consists in describing within the same quad¬ rant 45 concentric circles, dividing the outermost into 90 equal parts, the next within into 89, the next into 88, &c. till the innermost was divided into 46 only. On a quad¬ rant thus divided the plumb-line or index must cross one or other of the circles very near a point of division ; and hence, by computation, the degrees and the minutes of the arch may be easily ascertained. This method is also described by Nunez in his treatise De Arte atque Ka- tione Navigandi, where he would fain persuade himse f that it was not unknown to Ptolemy. But as the degrees are thus divided very unequally, and as it is very difhcult to attain exactness in the division, especially when the numbers into which the arches are to be divided are m- composite, the method of diagonals, first published by Dirges in a treatise entitled Alecs seu Scales Mathematiccs, printed at London in 1573, and said to be invented by one Richard Chenseler, was substituted in its stead. Nonius s method, however, was improved at different times and by different persons; and it must be acknowledged, that if Vernier saw either the original or any of the improvements (and there can be little doubt of his having seen them all), his merit consists only in having applied to an useful practical purpose the speculative invention of another ^NONNUS, a Greek poet of the fifth century, and a na¬ tive of Panopolis, in Egypt. He was the author of an heroic poem in forty-eight books, entitled Dionysiacorum, and a paraphrase in verse of St John’s Gospel, which may serve as a commentary thereupon. T i j ,, NOOGOO, one of the small Friendly Islands, three miles north-east from Tongataboo. NOOGOONAMO, one of the Hapaee Islands, a little % to the south-east of Haano. „ , T e 7 NOOHEVA, or Federal Island, one of the Ingraham ^ Islands, in the Pacific Ocean. Long. 140. 5. \\. Eat. 8.^ 58. S. NOOLDROOG, the capital of a district of Hindustan, in the province of Bejapoor, situated between the 17th and 18th degrees of north latitude. Long, of the town /6. 37. E. Lat. 17. 42. N. . NOONT AL, a small and mountainous district ot North¬ ern Hindustan, in the province of Cashmere, situated about the 35th degree of north latitude. NOOPORE, a town of Hindustan, in the province of Gujerat. Long. 73. 50. E. Lat. 21. 11. N. . NOOR ABAD, a town of Hindustan, in the province of Agra, situated on the Sank River, over which there is a bridge of seven arches, built of stone. Adjoining there is a lar^e garden, laid out by Aurungzebe as a monument to the memory of Goona Begum, a princess of great personal and mental accomplishments. The shrine contains this Persian inscription : “ Alas, alas, Goona Begum. Long. 78. 6. E. Lat. 26. 25. N. . NOORNAGUR, the capital of a district of the same name, in Bengal, situated at the foot of the Tipperah Mountains. Long. 91. 5. E. Lat. 23. 45. . NOORPEELY, a town of Hindustan, in the province of Orissa, twenty miles north of Jager. . NOORRI, a "village of Hindustan, in the province of Sinde, situated on the banks of the. Fulalee, fifteen miles below Hyderabad, between which city and the river there is a free intercourse. Lat. 25. 8. N. . . , „ XT NOOTKA, or Vancouver’s Island, an island ot New Georgia, on the western coast of North America. Black granite, mica, grit for grindstones, and hematites, are found there. In some places the vegetable earth forms a bed of two feet in thickness. The climate here is favour¬ able to vegetation, being much milder than that of the eastern coast of America in the same latitude. Nootka Sound, situated in latitude 49. 35. north, and longitude 126. 36. west, was discovered by Captain Look in The water in the sound is from forty-seven to ninety fa¬ thoms deep, and there are many anchoring p aces and good harbours. All the mainland opposite this island, compiis- ing New Georgia, New Hanover, and New Albion, is claimed by the United States, and generally goes by the name of the Western Territory. See Western Iersi- NORD, a department of France, and, as its name denotes, the most northern of the kingdom. It has been formed out of French Flanders, French Plennegau, and the Um bresis extending in north latitude from 49. 58. to 51. a-, a,,d in east Jgi.ude from 2 1. to 3. 9. Its surface n 2406 square miles, or 681,500 hectares, in extent, level plain, with few elevations; and only hill on which Cassel stands, attains the height of 400 tee above the level of the sea. The sod is genera by — and heavy, but, owing to good cultivation, is hig y > except on some sandy moors on the sea-shore kirk. According to the Description Topographqueet St^ tistique, the land under the plough amounts to S-M hectares, the meadows to 138,428, the woodland t 62^ the morass and other uncultivated fields to lo’000, [the remainder is occupied by rivers, roads, gardens, and ^ sites of cities, towns, and villages. In 110 ot j\ d 3S. France is agriculture practised with so much ski) < n siduity as in this department. The fields, by go«d ing and abundance of manure, yield crops c°nsj^ed by out fallowing; and corn is almost geneially ^ green crops, which, especially the clover, 18 ]ands> matched in the province of Flanders, in the B e Abundance of wheat, winter and summer bailey, \#it( Jjtot-i taii. NOR ;csand the several kinds of pulse, are produced; and although the land is not quite two English acres to each individual of the population, the produce is more than sufficient for their consumption, and much of it is exported. ^ The department is watered by numerous streams, the greater part of which are emptied into the Scheldt, which enters from the department of the Aisne, and, after a course of about forty-five miles, passes through the Ne¬ therlands to the sea. Some few of the rivers fall directly into the sea, and others reach it by the Sambre and the Meuse. There are several canals, used either for naviga¬ tion or for the purpose of irrigation. The inhabitants of the department amount to about 900,000, who, besides the employment connected with agriculture, are occupied in the fisheries, and in manufactures. The sea-fishing con¬ sists in the taking of herrings, cod, turbot, and others, and is extended also to the Greenland whale-fishery ; whilst that on the rivers and canals furnishes a large portion of food. The chief manufacture is that of linen, including cambrics, damask table-linen, lawns, and thread-lace. This is said to employ 40,000 looms, and to furnish occupation for more than 160,000 persons in spinning. Some woollen and cotton goods are also made, as well as hats, hosiery, and leather. There are likewise many oil-mills, brewer¬ ies, and distilleries of corn-spirits. The chief trade is carried on at Lush, but there are also extensive works at Douay, Cambray, Dunkirk, and Valenciennes. This de¬ partment belongs ecclesiastically to the bishopric of Cam¬ bray. The chief court of law is held at Douay ; and the department elects eight deputies to the legislative body. The religion is that of the Roman Catholic church, though there are a few Protestants, who support three chapels or churches for their worship. Nord, Cotes du, a department of France, formed out of a part of the ancient province of Bretagne, and ex¬ tending in north latitude from 48. 16. to 48. 56. and in west longitude from 2.12. to 3.49. It is bounded on the north by the sea, on the east by the department of Ille Vilaine, on the south by that of Morbihan, and on the west by Finisterre. It is 3022 square mHes, or 736,720 hectares, in extent, and contains five arrondissements, forty-seven cantons, and 376 communes, with a population of 540,000 persons. It is a level plain, interspersed with a few gentle elevations. The shore is covered with rocks and small islands, and encircled by a belt of sandy soil, but intermix¬ ed with a few rich meadows near the rivers. The streams are all of but short course, and only navigable at the time ot high tides. The climate is temperate, but moist and changeable. Agriculture is in a backward state, as is the civilization of the inhabitants, who speak for the most part a kind of Welsh, and live mostly in small villages or little arms; but, by subsisting chiefly on bread made of oats or buck-wheat, they furnish grain sufficient for their own con¬ sumption, and produce, besides, hemp and flax, which are converted into wearing apparel in their own houses, or made into sail-cloth and other articles. The fisheries give employment to some of the inhabitants ; and iron mines, of " nc i there are a few, furnish occupation to others. Much ioney and bees wax is obtained from the department. It XT^T?^r^puties t0 the legislative chamber. RDBOTTENS and Wasterbottens, two provin- ° the ??0St nortllern P^t of Sweden, now formed into ne, extending in north latitude from 63. 28. to 69. 20., extern QnI*tUt^e *r0nl to ^ ^ antl liaving an trv ’ t° S(luare mles. It is a mountainous coun- Sin" T^Se,d with ,ake?- The ^ter lasts nine months, few cLu 1'Ch1 the surfaee is covered with snow; but in a and hem 616 S^i°tS a kttde rye ancl barley* and some flax few treeJ5’ rna^ ^ cultivated. In the most northern part firs tk ^r°W ’tke soutb there are some birches and the cows yield some butter; but the chief animals NOR 243 Nores. are the rein-deer, which form a great article of food. The Xorden whole population is estimated at 75,000. There are no places in the province that can be considered as towns, though Tornea and Pithea are called so. NORDEN, Prederick Louis, an ingenious traveller and naval officer in the Danish service, was born at Gluck- stadt, in Holstein, in the year 1708. He was well skilled in the mathematics, ship-building, and especially in architec- tuie; and in 1 <’32 he obtained a pension to enable him to travel for the purpose of studying the construction of ships, particularly that of the galleys and other rowing vessels used in the Mediterranean. He spent nearly three years in Italy; but Christian VI. being desirous of obtaining a circumstantial account of Egypt, Mr Norden, whilst at Florence, received an order to extend his travels to that country. How he acquitted himself of this commission appears from his Travels into Egypt and Nubia, printed at Copenhagen in 1756, and which were soon afterwards translated into English by Dr Peter Templeman. In the war between England and Spain, Mr Norden, then a cap¬ tain in the Danish navy, attended Count Ulric Adolphus to England, whence they went out as volunteers under Sir John Norris, and afterwards under Sir Chaloner Ogle. During his stay in London, Mr Norden was made a fellow of the Royal Society, and gave the public drawings of some ruins and colossal statues at Thebes, in Egypt, with an ac¬ count of the same in a letter to the Royaf Society, 1741. His health was at this time declining, and having repaired to France, he died at Paris in 1742. Norden, a seaport town of the kingdom of Hanover, in the province of East Friesland, and the capital of the baili¬ wick of the same name. It stands at the mouth of the river Leysand, but the harbour is not good; and it con¬ tains 814 houses, with 4917 inhabitants. It is much re¬ sorted to in the summer as a sea-bathing place, and there are several distilleries and breweries, with some export of corn. Long. 7. 6. 1. E. Lat. 53. 35. 57. N. NORDHAUSEN, a city, the capital of the circle of Holstein, in the Prussian province of Erfurt, on the river Zorge. It is an ancient town, surrounded with walls, and defended by several towers, and it contains one Catholic and seven Lutheran churches, with 1456 houses, and 9684 inhabitants, who are manufacturers of woollen cloths, espe¬ cially flannels, lackered ware, leather, seed-oil, corn-spirits, nails, soap, and hats, besides many smaller articles. There is also a considerable trade in corn, cattle, wool, and bacon. Nordhausen contains a school of considerable celebrity, three hospitals, and an orphan-house. Long. 10. 43. 40* E. Lat. 51. 30. 22. N. NORDLAND, a province in the most northern part of Norway, extending over 45,000 square miles, the whole of which, with a slight exception, is within the polar circle. It is divided into two bailiwicks, Nordland and Finmark, which together contained in 1801 a population of 78,425 persons; but, within the thirty-six years that have since elapsed, it is supposed to have somewhat increased. The climate for- bids extensive agriculture, but some little barley is grown as high as the latitude of seventy degrees. The chief sub¬ sistence of the inhabitants depends on the fisheries and the chase ; and the only articles of exportation are salted fish, furs, hides, cind feathers, which 3x0 sent to Bergen in ex- change for the few foreign commodities that are wanted. NORDLINGEN, a city of Bavaria, in the circle of the liezat, and the capital of the bailiwick of its own name. It stands on the river Eger, and is surrounded with walls, defended by towers and bastions, and with ditches. It contains /80 houses, and 6130 inhabitants, who make flan¬ nels, cai pets, blankets, and other woollen goods, and have considerable trade in wool, corn, and leather. Long. 10. 23. 10. E. Lat. 48. 51. N. NORES, Jason de, a scholar, poet, and philosopher, 244 N O II NOR Norfolk, was born at Nicosia, in Cyprus* Having lost his ^ -when the Turks made themselves masters of that island in 1570, he retired to Padua, where he acquired g^at re¬ putation by teaching ethical philosophy. His character had that cast of severity which is often the c°"s^e^Ce_ of scholastic habits. He was one of those men who d^ cuss every thing without being capable of thoroughly un derstanding an/thing. The Pastor Fido o Guanni made its appearance, and in consequence pastorals beca sh ion able species of reading throughout all Italy* Nores, who did not relish works of this kind, attache P duction of Guarini, who entirely confuted 1 im in a piece printed at Ferrara in 1588. Nores made a reply two years afterwards; and the poet was preparing an a^wer still more severe than the former when h.s antagonist died of grief, occasioned by the banishment of his ^ san^0 having killed a Venetian m single comTba!: nHflen !e^thers hind him a great many works, some in Italian, a ^1’ 3^“ ^r'e”’theWoria an. its Pan, Ve^ 1571 8vo ; 4. Introduction to three books of Anstot es Rhetoric Venice, 1548, 4to; 5. A Treatise on the aid which Comedy Tragedy, and Epic Poetry, may receive from Mo- raTphiiosophy. ^is Latin works are, 1. losophiam Ciceronis, Padua, 1576 8™! a Brev.s et d tincta Summa Prateeptorum de Arte D'-"u,,one CWnisPhiiolphite 4to ; 4. Interpre ?atio in Artem Poetiean, Horatii. In all h.s works we e- mark 0IN.T ISLET> a small island on the north coast of ew olland, in the Gulf of Carpentaria, near the island tfoote %lan(*E Long. 136. 45. E. Lat. 13. 37. S. s r. 0RTH Rocks, otherwise called St Patrick’s Rocks, ^ a seat of stone amongst them called St Patrick’s air, w lence the rocks have taken this second name, are *ol. xvi. situated in the harbour of Donaghadee, in the county of Northal- Down, and province of Ulster, in Ireland. From north to lerton south they are about two thirds of a league, between which N ^ is clear good ground. But care must be taken to avoid the °\q^ ' south rock, on which many ships have perished; for it isv L > overflowed by every tide, and no crew can save their lives if the wind blows high. This rock stands fully a mile from the shore. NORTHALLERTON, a borough, market-town, and parish, in the north riding of the county of York, 225 miles north-north-west from London. It is situated on the side of an eminence, which, rising from the banks of a branch of the river Swale, called the Wiske, slopes gently towards the east, and consists chiefly of one broad street about half a mile in length. It is surrounded by an ex¬ ceedingly rich and fertile tract of country, the parish alone containing 13,000 acres of land. The market-place is spa¬ cious, and is surrounded by commodious houses, built prin¬ cipally of brick. The town was formerly celebrated for its fine ales ; its chief manufactures at the present time are those of leather and linen. The church is a handsome Go¬ thic structure, built in the form of a cross, and containing several fine old monuments. There is likewise a grammar school, of ancient but uncertain foundation. A new prison was erected, as a relief to the county jail of York, several years ago, according to a plan of Howard. Here was for¬ merly a castle, as well as a convent for nuns ; but no vestige of either now remains. This town has a weekly market on the Wednesdays, and five fairs are held during the year. At a short distance from the town was fought the cele¬ brated battle of the Standard, in the year 1138, between the English and the Scots, when the latter were defeated. The government of the borough is vested in a bailiff, de¬ puted by the Bishop of Durham, who is lord of the manor; and it returns two members to parliament. The popula¬ tion of the parish amounted in 1821 to 4431, and in 1831 to 5118 ; that of the borough amounted in 1821 to 2626, and in 1831 to 3004. NORTHAMPTON, a borough and capital town of the county of the same name, sixty-six miles north from Lon¬ don. It is situated on a gentle elevation, on the northern bank of the river Nen. The borough, which is of very old standing, extends from the north to the south upwards of two miles, and from east to west about one mile and a half. These limitscontain the parishesof’AU-Saints, St Sepulchre, St Peter, St Giles, and certain extra parochial places. At an early period it was deemed worthy of being a royal resi¬ dence. The castle then erected for this purpose was built at the west side of the town, upon an eminence, under which the river runs, and traces of the remains are still to be found. Parliaments were repeatedly held here in the reigns of the first Edwards. The town was formerly sur¬ rounded by a wall, and contained several monastic institu¬ tions ; but these decayed through time, or were destroyed at the Reformation, or by the fire in 1675, when the town was nearly burned to the ground. An act of parliament was passed for the rebuilding of the town ; and from the funds raised by subscription, as well as from the aid bestow¬ ed by the king, the damage occasioned by the disaster was entirely repaired. The town may be said to be nearly di¬ vided into four equal parts, by two streets running in the direction of the cardinal points, whilst various other by¬ streets extend through the town. Both of these streets are wide and spacious,and each extends nearly a mile in length; the limits of the burgh, as has already been mentioned, ex¬ tend farther. rIhe street called the Drapery, though not the largest, is the finest in the town, both for its breadth and the handsome appearance of its shops. At the south end of the Drapery, and the west end of St Giles, is the market-place, 600 feet square, surrounded by handsome shops and neat private dwellings, and said to be one of the 2 i 250 NOR Northarnp. handsomest market-places in Europe. The town is clean, ton- and most of the houses are built of a reddish coloured stone ana mosi, ui wc , du^ in the neighbourhood; the others are or brick the exception of the Drapery and other principal streets the houses present an uniform appearance, and are almost entirely occupied by journeymen shoemakers and otlier workmen employed in that trade. A great increase o houses of this description has taken place during tie as few years. The principal building ground still unoccupied lies in the parishes of St Giles and St Sepulchre , ut very active measures are now in progress to open new s ree s, and extend buildings upon it in every direction, the DO- rough is evidently in a flourishing condition. ie tants are chiefly engaged in the shoe, leather, stoc ing’** thread-lace manufactures. The principal manufacture l ow- ever, consists in that of boots and shoes, which has thm en and increased during the last thirty years, wltho^e "f affected by the various changes which have occurred during that period. The present wages paid weekly to the jo neymen amount to L.2000. Great quantities of the shoes and boots are sent to London, as well as exported. 1 his is greatly promoted by the Northampton Canal, which, uniting with the Grand Junction Canal, gives water com¬ munication to the principal manufacturing and mining dis¬ tricts, the ports of London, Liverpool, Bristol, and Hu 1. There are also three well-employed iron-foundenes n t e town. The town formerly had seven churches within the walls, and two without, but there are now only four m all. The principal church, All Saints, stands near y in tre of the town, at the junction of the four leading streets; it is a handsome building, with a fine portico of eight Ion c columns, and is surmounted by a statue of Charles IL I he church of St Sepulchre is of a circular form. St Beter s deserves notice only as a relic of ancient archUecture. Giles has nothing remarkable. There are likewise places of worship for Presbyterians, Quakers, Methodists, Bap¬ tists, and Roman Catholics. We may add, tha^reare various charitable institutions for education and the S“P; port of the poor. On the eastern side of the town, in an airy and salubrious situation, is the infirmary. The town-hall, county-hall, county jail, town jail, and theatre are a - spectable buildings. The town is lighted with gas. ihe horse fair held here is considered as the best in the king¬ dom for saddle and carriage horses The town is divided into three wards, and is governed by a corporate body consisting of a mayor, six aldermen, eighteen councillois, twelve justices of the peace, a recorder, and t0^-derk* Northampton returns two members to parliament, the number of voters is about 1800, and the returnmg officer is the mayor. The market-days are Wednesday and ba turday. The population amounted in 1801 to 7220, in 18 to 8427, in 1821 to 10,844, and in 1831 to 15,3ol. Northampton, a post-town and shire-town of Hamp. shire county, Massachusetts, one of the United States o North America. It is beautifully situated on the west bank of the Connecticut River, ninety-five miles west from Boston. It consists chiefly of two streets, proceeding i e the radii of a circle, although with many irregularities It contains several handsome public buildings, of which t e court-house, jail, and one of the religious meeting-houses, are the most conspicuous. The private houses aie in ge¬ neral large, and in a good style, and many of them are elegant. Northampton is a place greatly resorted to by travellers, from the romantic beauty of the scenery in the vicinity. The common schools of this place are high y respectable. A stream passes near the centre of the town, on which are erected numerous mills and many manufac¬ tories, amongst which are two of woollen. Farmingto Canal extends from New Haven to this place. A bridge built in 1826, connecting this town and Hadley, is 1 feet in length by thirty-six in breadth, and is supported by NOR six piers and two abutments. The Indians called this town Wi® ^ Nonatuck. It was the third place settled on the river in this state, and was incorporated in 1654. Amongst the ✓ striking objects in the scenery of Northampton are the beautiful river, and the heights called Mount Tom and Mount Holyoke, the former being 1200 and the latter 900 feet above the river. The population amounted in 1830 to 3618. Long. 72. 40. W. Lat. 42. 16. N. NORTHAMPTONSHIRE, an inland county of Eng- land, nearly in the centre of the kingdom. It is of an ir¬ regular and very extended figure, being about sixty-seven miles in length. In the widest part it is thirty miles, and in the narrowest not more than eight miles in breadth, i he extent, according to the returns collected by Mr Rickman, is 646,810 acres. The land is thus appropriatedAbout 290 000 acres are in arable cultivation, 235,000 acres are in pasture, and about 86,000 are uncultivated, or occupied as forests and woodlands. The county contains one city, eleven market-towns, 301 parishes, and is divided into 1901 liberties. _. . . . The population, according to the official returns at the four decennial enumerations, amounted in 1801 to 131,757, in 1811 to 141,353, in 1821 to 162,483, and ins1831 to 179 300. The annual value of the whole real property of the county, as taken in the year 1815 for the purposes of the property-tax, was L.942,162. The burials, including both the registered and the unregistered, in the ten years from 1821 to 1831, appear to have been about one in h ty ot the whole number of inhabitants then living. The illegi¬ timate births were one in twenty-five of the whole num¬ ber born. , The occupations of the people, according to the returns arranged by Mr Rickman in 1831, were as follow : Occupiers of land employing labourers 3,015 Occupiers of land not employing labourers 1,1 l j Employed in retail trades or handicraft 13,841 Capitalists, bankers, and professional men l,~o4 Labourers not agricultural Other males undervtwenty years of age •*,» 4 Male servants under twenty years of age 41< Ditto above twenty years of age... 7Ub Female servants ’ From its oblong shape, lying obliquely across the middle of the kingdom, Northamptonshire comes in contact witti, and is bounded by, a greater number of other counties than any other division of England. Proceeding from the north, on its western side, it touches upon Lincolnshire, Rutlandshire, Leicestershire, Warwickshire, and Uxtorfl- shire; and on its eastern side it is bounded by ouckin * hamshire, Bedfordshire, Huntingdonshire, and Cambridge¬ shire. The whole of the county is within the diocese o Peterborough, with the exception of three parishes wnic are included in the see ot Lincoln. , Northamptonshire is generally a pleasant country, such undulations as give an agreeable variety; but, owing to the numerous enclosures, the prospects are ^9Vn \;ik ral extensive, except upon the summits of the hig er The centre of the county is a level elevation, from the rivers have their rise, and, descending in opposite u rections, take a course both to the German Ocean a English Channel. f the The agriculture of this county partakes so much nature of the several counties that border on as • almost as various, and not to merit any particu a tion. The most important rural pursuit is the grazing ‘ . tie, for which the excellent pastures are admirably adf^ ed. The cattle, when fattened, are sent in week y to the market of Smithfield for the supply o ^ polis, where they are highly esteemed. The arable la ^ produces excellent wheat, beans, and oats; but tne NOH hr ()* general is not well calculated to raise good barley. The ih artificial grasses, clover, trefoil, sainfoin, and rye-grass, are v very extensively cultivated, and, aided by turnips, form im¬ portant articles of food for the flocks and herds. Within this county there are several large forests be¬ longing to the crown, with two chases, over which the king has certain rights. The largest of these is the Forest of Rockingham, in the northern part of the county, extending over 11,000 acres. The land, in many instances, belongs to individuals; but the royal deer have, under certain re¬ strictions, the range over the whole. Whittlewood Fo¬ rest contains about 5000 acres. It is stocked with about 1000 deer; a proportion of which, according to ancient prescription, are killed annually for the royal household, and for the great officers of the government, who receive them as a matter of right attached to their appointments. This forest contains much excellent naval timber, which is reserved for the use of the government; but, from the reports of the commissioners, it appears to be very negli¬ gently preserved, and very injudiciously managed. Salcey Forest is about 1850 acres in extent. This tract was for¬ merly covered with most valuable ship-timber, but has fur¬ nished for the navy only a very small proportion of what it is capable of. The mixture of opposite interests in this kind of property diminishes its productiveness to all the parties interested in it. The underwood does not belong to the crown. The individuals who own it cut it down every twenty-one years. During the following nine years it is en¬ closed, and for the remaining twelve it is open for the deer to feed on the land. The crown enjoys only this right of pasture and the timber trees. The pasture does not be¬ long exclusively to it, for many of the surrounding parishes possess also a right to turn their cattle into the forests, un¬ der ancient grants and prescriptions, and with limitations of a complex nature, which are productive of perpetual dissensions and litigations. The rangership of these forests is hereditary in the Dukes of Grafton, who have, during the last century, derived from it a very large income, whilst the revenue to the crown has been very trifling, scarcely amounting to L.200 per annum upon an average of the last hundred years. The only navigable river in this county is the Nen or Nine. It rises in the western part, flows across, and then runs north, till it enters by Lincolnshire into the German i Ocean. Ihe Welland rises in the county, then forms the boundary between it and Leicestershire and Rutlandshire, and only becomes navigable after entering Lincolnshire at Stamford. The other rivers, the Ouse, the Avon, the I Leam, and the Charwell, although they have their sources in Northamptonshire, are but inconsiderable rivulets till they enter the contiguous counties. The benefits of in¬ ternal navigation have been very freely bestowed here by the canals, which afford great facilities to internal inter¬ course. The Oxford Canal connects it with that city. The Grand Junction Canal, communicating on one hand with London, and on the other with Liverpool and Manchester, passes through this county. The Grand Union Canal con- nects it with Leicester. Thus the heavy products, espe¬ cially coals, are brought to every part on very moderate erms. Great advantage to this county is anticipated from lat great work, now hastening to its completion, the Lon- aon and Birmingham Railway, which will enter it near ■ 01?y Stratford, and proceed more than thirty miles, when i wi advance through a corner of Leicestershire to War¬ wickshire. ihe remains of Roman and Saxon antiquities are very numerous. Amongst the former, the Watling Street Road, umine Street Road, the camps of Arbury, of the ii°r0 1S’ 3 , -Kffiusbury, and the tesselated pavements >n,r ° ^ls.tock’ at Stanwick, and at Woodford Field, have Dabe t ie attention ot Stukely and other eminent anti- N O R 251 quaries. As there were more than sixty monasteries andNorthcote. other religious houses at the period of the Reformation, traces of which may still be seen, they, with the baronial castles, present a wide field for the researches of the lovers of antiquity; but the bare enumeration of them would be incompatible with the limits of this work. The manufactures of this county are chiefly of a domes¬ tic nature, and carried on in the dwellings of the workmen. Boots and shoes are made for foreign markets, and, in war, for the supply of the army. Both fine thread and silk lace are made, and afford employment to the females, who are taught the art in schools for that purpose, and attain great perfection. The principal places for collecting the lace are Northampton and Wellingborough. A large quantity of horse-whips were made at Daventry, and, though di¬ minished in some degree, the trade is still continued there. The titles derived from this county are Duke of Graf¬ ton ; Marquis of Northampton; Earls of Peterborough, Fitzwilliam, Spencer, and Harrington ; Viscount Sackville ; Barons Braybrooke and Lilford; and as second titles,' Baron Burleigh to the Marquis of Exeter, Viscount Mil- ton to Earl Fitzwilliam, Viscount Brackley to the Earl of Bridgewater, and Baron Finch to the Earl of Winchelsea. By the reform act this county is formed, for the purpose of electing members of parliament, into two divisions, distin¬ guished into North and South, each returning two members. 1 he election for the northern division is held at Kettering, and the polling places are, that town, Peterborough, Oundle, Wellingborough, and Clipston. The election for the south¬ ern is held at Northampton, and, besides that town, at Da¬ ventry, Towcester, and Brackley. The boroughs of Brackley and Higham Ferrers were by the same law disfranchised. The most celebrated natives of Northamptonshire have been, Robert Browne, the founder of the sect of indepen¬ dents; Mrs Chapone ; John Dryden, the poet; Fletcher, the dramatist; fuller, the historian and divine; Harring¬ ton, author of the Oceana; Hervey, author of Meditations and other works ; Knolles, the historian of the Turks; Dr William Paley ; Bishop Wilkins ; and Thomas Woolston. Ihe catalogue ot all the noblemen and gentlemen’s seats in this county would extend to a long list, and we therefore can only notice the most remarkable of them, viz. Castle Ashby, Marquis of Northampton; Aldwinckle, Lady Lilford; Althorp, Earl Spencer; Apethorpe, Earl of Westmoreland; Brinworth, Walter Strickland, Esq.; Burleigh, Marquis of Exeter; Canons Ashby, Sir J. E. Dryden ; Cottesbroke, Sir James Lanham ; Courteen Hall, Sir William Wake; Dean, Earl of Cardigan ; Drayton’ Duke of Dorset; Easton Neston, Earl Pomfret; Ecton, Samuel Isled, Esq.; Fawsley Park, Sir Charles Knightley ’; Finedon Hall, Sir William Dolben ; Horton, Sir Robert Gunning; Kirby, George Finch Hatton, Esq; Lamport, Sir Justinian Isham; Lilford, Lord Lilford; Martin’s Thorpe, Earl of Denbigh ; Milton Abbey, Earl Fitzwil¬ liam ; Rockingham Castle, Lord Sondes ; Salcey Forest, Earl Euston; Wakefield Lawn, Duke of Grafton; Wal- grave, Sir James Langham ; Whittlebury, Lord Southamp¬ ton. 1 The towns having a population exceeding 1400 are the following: Northampton 15,351 Brackley 2,107 Peterborough 5,553 Buckby, Long 2,078 Wellingborough 4,688 Roth well 2,002 Kettering 4,099 Paulers Pury 1,544 Paventry 3,646 Weedon 1,439 Towcester 2,671 Middleton Cheyney.. 1,415 Oundle 2,450 NOR 1HCO IE, James, a distinguished English painter, w as born at I lymouth in the year 1746. He evinced a pre¬ dilection foi the arts at a very early period, but received no encouiagement from his lather, who was an eminent 252 NOB. NOB Northcote. ■watchmaker, and apprenticed him to his own trade. \/hen ' the period of his indenture had expired, the strong bent of young Northcote’s genius prevailed ; and being fortunate enough to obtain a recommendation to Sir Joshua Rey¬ nolds, that eminent artist received him as a pupil. North¬ cote had nearly reached his twenty-fifth year when he ar¬ rived in London ; and having had comparatively little ex¬ perience in painting previously to this period, his attain¬ ments were greatly inferior to those of other beginners much younger than himself. It was therefore with no great reliance on his talents that Sir Joshua gave him a trial ; but diligence and native genius soon made amends for all deficiencies, and, much to the satisfaction of his mastei, with whom he became a favourite pupil, his improvement was rapid. He was also of an age to be a pleasant com¬ panion to Sir Joshua ; and from his great natural talents, and extraordinary powers ot conversation, he was enabled to avail himself of all the advantages of that polished so¬ ciety which assembled in the house of his master. North¬ cote remained domesticated for five years, on the most agreeable terms, in Sir Joshua’s family ; and in 177b he reluctantly quitted an abode which had in every way been rendered delightful to him. He commenced portrait painter, in which he would doubtless have attained great eminence; but his powerful intellect was scarcely satis¬ fied with this limited branch of art, and he resolved to pro¬ secute the more independent and pleasing, although much less lucrative, study of historical painting. In furtherance of this object, he, in 1777, repaired to Italy, where he re¬ mained three years, devoting his time alternately to the study of the great masters, and to original compositions. During his sojourn on the Continent, he was elected a mem¬ ber of the Imperial Academy at Florence, of the ancient Etruscan Academy at Cortona, and of the Accademia delle Arti at Rome. He was also requested to execute a por¬ trait of himself, to be placed amongst those of distinguish¬ ed artists which grace the gallery at Florence ; and the pic¬ ture which he presented is at once a faithful resemblance and an exquisite specimen of his professional skill. On his return to England, Northcote pursued the study of design with all the ardour of an artist; and it was soon apparent that he had not mistaken his forte or miscalculat¬ ed his powers. About this period Mr Boydell was engaged in procuring engravings from pictures by the old masters, whose works he had either obtained the use of, or had caused to be copied by skilful hands. His next experiment was to commission native artists of distinction to paint original composition from history and other subjects, and to cause these also to be engraved by Englishmen. North¬ cote being one of the most promising painters of the British school, was employed by Mr Boydell, and also by other printsellers; and prints from his designs were to be seen, framed and glazed, upon the walls of the higher order ot dwellings in every part of the kingdom. One of the most admired, entitled the Village Doctress,had for several years a considerable sale. It was not, however, until the bhak- speare Gallery was opened, that the world was made fully aware of the powers of Northcote. Amongst the many splendid efforts of British art which were thus collected together, none proved more attractive than his composi¬ tions. The scene of the smothering of the young princes in the Tower of London; that of removing their bodies secretly by torch-light for interment at the foot of the stone steps; the subject of Arthur and Hubert; the en¬ trance into London of Richard II. and Bohngbroke, and others from his pencil, are undoubtedly to be reckoned amongst the best specimens of British art at this flou¬ rishing period of its history. These productions clearly proved how well he had studied the works of his illus¬ trious master, and imbibed his feelings^ as a colourist. Northcote had now attained the zenith of his fame; and he received the reward of his abilities by being elected anNort^.# ^ associate of the Royal Academy on the 6th of November^, I ‘ 1786, and a royal academician on the 13th of February P* 1787. From this period Northcote divided his professional la¬ bours between historical compositions, fancy subjects, and portraiture. The dramatic style, however, attracted his attention for a time, and he painted a series of moral sub¬ jects, illustrative of virtue and vice, in the progress of two young women. This was trenching upon the ground of Hogarth, and the attempt proved a failure; for al¬ though the main points of this graphic drama bore direct¬ ly upon the subject, the characters were deficient in ex¬ pression and individuality. In painting, Northcote kept the colouring of Sir Joshua Reynolds steadily in his eye; and so little change in his style had his contemplation of the crreat masters in Italy wrought, that no one could discover the least approach to that severity of manner which is peculiar to the Roman and other Italian masters. His pictures are distinguished for their breadth of light and shade; and most of his historical works display a com¬ prehensive and accurate knowledge of the subject, much study, and considerable force of conception, tor a period of above thirty years his productions may be said to have borne a conspicuous part in the exhibitions at Somerset House; and, to the last year of his life, a season seldom elaps¬ ed without his presenting one or more efforts of his pencil at the British Institution or the Gallery of the British Ar¬ tists. , . . , . i That Northcote was an enthusiast in his art may be ga¬ thered from many anecdotes related of him whilst expa¬ tiating upon the merits of the great masters. A favou¬ rite pursuit of his was the painting of wild animals; and one day, whilst making a study from nature of a vulture, he laid down his palette, and clasping his hands, exclaim- ed “ I lately beheld an eagle painted by Titian, and if heaven would give me the power to achieve such a work,! would then be content to die.” His conversational powers have been extolled by all who had an opportunity of know- in- him ; but he never allowed the fascinations of society to interfere with his professional avocations. It was his custom for many years to take an early morning walk, on his return from which he breakfasted, and then went to his studio. About eleven in the forenoon, unless he had an engagement with a sitter, his levee commenced, seldom happened that he remained alone ; one visitor suc¬ ceeding another, and occasionally three or four at a tun , holding him in conversation until the hour for dinner. A the while he was proceeding with whatever picture he had on hand, working and talking at the same time. His con¬ versation was distinguished by sagacity, acuteness, great extent of information, as may be seen from a vo- Fume published by Mr Hazlitt, entitled Conversations the late Janies Northcote, R. A He had, however, jch of that cynical spirit too prevalent amongst artists, o « preciating the works and characters of their rivals, b was benevolent withal, and whatever he might say in H paragement of those who crossed his path, he wM ever ready to befriend those who applied to him for assistant: or advice. To young artists he was kind and condescend- tag and dways^asify accessible Such traits m die tures or drawings which they submitted to im pened to display originality and talent, gave him dehgbj for he felt a patriotic pride in the arts ot his coul‘J’ , a nersonal interest in their advancement. In wba company Northcote might be, he always maintained J opinions, which were often singular with a manlyn* pendence, which secured him general respect. Oa » a royal duke, whilst attending at a sitting ot Waste the young Roscius, whom Northcote, with h.s usud ^ city, thoroughly despised, used some liberties with NOR NOR 253 fl, list’s gray locks, observing, “ You do not devote much time to the toilet, I perceive?” Northcote instantly replied, d “ Sir, I never allow any one to take personal liberties with U me; you are the first who ever presumed to do so, and I beg your royal highness to recollect that I am in my own house.” He then resumed his painting, and the royal per¬ sonage, feeling the rebuke, shortly afterwards took his de¬ parture. Next day, however, the artist was surprised by a visit from his royal highness, who, in returning something of which he had obtained the loan, handsomely apologised to him for the liberty which had been thoughtlessly taken. Northcote was naturally just, temperate, careful, and in the strictest sense of the word a philosopher. The system of life which he early prescribed for himself was founded on wisdom, and maintained with constancy. The frugal manner in which his table was served from principle might lead to the idea that he was parsimonious; but this is ren¬ dered nugatory by the facts, that he lent money freely without asking for interest, and sometimes not even for the principal, by which means he frequently lost it; that he was the most patient and long-sutfering of creditors, not only feeling a horror at asking for what was justly due him for his works, but often having whole-lengths, half- lengths, and bust portraits thrown upon his hands without his ever attempting to enforce payment. His prudence and foresight, however, enabled him to secure an independence for the evening of life, which so often overtakes artists in destitution and misery. The last years of Northcote’s life were spent in preparing for the press a volume of fables and a Life of Titian. He died on the 13th of July 1831, and his remains were deposited in the church of St Mary- le-Bone on the 20th of the same month. Northcote was an author as well as a painter. His ear¬ liest productions were some papers inserted in a periodi¬ cal work called The Artist. The subjects of these papers were, Originality in Painting, Imitators and Collectors, Dis¬ appointed Genius, a Character of John Opie, Letter from a Disappointed Genius, and the Imitation of the Stage in Painting. In the second volume of the same work, the His¬ tory of the Slighted Beauty, an allegory, was also by him. He further contributed to the fine arts of the English school the biography of Sir Joshua Reynolds, which he afterwards expanded into a quarto volume, entitled Me¬ moirs of Sir Joshua Reynolds, comprising anecdotes of many j hstinguished persons, his contemporaries, and a brief ana¬ lysis of his Discourses ; to which are added, Varieties on Art, 1813. A supplement to the work appeared in 1815; and an octavo edition, with considerable additions, came aut in 1819. In 1828 he published, in octavo, One Hun- Ired Fables, original and selected, embellished with two aundred and eighty engravings on wood from his own de¬ signs. He likewise left materials for a second series, which ay directions given in his will was to be published after the leath of his sister. His last work, which appeared at the ?fthe.year 1830, in two volumes octavo, is the Life >1 Titian, with anecdotes of the distinguished persons of ns time; a work containing a vast mass of useful informa- lon and reflection on the art of painting. (r. r. r.) NORTHERN LIGHTS, the same with the Aurora joreahs. See Aurora Borealis. NORTHFLEET, a town of the county of Kent, in the aundred of Toltingtrough, and lathe of Aylesford, twenty mles from London, on the road to Dover. It is situated >n a chalk hill rising from the south bank of the Thames, |n con™anding an extensive view of the river, and of the •ounty of Essex beyond it. Great quantities of lime are na e rom chalk, and the flints collected are prepared for ire arms. Noithfleet has now no market. The popula- 0?QaRrUTd in 1801 t0 19l0> in 1811 to 2031, in 1821 a 1964, and m 1831 to 2124. ORTHLEACH; a town of the county of Gloucester, in the hundred of Bradley, eighty-one miles from London. Northum- It is situated in the centre of the range of the Cotswold berland. Hills, on the river Leach, and was once a clothing town of some consideration, but that trade is lost. There is here a bridewell for the county, and a free grammar-school. It is a corporate town, and has a market which is held on Wednesday. The population amounted in 1801 to 664, in 1811 to 647, in 1821 to 773, and in 1831 to 795. NOR THUMBERLAND, an extensive county in Eng¬ land, situated on its northern extremity, upon the borders of Scotland, from which it is separated partly by the river Tweed, which, during the latter part of its course, flows be¬ tween this county and Berwickshire, and partly by a line sup¬ posed to be drawn over the mountainous region on the west and north-west, where it meets with Roxburghshire. The other boundaries are the German Ocean on the east, Dur¬ ham on the south, Cumbexdand on the west, and on the north two small districts called Norhamshire and Island- shire, which, though belonging by their situation to North¬ umberland, form a part ot the county of Durham, along with another tract called Bedlingtonshire, on the south¬ east. But in a general description it is unnecessary to at¬ tend to these distinctions. I he Tweed may, therefore, be considered as the northern boundary of the county, and in. this case it will include the towns of Berwick and Norham. Lindisfarne or Holy Island, on the north-east coast, which in like manner belongs to Durham, is situated about two miles from the mainland, opposite to the mouth of the brook Lindis, and accessible to all kinds of conveyance at low water. Although about nine miles ‘in circuit, it contains little more than 1000 acres, the half of which is sand-banks. 1 hese several portions may extend to something more than 100 square miles, or about one twentieth part of the whole. In this view, Northumberland is situated between 54. 51. and 55. 48. north latitude, and between 1. and 2. 27. west longitude from London. Its greatest extent from north to south is sixty-four miles, and from east to west it varies from about forty-six miles, which is its usual breadth be¬ tween the river lyne on the south and the Coquet on the north, till it terminates at the town of Berwick on the north, in a breadth of only five or six miles. According to Mr Rickman s Report of 1831, the area of the county is 1871 square miles, or 1,197,000 acres; but the actual re¬ turns from the parishes give only 1,165,430 acres, a differ¬ ence which is supposed to arise from the inaccurate mea¬ surement of the mountainous and uncultivated part of the western division of the county. Nearly one third of the county is scarcely capable of beneficial cultivation. It is divided into six wards, namely, Tindale, Coquetdale, Glendale, Bamborough, Morpeth, and Castle, the first three comprising the western and mountainous district, and the second three the coast lands on the east. These last, though extending over only one fourth of the county, are by far the most wealthy and populous, owing chiefly to the great coal-works in Castle ward, near the town of Newcastle, and along the banks of the Tyne. It contains five deane¬ ries and seventy-three parishes, all of which are in the aichdeaconry of Northumberland and diocese of Durham. All the western side of this county is mountainous, from the common boundary with Durham on the south, almost to the valley of the Tweed on the north ; but this extensive tract, comprising more than a third of the whole area, is not all of the same character; the northern, or Cheviot Hills, extending to about 90,000 acres, being mostly all green nearly to their summits, comprehending many nar¬ row but feitile glens, and affording excellent pastures for the breed of sheep to which they have given their name ; whilst those to the west and south are, in general, open so¬ litary wastes, covered with heath, and of very little value. On the coast, from the mouth of the Tyne to that of the I weed, and also on the north, throughout its whole breadth 254 NOR NOR Northuin- from Belford to Mindrum, the country is, with few ex cep berland. tions, ]evel and rich, with a soil which in some places is a 'strono- clay, and in others a dry loam, but almost every¬ where very productive, under the enlightened sy®^ern 0 cultivation which prevails so generally throughout IS or i- umberland. „ The principal rivers of the county are the lyne, , Wansbeck, Coquet, Ain, and the Tweed, all ot which fall into the sea, carrying with them the tribute of many smalk streams. The Till, which empties itself into the I weed, is aL a considerable rivulet. The Tyne and T weed are by far the most important, the tide flowing up the fora.er sixteen miles, and up the latter eight or ten miles; wh st the navigation of the other rivers is confined to a ^11 dis¬ tance from their mouths. Both of these have long been celebrated for their salmon fisheries, which yield great rents, and afford a valuable article of trade with Lon¬ don, to which the fish are sent packed in pounded ice, by which means they are presented in the market in ne y as fresh a state as if they had been newly taken horn the "^Northumberland has been long distinguished for As sub¬ terranean treasures, which are the main source of its wealth and population. Of these, coal, which abounds m ™ost narts of it, is by far the most important. It is of the best quality in the south-eastern quarter, on the banks of the Tyne,Y whence those vast quantities are exported which supply the great consumption of the metropolis, as well as the coasting and foreign trade. In some year3 1 e exp “ tation from the port of Newcastle has amounted to upwards of 600,000 chaldrons of fifty-three cwt. each, and proba y, as much more has been sent from Sunderland and con¬ sumed in Northumberland and Durham, the same coal-field extending across the Tyne to the latter county. U s coa is all of fhe kind called “ caking coal, which melts and runs together in the fire, and, when of the best quality, leaves very few ashes. Calculations have been made as tothe extent of this tract, the quantity of coal which it may contain, and the period when it must be exhausted, but upon this last point there is a great difference of opi¬ nion, Psome estimating that the supplies must cease in three hundred years, some not in less than eight hundred, whilst bv others it is held to be almost inexhaustible. Of the coal'found in Bamborough, Islandshire, and Glendale ward, the seams are in general thin, and the quality inte¬ rior not caking nor burning to a cinder, but yielding great quantity of ashes, ij This is used only tor home con- sumption and for burning limestone, a purpose for which it isPwell adapted; and through all this district coal ai lime are generally found together. Ihe south-eastern quarter, which is so rich in coal, is destitute of limestone. I ead ore abounds in the mountains on the south- west, par¬ ticularly towards the head of that branch of Sou h lyne called Allendale, where it has long been wrought to a con¬ siderable extent. Iron ore is found in many parts ; stone marl near bedside, shell marl in Glendale ward, and various sorts of sandstone or freestone are obtained in Xost every quarter, some of it afford,ng tolerable slates for roofing, and flags for floors. Excellent grindstones are raised in the sandstone quarries, ot which a great many are exported from Camus and Warkworth. The agriculture of Northumberland is an object which is only second in interest and importance to its coal works. Almost all those branches of rural economy for one or more of which other districts are celebrated, may here be found combined into one system, and conducted upon the same farms. One finds here the Leicester sheep and the short¬ horned cattle of Durham and Yorkshire, both in great per- ‘tinn • the turnips of Norfolk cultivated upon the drill ’of ScoZS ; .fie well-dressed fallows of East Lo- thian and Berwickshire; and that regular alternation of tillage and grazing which is, of all other courses of cropping, the one best adapted to sustain and even to improve the productiveness ot the soil. These remaiks apply in an especial manner to the northern part of the county, where the farms are in general large, and the occupiers men of education and liberal acquirements. This quarter has been long distinguished as a school of agriculture, to which pupils are sent, some of them gentlemen of fortune, from various parts ; a character for which it is eminently in¬ debted, as well as for other distinctions, to the late Messrs Gulley, who were amongst the most extensive and success¬ ful farmers in the kingdom. The common period of leases, at least in the northern district, is twenty-one years, al¬ though many are shorter, and upon a few estates no leases are granted. By the account taken for the purpose of levying the property-tax in the year 1815, it was found that the annual value of the real property amounted to L 1 9i0 59L It may be worthy of remark here, that at the’seat of the Earl of Tankerville, called Chillingham Castle, there still exists in the forest the remains ot the herds of wild cattle which are supposed to have formerly abounded in this island, and to have been the origin of our races of cows. Northumberland is not eminently a manufacturing coun¬ ty. Some wool-combing is carried on at Hexham, and some thread is spun in the villages; but the chief branches of manufacturing industry are those depending upon the cheapness of iron and coal, and are chiefly carried on with¬ in and around the town of Newcastle, to which head in this work the reader is referred. The population of the county at the four decennial enu¬ merations has been as follows :-In 1801 it amounted to 157,101, in 1811 to 172,161, in 1821 to 198,9bo, and in 1831 to 223,000. The burials, including both the regis¬ tered and unregistered, in the ten years from 1821 to 1W1, appear to have been one in fifty-two of the whole number of inhabitants then living. The illegitimate births were one in fifteen of the whole number born. The occupations of the people, according to the returns arranged by Mr Rickman, were in 1831 as follows: Occupiers of land employing labourers > Occupiers of land not employing labourers Employed in retail trade and handicraft Capitalists, bankers, and professional men Labourers not agricultural 2 Employed in manufactures or machinery L- Other males under twenty years of age ^ Male servants of all ages 263 Female servants Agricultural labourers i’ *oq i qiW The number of inhabited houses was in J831y In these there were 48,364 families, of wbom 10,127 were chiefly employed in agriculture, 14,246 in trade or ma factures, and 23,091 belonged to neither of these clause.. This county is included in the northern circuit. Ihe a. sizes are held at Newcastle, and the quarter-sessions sue- cessively at Newcastle, Morpeth, Hexham, and Abw cL The title of duke of this county belongs to the ami y o Percy though now in the female line. The Ear fisle derives bis second tide from the town of Motpe*- For the purposes of election two d. visions are to™ed> ea returnino two members. The elections for the northern division are held at Alnwick ; and the polling | ’ besides that town, Berwick Elsdon Morpeth, and Wo* for the southern they are held at Hexham, and the ot polling places are Bellingham, Haltwhistle, Hexhan, castlef and Stamford!,am. There are two boroughs ^ in the county ; Newcastle, which returns two the House of Commons; and Morpeth, which aU ^ ed two before the reform bill, but at presen Berwick, which, though for some purposes a county Norfy 1 #• ff' ■tj' NOR hi ■ may be considered as in Northumberland, returns two members. The towns containing more than 1500 inhabitants, with their population in 1831, were the following, viz. Morpeth 4797 Haltwhistle 4119 Ford 2110 Wooler 1926 Lowick 1864 Hartley 1850 Blyth 1769 NOR 255 .Newcastle 42,760 in Tynemouth 24,778 Jy/Berwick 8,920 Alnwick 6,788 North Shields 6,744 Long Benton 6,613 Hexham 6,042 Walls-end 5,510 The most remarkable of the noblemen and gentlemen’s seats are, Alnwick Castle, the Duke of Northumberland ; Chiyingham Castle, the Earl of Tankerville; Haggerstone Castle, Sir Carneby Haggerstone ; Howick House, Earl Grey; Falloden House, General Grey; BamboroughCastle, Lord Crewe; and Barmour Castle, F. Sitwell, Esq. Northumberland Islands, a chain of islands in the South Pacific Ocean, near the north-eastern coast of New Holland, which runs parallel to the mainland at the distance of from five to eight miles. The largest is about thirteen miles in circumference. Long. 149. 47. to 150. 37. E Lat. 21. 32. to 22. S. Northumberland Straits, a narrow channel of the Eastern Seas, between the islands of Calamianes and the shoals of Apo. North-East Passage, a passage to theEastlndies along the northern coast of Asia, which, like the North-West Passage, has frequently been attempted, but hitherto with¬ out success. See Polar Seas. North-West Passage, a supposed passage to the Pa¬ cific Ocean through Hudson’s Bay or Davis’ Straits, and which has frequently been attempted, as yet with only par¬ tial success. See the article Polar Seas. North-West Territory, a vast tract of country in North America, situated between 42. 30. and 49. north latitude, and 87. 30. and 95. 30. west longitude. It is bounded on the north by the British possessions and Lake Superior, on the east by Lake Michigan, on the south by Illinois, and on the west by the Mississippi, and a line drawn from the source of that river to the northern boun¬ dary. In length it extends about 500 miles, and in breadth about 400 miles. In some of its physical features this ten itory resembles that of Missouri; but a greater propor¬ tion of it is covered with wood. It is, generally speak¬ ing, a hilly country, with the exception of extensive levels or prairie land. At the western extremity of Lake Supe¬ rior are the Cabotian Mountains; and near the mineral dis¬ trict are the Smoky Mountains. The chief rivers, with the exception of the Mississippi (see the article Mississippi), are the Ouisconsin, Fox, Chippeway, St Croix, Rum, St Trancis, and Savannah of the Mississippi. Grand Portage, Ontonagon, Montreal, Mauvaise, Boisbrule, St Louis, and near y fifty, smaller streams, discharge themselves into Lake Superior Riviere la Pluie falls into the Lake of ie Woods. None of the lake rivers have a course of more than a hundred and fifty miles, and few of them more ^ n?1 e.s*. Ouisconsin, the largest tributary of Mississippi in this territory, rises in the northern inte- ior°t ihe country, and interlocks with the Montreal of h.._ j '?Pe.rior* B has a course of between three and four Itnvi/p!6 mi eS’ a shallow and rapid current, which is, the genfr.ally navigable by boats in good states of i nnrt-Q ^ /S yards wide at its mouth. There is It PYtP&ei ° °n ^ lalt a m^e between this and Fox River, ivpr tl1 ^ °-Ver a 6Ve^ Pra*r*e» across which, from river to states nfTi? 18 a water c°mmunication for periogues in high 'fates of the water. Fox River has a course of 260 miles. flowing through Winnebago Lake, and into the Green Bay North- of Lake Superior. The country on its banks is very fine, West Tei and the climate is salubrious. Another considerable tribu-v r^or^' tary of the Mississippi is the Chippeway, which enters it immediately below Lake Pepin. It is half a mile wide at its mouth, and has communication, by a short portage, wdth Lake Superior. This is one of the very best regions for hunters. In the upper part of the country, buffaloes, elks, bears, and deer, are common. Beavers, otters, and musk¬ rats, are taken for their furs. The trappers, and also the Indian tribes, pursue their prey over an immense extent of prairie. The soil is fertile in some parts, and no doubt the enterprise and industry of civilized men wdll ere long bring a great portion of it under cultivation. White and yellow pine and white birch are common amongst the forest trees. All the water courses, ponds, and marshes, are covered with wild rice, which the inhabitants use as one of their chief articles of food. The elevation of the head waters of the Mississippi is estimated at 1330 feet above the level of the sea. This country abounds in minerals, and rich veins of va¬ luable ore have been discovered and wrought to consider¬ able advantage. Great quantities of terre verte or green earth, lead, iron, and copper, are also found in it. The lead- mine district is situated in the lower part of the country, between Rock River and the Ouisconsin. The chief esta¬ blishments of the present miners are on Fever River, and the mines are reckoned as rich and productive as any in the world. The following are the quantities produced in each year from 1823 to 1832. Years. Pounds. 1823 335,130 1824 175,220 1825 664,530 1826 958,842 1827 5,181,180 Years. Pounds. 1828 11,105,810 1829 13,343,150 1830 8,323,998 1831 6,381,901 1832 4,281,876 Total in ten years 50,752,626 lbs. The great increase in the years 1828 and 1829 reduced the price so low as to render the working of the mines in a great measure unprofitable. For upwards of half a cen¬ tury it has been confidently asserted that great quantities of native copper may be found along the northern shore of Lake Superior. On the Outogon there is a vast abun¬ dance of pure copper in detached masses. One of these masses is estimated to weigh 3000 lbs. The common re¬ ports, however, of the existence of large veins of copper, have not been confirmed by recent travellers; but there are nevertheless sufficient indications that mines of this metal are to be met with in this territory. Besides lead, iron is found in various places, and in great abundance. In the southern portion of this large territory the cli¬ mate is comparatively mild, and not unlike that of the northern belt of Missouri. At the falls of St Anthony, on the Mississippi, the summers are temperate, whilst the winters are extremely cold. The sources of the Missis¬ sippi are in a region extremely inclement. At St Peters, in 1820, the mean temperature of January was zero, a de¬ gree of cold which is never experienced in any part of the United States that has been extensively settled. The sum¬ mer, however, was temperate, and the atmosphere beau¬ tifully serene. Even at Prairie du Chien, although much more temperate, the winters are extremely severe. At the Falls of Packagama, on the Mississippi, about 1200 feet above the level of the sea, water has been known to freeze to a considerable extent in the middle of July. The fol¬ lowing table, extracted from the work of an American wri¬ ter, will convey the best idea of the nature of the climate in different parts of the North-west Territory: 256 NOR NOR ’North- West Ter¬ ritory. Place. Detroit River St Clair Lake Huron Mackinack Ditto to Lake Superior Lake Superior Ontonagon River Water of Lake Superior ■ Ontonagon River to Fond du Lac........ Between Fond du Lac and Sandy Lake. At Sandy Lake From Sandy Lake to St Peters Chicago Ditto Ditto. Date. May 15 to 24. ... 24 to 27. ... 28 to June 6. June 7 to 13. ... 13 to 18. ... 19 to 27. ... 28 to 30. Average Tempe¬ rature. July 1 to 5. 6 to 16. ... 17 to 24. ... 25 to Aug. 1. January. February March 15. Air. 60° 51 51 55 66 66 80 64 67 73 69 15 32 29 Water. Prevailing A\ inds. 0° 52 51 0 0 58 73 66 61 The North-west Territory is divided, or rather marked off into four counties, which have been named and partial y sealed by whites ; but there are still a number of Indians in it. Prairie du Chien, Cassville, and Green Bay, are the largest villages; and the whole population has been esti mated at 16,000. Green Bay settlement is situated a11 e outlet of Fox River, and contains 952 inhabitants. A few miles up Fox River, in a most romantic position, there is an Interesting Episcopal missionary settlement Pra.ne du Chien is of importance as a place of outfit fiom t e Lower Mississippi1 to the upper waters. It ^tuated near a beautiful prairie, and there are flour-mills in its vi cinity. Most of the permanent settlers here are a mixed race of Indians and whites. Frequent voyages are made from St Louis to Prairie du Linen in kee.l-boats. ihe richest copper mines, and the largest masses of pure cop- ner aresaid to be found here. One third of the land ,s ca¬ pable of being farmed, and about one sixth is well timbered. North-east. North-west. South-east. South-west. North-west. South-west. North-west. South-west. North-west and south-west. South-west. North-east. Noni;, wicli. 'S“Y'' after begin the prairies, which run, with scarcely any tim¬ ber, to the Mississippi. In the whole distance, near 100 miles, passed by the writer, the land seems to be ot the kind and aspect just described, namely, rich prairie, with occasional growths of fine timber, equally indicative of fer- tilitv- A road from the mouth of Fond du Lac River to Galena would be of great advantage to the mines, and a direct route for one might be followed at a trifling expense. It would facilitate the transportation of property from JNenr York by the canal and the lakes." „ . NORTHWICH, a town of the county ot Chester, in the hundred of the same name, being a part of the parish of Badworth, twelves miles from Chester and L4 from London. It is an old-fashioned and insignificant place, standing on the river Wever, which is navigable to Liver¬ pool, and therefore of great importance to the produce in the vicinity of that town. There is an old well-endowed grammar school, and a weekly market held on briday. The population, partly employed in f S, t0 The whole of this vast region has been for some t.me ^Pu“Pn"’i;“e‘p^paTat'io'n"of salt, amounted in 1801 to politically connected with Michigan for the sake of co - igii ;n 18.2, t0 1490, and in 1831 to venienccf but it must ultimately “r b^ythe' 148L Near the town, on the south side, are those pits self Most of the lands are owned by Indians, 01 by , : are foun(i the vast masses of salt which have sup- United States; the latter havinglrecently made a pure ia h ^ condtoent ,0 the extent of several hundred thoii- from the former of a very considerable t act of <10 y- bushe,s for a very l„ng period of t.me. The p™; Flin/s G'eograph'y^'u'The'tract re^erved1^ thehndians, pa. pit in the Northwich saH-mines is now called the Mar. reserved to the inoiaos, known under the name of of 500,000 acr^(^Sp^deam^a^0^^along^ the'Fox^liven the Burns’s Pit. It consists of two levels, the lower 0 very extensive anu lerme luca^v,*- _ hich is one hundred and twelve yards below the surface with woodlands of good timber, in which there’s «« un'le J ^ nd> and the other just half way down the shaft, brush. The writer proceeded thirty-eight miles fro lo^er ievei \s the most extensive excavation, as wel Bay, up the Fox River, to Winnebago Lake, passing p d has been worked about sixty whose whole descent is about 100 feet. The nver is nine y as the °^st ^ent ig j’nt0 a magnificent chamber, appa- yards wide, its bed a limestone rock the banks from fifty yeais the flat roofof which presents to 150 feet high. The water is of course adequate to J^ that astonishment is felt by the spectator at move any machinery. Doty s Rland, in the ^et of tl^ g hav ^ since iven way. There is, howeve j lake contains 400 acres heavily timbered. Ihe bank or us want sec&uritv, it being as sound and durable as it the lake itself is covered with trees °f a b^ght and c .ame- ^ adamant, and is supported by pillars, iu f^' e ter indicating the nature of the soil, which is a black loa , f , j k ■ brick-field ; the extent of the aie rich and deep. The Cliff, so called, is a mountain 300 feet c^ump^ot bricks i a ^ & ^ to Grosvenor SqUa above the level of the lake, presenting a FCturesque pro ; appea^to^ ^^y^ The bPuty of the glistening parg pect. The main roads leading from Green Bay to U i t llized sait upon the walls, which are as hard as fre ca-o, Ouisconsin, Portage, the Lead Mines, and Galena « crf extrelme regularity of the concentric curved wifi probably pass this point. Beyond this the mountau ’ d b tbe workman’s tools, are very ren^lka kj recedes three or four miles from the shore forming a val- lines, trac y ^ ^ a d k r u “uni^ s"at’ i' . TWW fnm. me who,.* flrv'nrairie’caUeil Casf Pl^ns.^Tliese plains contain 25,000 [une is a mass dry prairie calleu t,ass i iams. ^ ^ 17““-— ' acres of rich land, which are already cleared by nature the plough, and they extend to the Manitoovoc Rivei. Tf the jumper chisel are visible. Under foot ^ wt>o - face is a mass of rock-salt covered with a layer 0* tl g for terial crushed and crumbled to a state exactly segkaterSi Soon the powdered ice on a pond that has been cu y NOR Experiments have been made by boring to a depth of se¬ venteen yards, but they have neither perforated the rock salt, nor do they at present know the thickness of the stra¬ tum. The height of this excavation is about fifteen feet, within which space the salt is estimated as being of the best quality; but above, it is somewhat inferior. Thirty-five thousand tons of salt were annually dug out of the differ¬ ent levels, and the area of the whole together amounts to forty-eight statute acres. At one part there is a vista of two hundred yards in length, which has been dignified by the name of Regent Street. The salt, after being pre¬ pared by the solution of the rock and evaporation, is form¬ ed by wooden moulds, with holes at the bottom, to allow the remaining water to pass through into cubical blocks, and in this state it is shipped, either by the river Weaver and the canal to Weston Point, and thence into the Mer¬ sey, or by the canal southward. A considerable quantity of this salt is exported to Prussia. Much salt is prepared from the brine springs, some of which are so strongly sa¬ turated as to hold in solution the greatest quantity of salt. To the water of some of these springs rock-salt is added whilst boiling in the pans. From these springs the water, or brine, is raised by a sunk shaft, and a pump worked by an ordinary machine. NOR 257 NORTON, in Cheshire, a good modern alms-house, Norton erected on the site of a priory of canons regular of St Augus- II tin, founded in the year 1135, by William, son of Nigellus. Norway- But the latter did not live to complete his design; for Y - Eustace de Burgaville granted to Hugh de Catharine pasture for a hundred sheep, on condition that he finished the church in all respects conformably to the intentions of the founders. NORTON’S SOUND, on the north-west coast of Ame¬ rica, was discovered in Captain Cook’s last voyage, and was so named in honour of Sir Fletcher Norton, afterwards Lord Grantley, a near relation of Mr, afterwards Dr Kin". It extends as far as north latitude GL 55. There is no good station for ships, nor even a tolerable harbour, in all the sound. Mr King, on his landing here, discerned many spacious valleys, with rivers flowing through them, well wooded, and bounded with hills of a moderate height. One of the rivers towards the north-west seemed to be consi¬ derable ; and he was inclined to suppose, from its direc¬ tion, that it discharged itself into the sea from the head of the bay. Some of his people, penetrating beyond this into the country, found the trees to be of a larger size the farther they proceeded. Long. 197. 13. E. Lat. 64. NORWAY. Norway is an extensive country in the north of Europe, and, along with Sweden, forming one kingdom. All the countries which now comprise Norway, Sweden, and Den¬ mark, were designated Scandia by the ancients. Pliny calls it Scania insula, an appellation which derives its ori¬ gin from the circumstance of the Romans, in the time of their great naturalist, being only acquainted with that part of the country called Skanen or Skonen, the little informa¬ tion which they possessed being obtained from some Ger¬ mans. This is the ancient province of Schonen or Scania, the most southerly of Sweden. The name was afterwards changed to Scandinavia, which has been called the “ store¬ house of nations but without any just title to such a dis¬ tinction. It seems now pretty certain that Scandinavia was not the native country of the Scythians or Goths, but that they migrated from Asia to Europe. The fact of Pliny having designated Scandinavia as an island of con¬ siderable although uncertain magnitude, has also given rise to some discussion. To the imperfect knowledge of geo¬ graphy which the ancients possessed, may reasonably be ittributed their mistaken notion as to the insular position )f these countries ; but the difficulty may be got rid of in mother manner. It is well known that the Baltic Sea has liminished in height to a considerable extent, or, in the anguage of geologists, the coast on its shores has been derated. In the course of about a century, this elevation s proved to have been considerable by the high-water narks left upon the rocks on the sea coast at different pe- mds. If the sinking of the water or the rising of the land n this quarter has continued at the same rate from a very ar y period, then, at the time when Pliny wrote, Scandi¬ navia, penetrated in every direction by gigantic arms of e sea, may have had the appearance of a number of islands a difrerent forms and dimensions.1 uof But our present purpose is with Norway, which in Swe- e‘ 18118 cahed Norrige, and in Danish, Norge, pronounced Norre. “ In spite of the vague ideas which the ancients en¬ tertained of the northern countries of Europe,” says Malte- Brun, “ it cannot be doubted that the country which Pliny2 calls Nerigou is Norway. Many geographers3 have asserted that the name signifies the ‘ Way of the North ;’4 but its true etymology seems to be Nor-Rige, Kingdom of the North, or rather, perhaps, assuming the word Nor as signi¬ fy11^ 9utfi Kingdom of Gulfs, because in effect its coasts are much more indented than those of Sweden. We thus see that the name of Nerigou has much more analogy with that of Norrige than with that of Norweg, which at the first glance appears to be the origin of the modern name.”5 The early history of Norway is interwoven with the annals of Sweden and Denmark, and consists in legends contain¬ ed in the Heimskringla or Saga, a collection of ancient manuscripts, which is to Norway what the Edda is to Ice¬ land. The petty sovereigns who held sway in Norway in remote ages were independent, but appear to have ac¬ knowledged a kind of supremacy in the kings of Sweden and Denmark, probably more nominal than real; but until the ninth or tenth century little is known of the annals of the country. The Norwegians, of course, constituted no inconsiderable proportion of those daring adventurers who, under the general name of Normans on the continent, and Danes in Britain, became at one time the terror of all the maritime parts of Europe.6 I he Royal Northern Antiquarian Society of Copenha-History, gen has published a series of the Saga, comprehending the historical account of events which belong to European his¬ tory, and also to that of Scandinavia, during the eleventh and twelfth centuries. It includes a period of about one hundred and seventy years, beginning with the Saga of St Olaf, the contemporary of Canute the Great of England, who assumed the crown of Norway in 1013, and continu¬ ing the series until the death of Magnus Erlingson in a sea-fight with Sverrer I. in 1184. This is one of the most he n!16 opim°n hazarded by Gibbon on a subject, which admits of much curious speculation. The extraordinary elevation of 2 Lib iv , ese.nort lern regions has been fully confirmed by recent investigations. 4 FromV?vw !l’a v7 . 3 See thc article Norwege, in the Dictionaire Giographique de VEncyclopedic. « * ’ ,and^ (way) Norweg. 5 Maite-Brun’s Geography, vol viii. p. 517- bee the articles Denmark, France, and England. 1 VOL. XVI. „ 2 K 258 NORWAY. Norway, curious and minute pictures of an age long past, which the ' literature of Europe is possessed of. It is not only valu¬ able as an historical document, confirming or adding to our stock of facts relative to a dark period of English history, but as a record of the social condition of the country at that time, and of the influence of the Thing, or assembly of the people; a reference of all matters to this popular convocation being one of the most striking facts recorded in the Saga. From these rude annals we learn, that at a period immediately preceding the first traces of free insti¬ tutions in our own country, similar institutions existed in great activity amongst these northern people. It seems a fair inference from these facts, therefore, that we owe the political institutions which we enjoy to the Danes and Nor¬ mans, who were more likely to impose their own peculiar institutions upon those whom they subdued, than to receive institutions from the conquered. - , From other Sagas preceding that of St Olafi we learn, that about the middle of the ninth century, Halfden the Black divided Norway into five districts, with fixed head places for holding Things in each. At these assemblies, laws were framed suitable to the local circumstances of each district, which gave its name to the code. 1 ins potentate was succeeded by the celebrated Harold Har- faor, or the Fair-Haired, who ascended the throne at ten years of age, and reigned from 863 to 936. This warlike monarch, after long fighting, reduced all the independent nobles or petty kings to the condition of subjects, and consolidated the various principalities of Norway into one kingdom. Thus was consummated in a single reign, and that too in the ninth century, a work which afterwards cost the other nations of Europe several centuries of blood¬ shed and contention. But this was more easily accom¬ plished in Norway than elsewhere; for in that country the crreat nobility never had feudal powers, and consequently those who were under them as servants were bound by no such ties of vassalage as the retainers of a Highland chieftain or a Norman baron. They were not taught pas¬ sive and unconditional submission to a superior, a though he might bear the title of king; for before a small sove¬ reign could make war, he was under the necessity of as¬ sembling the Thing, and obtaining its sanction. The equal division of property amongst children, which extended to the crown itself, prevented the accumulation of power m the hands of individuals; and the circumstance of the total want of fortresses, castles, or strongholds in the country, owing to the division of estates, effectually prevented a nobility from attaining the same power with the nobles ot feudal countries, and setting the royal authority at deh- ance. Some of these nobility or small kings colonized Iceland; and Normandy was conquered by Rolf Uangr, one of those whom Harold Harfagr expelled from Norway. In this king’s reign Christianity was introduced into the country, and from this period the events recorded in the his¬ torical Saga may claim some degree of confidence. ihe length of this reign was no doubt favourable to the lower orders, by consolidating their institutions, which, as they weakened the authority of the petty kings, were favoured by Harold. Eric, his son and successor, whom he had as¬ sociated with himself in the royal authority, was deposed by the Thing on account of his cruelty, and a younger brother succeeded him. Hakon, which was the name ot this son of Harfagr, was brought up from his childhood at the court of Athelstane, king of England. He reigned nineteen years, during which period there was frequent reference to the Things, both for amending the laws, and Non, for the dissemination of Christianity. It appears, that inv*y« attempting to establish the religion of the Cross in his do- minions, Hakon had recourse to what were considered as unconstitutional means ; for we find that at a meeting of the Thin", held in the year 956, a husbandman named Asbiorn, of Medalhuus, stood up and declared, on the part of his neighbours and of himself, “ that they had elected Hakon to be their king, upon the condition that freedom of relimon and freedom of conscience should be warranted to every man ; and if the king persisted in attempting to suppress their ancient faith, they would elect another king;” adding, “ and now, king, make thy choice. This is cer¬ tainly one of the most striking instances of parliamentary patriotism to be met with in the history of Europe; and we must descend six or seven centuries nearer to the pre¬ sent time before we can match it in the annals of our own country. Hakon was not only compelled to give way, but also to take part in the heathen ceremonies of the meeting. This king was slain in 963, in a battle with the sons of Ins elder brother Eric, upon whom Athelstane of England had conferred the kingdom of Northumberland. It appears that, after the death of Harfagr, the small kings ao-ain had risen to some degree of power, and that each in his own assembly, called also a Thing, had exercised a limited authority. Olaf the saint, before he assumed the name of king, consulted one of these assemblies of the no¬ bility as to the way of proposing his claim as heir of Har¬ fagr to the general Things of the people; and proceeded in such a manner as to show that their voice alone was insufficient to constitute him supreme chief m the land, without the sanction of the general Ihing. These insti¬ tutions appear to have always conferred or confirmed the royal prerogative, and to have been of great importance in that age amongst the whole Scandinavian people. In cases where the good of the community was at stake, they set the royal authority at defiance, and obliged the sovereign to accept of such international contracts as the Things of both countries conceived was for their mutual benefit. Ihe Thin" of Sweden compelled the sovereign of that country to conclude a peace with Norway, and to bestow his daughter in marriage on King Olaf, towards whom he che¬ rished implacable enmity. Olaf had the title of saint con¬ ferred on him from the exertions which he made to intro¬ duce Christianity amongst his subjects; but m prosecu¬ tion of this object he exercised the most atrocious cruel¬ ties, and completely alienated the affections ot his people. He attempted to govern without the intervention ot tie Things, which became the cause of bis ruin ; for ^a* nute the Great, who conquered Norway, invaded his do¬ minions, the people literally “ stopped the supplies; and, unable to collect a force sufficient to oppose the king England, he was compelled to seek refuge in Russia, ro the purpose of recovering his crown, he landed in bwede with a few followers, and, having received an accession to his force from the king of that country, who was his brotlie in-law, marched from the Gulf of Finland across the pe ninsula to the Fiord or Gulf ot Drontheim. n he mea time the Thing of Norway raised an army of twelve tno sand bonder, and placed it under the command of We of Egge. At the debouche of the valley of ^ ®rda ' met Olaf at the head of about four thousand advent The conflict could not be doubtful where there was su an inequality of numbers, and where the superion y ay ^ the side of those who were fighting in defence St OlaPs father was Harold Gr$ndsfce, i Harold Harfagr was born in the year 853 ; he began to reign in 863’ f" ,ea[e!rran(lfather H arol d Harfagr, and St Olaf was born his grandfather Gudrod, his great-grandfather Biorn Staerke, and great-g g ^ 'jj Q of St Qlaf was therefore acre^ anno 995, only fifty-nine years after the death of his great progenitor ! f f Normalldy by Rolf Gangr, the colonization ble source of information for all the events of Harfagr’s re gn, such as the conquest ot iXormanuy Dj *ou g Iceland, &c. (Laing’s Journal of a Residence in Norway.) £ I ^ c . I 1 : V 1 tl i NORWAY. 259 rway. berties. King Olaf was defeated and slain, without even ''showing the prudence and courage which had distinguish¬ ed his early career. This battle was fought on the 31st of August 1030, and not on the 29th of June or July 1033, as is commonly stated.1 The body of the fallen monarch was transported to Saint Clement’s Church, in Drontheim, which had been erected by himself. In return for the ser¬ vices which he had rendered the church, the clergy soon afterwards canonized him; and even at Constantinople temples were erected to his memory. His tomb was re- o-arded as a consecrated spot, to which pilgrimages were performed, not only by ardent devotees from the north, but also from the south of Europe. Canute the Great did not long remain in Norway; and from the period of Olaf’s death the country was ruled by native monarchs, who even for a time governed Denmark. It may be gathered from the ancient chronicles before re¬ ferred to, that at this period society was composed of four distinct orders. The first was the nobility, wdm were de¬ scendants of royal families; and, without regard to priori¬ ty of birth, those who were descended both on the mother’s side and father’s side from Harfagr were eligible to the supreme monarchy. They appear to have had no civil power or privilege as nobles, but merely this odelsbaarn-ret to the crown. The odelsbaarnmen, bondermen, or hus¬ bandmen, were the proprietors of lands held neither from the king nor from any feudal superior. These were the peo¬ ple who had a voice at the Things. A third order consist¬ ed of the unfree men, holding land for services as vassals or as labourers in cottages, but w’ho had no voice in the Things in respect of their land. A fourth order was com¬ posed of the traelle or domestic slaves, who were private property, and in a lower state than the former class. This condition of society, which was equivalent to slavery, was abolished by Magnus VII., who reigned from 1319 to 1344). The most important event in the history of Norway, Sweden, and Denmark, in the middle ages, was the union of the three kingdoms under one sovereign, Margaret, daughter of Waldemar, king of Denmark, which was ef¬ fected by the league of Calmar, in the year 1397. The cir¬ cumstances which led to this remarkable occurrence will be found narrated in the article Denmark. Had this prin¬ cess been as capable of conquering national prejudices as she was of defeating armies, her dominions would have constituted a great and powerful monarchy. But the pas¬ sions of her people were more than a match for her policy; and it was no doubt better that the three nations which she governed should each remain in quiet possession of its own freedom, as enjoyed under its own form of government and laws, than that they should lay aside all differences, and, heartily uniting as one kingdom and people, become the terror and scourge of Southern Europe. Margaret died without issue ; but during her lifetime she appointed her grand-nephew', whom some historians call her cousin, Eric, a descendant of the Dukes of Pomerania, as her successor; and he acceded to the triple crown of Scandinavia in 1412. The union, however, was far from being cordial, and for rather more than a century local insurrections from time to time broke out and distracted the country. The Swedes, m particular, felt great reluctance to submit to a foreign dynasty ; and after various attempts on their part to shake themselves free from the compact of Calmar, the oppres- Norway, sion and cruelty of Christian II. led to the final separation of Sweden in 1520, under the celebrated Gustavus Erick¬ son or Vasa. Norway and Denmark, however, remained under one sceptre till, at the adjustment of European affairs after the fall of Napoleon, Norway was separated from Denmark, and united to the crown of Sweden. This took place in the year 1814. The circumstances which led to the forcible separation of two countries that had for centuries been united by the closest relations, and the union of one of them with another country which had for as many ages been regarded as a natural enemy, may be shortly stated. The grand object of the leading powers was to induce every state to join in the league against Napoleon; and Sweden, in consideration of an ample bribe, acceded to the general confederacy. One of the foulest stains on the escutcheon of Great Bri¬ tain is the treaty which she entered into with Sweden, dated 3d March 1813. By this notorious compact against the liberties of a whole people, England gave to the king of Sweden the kingdom of Norway (which was no more hers than Rome or Pekin), together with Guadaloupe, and a million of pounds sterling, as a remuneration to his Swe¬ dish majesty for joining the allied powers against France.2 After the battle of Leipsic, fought in October 1813, the Crown Prince of Sweden entered Denmark with his army, and, after some bloody scenes in Holstein, peace was concluded at Kiel on the 14th of January 1814. By this treaty Denmark gave up all right to Norway, considering it as quite hopeless to enter into a contest with Sweden and England. Although the king of Denmark might re¬ linquish his claim to the sovereignty of Norway, this was no reason for the people of that country making an uncon¬ ditional surrender of themselves to a foreign potentate. They declared themselves an independent nation, framed a constitution of their own, and proclaimed Prince Chris¬ tian, son of their former sovereign, and governor of Nor¬ way, as their lawful king. Not a little blood was shed in the contention between Sweden and Norway ; and Eng¬ land actively interfered, by blockading the ports of Nor¬ way, for the purpose of starving the inhabitants of the country into subjection. But a speedy settlement of the question became necessary to all parties. The constitu¬ tion which the Norwegians had prepared in April 1814, and which they were in arms to maintain, was guaranteed to them, upon condition of their accepting along with it the Swedish monarch as king, and the Crown Prince of Denmark abdicating the throne. Matters were arranged on this footing; and on the 17th of May 1814, both par¬ ties, the king of Sweden and the Norwegian nation, so¬ lemnly entered into a compact to the effect stated, under the sanction and guarantee of the allied powers, and of Great Britain amongst the rest.3 By the treaty, the en¬ tire independence of Norway as a kingdom was secured, the crowns alone being united, as in the case of Hanover and England. She had a constitution of her own framing, a legislature of her own electing, without being interfered with by any foreign authority in the exercise of her right, and laws of her own making and administering; in short, Norway remained a pure democracy in all but the name. Since this union of Norway and Sweden under one so- This ia put beyond a doubt by a circumstance which all accounts of the battle mention, namely, that a total eclipse of the sun occurred on the same day. Professor Hansteen of Christiania has calculated that such a celestial phenomenon could only have taken P a^e on the 31st of August 1030. j11 fi\e article containing the accession of England to the treaty, after various mutual stipulations, there is a provision containing ie following words: “ And his majesty the king of Sweden engages that this union shall take place with every possible regard and consideration for the happiness and liberty of the people of Norway.” sat VS c ^aC*' worthy °f being recorded, that the committee which drew up this constitution, and laid it before the national assembly, in °7 *°Ur V1?‘ ^rom *''ie to the 16th of ApriL That so perfect a model of a free constitution should have been framed in alEtd ^ 18 truty marvellous ; especially as it was not a rough, unfinished outline, but a system of government complete 260 Norway. NORWAY. vereign, there have occurred only two events of any import¬ ance in the history of the former. rlhe first was the aboli¬ tion of hereditary nobility by the Storthing; and the se¬ cond was an attempt of the Swedish cabinet in 1824 to force on the Norwegian people an entire amalgamation of their country with Sweden. But the firmness of the Stor¬ thing or parliament, the honourable feelings of the sove¬ reign, and, it is said, the interference of Russia on the part of the allied powers, prevented such an infamous attempt to violate the faith of treaties, and bring disgrace upon those who had guaranteed them. Great Britain, as a party to the treaty of 1813, and as having inflicted some injury on the country by her ships of war, was especially bound to protect the liberties and national independence of Nor¬ way, and to preserve her from becoming a mere province o Sweden, as Poland is now of Russia. The facts relative to the abolition of hereditary nobility may be shortly stated. It is fixed that the executive power has not a final veto, but only a suspensive negative, till the law is passed by three successive Storthings. In the year 1815, both chambers of the Storthing proposed and passed a motion to abolish nobility for ever in Norway. The slen¬ der remains of this class were of foreign, and almost in every instance of recent origin ; besides, few of them had enough of property to enable them to hold a dignified station in society. By the law of succession land is equally divided amongst all the children, so that large estates could not be entailed on the possessor of the family title ; and hence, to maintain his rank and respectability, a nobleman must have become a placeman or a pensioner, or engaged in opera¬ tions which would bring nobility into contempt. The ex¬ istence of an hereditary nobility, in a country where the \aw of primogeniture was unknown in the succession to real property, seemed, therefore, an anomaly, which, in any circumstances, could not long be tolerated, and which was altogether unsuitable to the state of things which had long obtained in Norway. The royal assent, however, was re¬ fused to the proposed enactment in 1815, and again in the year 1818, after it had passed through a second Storthing. To prevent it from passing a third time became the grand obiect of government; for then it would necessarily hav e be¬ come the law of the land, with or without the royal consent. In 1821, the year when the measure was to be again brought forward, the king in person repaired to Christiania, and used every means to induce the Storthing to abandon it; but in vain. Six thousand soldiers were marched to the neighbourhood of that city, to overawe both the legislature and the people, and extreme irritation prevailed. At this critical moment, when the flames of civil war were about to be kindled, both the Russian and American ministers interfered. What arguments or remonstrances they em¬ ployed is unknown; but the fact is, that government low¬ ered its tone, the troops were withdrawn, and the Swedish cabinet gave way. The Storthing having passed the mea¬ sure abolishing hereditary nobility for the third time, it con¬ sequently became law. Norway, therefore, remains a pure democracy, federally united with the monarchy of Sweden. Its constitution has“ outlived two dangerous attacks upon it; and as the principles upon which it is based have been developed by practice, it has gained additional strength, and been further secured by the love and veneration of the people. The sudden disjunction of Denmark and Norway, left, of course, much business to be adjusted between indi¬ viduals of the two countries. It thus occasioned much dis¬ tress and loss to persons having connections and property in both ; and it still produces a constant intercourse. Few, Non,. W?' we believe, will admire the manner in which the union be-^-v tween Sweden and Norway was effected; but as few will doubt the benefits which must result to both from the ex¬ change of mutual hostility for mutual cordiality, and to a certain extent an identity of interests. If the reader turn to the map of Europe, he will find Physic that Norway extends from the fifty-eighth to the seventy-aspec;, ' first degree of north latitude, and at the broadest from the fifth to'about the thirteenth degree of longitude east from Greenwich. On the east it is bounded by Sweden, on the west and south by the North Sea, and on the north by the Arctic Ocean. At the broadest part it is scarcely three hundred miles across, and north of the sixty-third degree of latitude the breadth is very inconsiderable, the country narrowing to a mere belt. Its shape is very peculiar, and, in the main, it strikingly resembles that of a Florence flask, the rounded bottom being presented to the south, and the long narrow neck stretching to the north. Norway thus begins about the point where Scotland ends, that is, the Naze. The most southerly headland in the former is nearly in the same parallel as the Pentland Frith, which divides the latter country from the Orkney Islands. These facts will serve to convey a somewhat precise idea of the position of Norway. T-he sea-coast presents features simi¬ lar to those which characterise Iceland, the North of Scot¬ land, Newfoundland, Nova Scotia, Labrador, and other islands and continental tracts of country exposed to the storms, the currents, and the perpetual buffetings of the Northern Ocean. The action of the sea alone, however, could not have formed such immense fissures as are found in the solid primary rock on the Norwegian coast. The theory of the elevation of the land by volcanic impulse from below seems alone sufficient to account for such phe¬ nomena.1 . The greater part of Norway may be said to have an outer and an inner coast, the former being a succession of rocky islands of all dimensions, from a mere point to more than a mile in length, and lying within about a mile of the main¬ land, thus circling all the coast as with a girdle. Boats and small vessels make their coasting voyages within the rocks ; for, even when the ocean is strongly agitated, the outer barrier acts as a sort of break-water, preventing the channel within from being thrown into violent commotion. Those immense arms of the sea which penetrate deep into the country are called fiords in Norway ; a name in geo¬ graphical nomenclature identifying them with the friths ot Scotland, to which they bear a general resemblance, and also to the maritime lochs so numerous on the west coast ot that country. To enumerate these were only to present a catalogue of names designating the same object in ditterent situations and of different sizes. They vary from sixty to two hundred miles in length, and from being several miles to less than a gunshot in breadth; and altogether they con¬ stitute one of the most remarkable physical features ot tne country. The inland streams generally empty themselves into these fiords ; and, as in the case of the Frijs of Forti), Clyde, and others, in Scotland, it is often difficu t to s) where the river ends and the ocean begins. All along tne rock-bound coast these arms of the sea succeed each other with melancholy sameness ; but in penetrating within the sombre and sometimes dangerous mouths, the scene is a at once changed, presenting, at the bottom of these bay, creeks, and other indentations, towns of a pleasant an cheerful aspect, and banks finely wooued with all the . Indeed, the large rounded boulder stone, found on the top, at one time Norway had been submerged beneath the Northern It, present level, may readily.« (and consequently in every other), eight thousand feet ( raifed by some mighty power; and we know of none which n every other), eight thousand teet (the heignt or me ' .r d know 0f none . is sir,h^ fOTvent’",he sol“ ,m,eBe“" the globe which lay above them, and thus broke it up into innumerable fiagments. NORWAY. • rieties of those forest trees which we are accustomed to "'meet in more temperate latitudes, and studded with cot¬ tages, farm-houses, and country residences, indicating taste and comfort, if not luxury and wealth. The tide rushes into many of these fiords with great violence, especially on the north-westerly quarter of the peninsula. This is readi¬ ly accounted for from the fact, that the interior basins are often very capacious, whilst the mouths by which the wa¬ ter flows in to fill them are frequently very confined. Op¬ posite to Folden Fiord is the Maelstrom, or Moskoestrom, long celebrated as the most appalling whirlpool in Europe ; but it owes much of its reputation to the exaggerated ac¬ counts of travellers. It is situated nearly at the extremity of the range of the Lofoden Islands, beginning between Moskoenaes and Moskoe, and exhausting itself between Varoe and Rost, the last of which is the most westerly of the Lofodens. The whirlpool is simply caused by the rush¬ ing of the ocean, as the tide rises and falls, between this chain of islands, which impedes its course like the narrow mouths of the fiords. The relative position of the sur¬ rounding islands causes the Maelstrom to form a large cir¬ cle; and the great inequalities of its bottom, whicht from a few fathoms, deepens suddenly in many parts to 200, in¬ crease the violence of the current. The interior of Norway is traversed by a succession of mountain ranges, called Fjeldes, whence the Cumberland term Fell, designating an elevated tract of ground. Some geographers have divided the Scandinavian Alps into groups, a classification which appears to be more fanciful than real. I hose which intersect Norway, extending from the southern extremity of the country to Cape North, the most northerly point in Europe, are called the Dofrines; and the most considerable of these ranges is the Dovre Fielde, lying between the sixty-second and sixty-third parallels of north latitude. Iravellers are proverbially prone to give exaggerated descriptions of the physical features of the countries which they traverse; and from this cause our meas of the height of the Norwegian mountains, and the sublimity of the scenery which they present, have hitherto been pitched rather above the truth. Mr Laing, in his excellent account of the country, thus describes this great natural feature of Norway. “ The Dovre Fjelde here (at Jerkin, on the northern verge of the range) may be from twenty-four to twenty-eight miles across. When we give nngs their real names, we take away much of their imagin¬ ed grandeur. The Dovre Fjelde sounds well, and we fancy it 3 d sllbhme natur the tract m the waters of the Tay to those of the Spey, by Dal- nacardoc i, Dalwhinny, and Pitmain, greatly surpasses it You are , deed 3000 feet above the level of the sea; but matinn no seen; It is a matter of reflection and infor- look nn « i °l! ?°m d^Wn Upon n°thing below you, and alonp P y ° h* * °f moderate elevation. Schneehcette ibove thTl UPit0 c n?ountain in magnitude : it is 7300 feet 'arm-hn /t6 ,0f the Sea; but this fel1 is 3000 at this use (Jerkin, where Mr Laing resided), which is 261 about twelve miles from the base of Schneehcette. The ac- Norway, tual height of this mountain, therefore, for the eye, is about''- the same as that of Ben Nevis, about 4300 feet, with the disadvantage of gaining its apparent height by a slow rise from the fell. I here is a considerable mass of snow in a hollow on the bosom of Schneehcette, but not more than remains for great part of the summer on hills in Aberdeen¬ shire, and nothing like a glacier.1 The head and shoulder are clear of snow. The most remarkable feature of this mountain tract is, that the surface of the fell, and of Schneehcette to its summit, is covered with, or more pro¬ perly composed of, rounded masses of gneiss and granite from the size of a man’s head to that of the hull of a ship’, ihese loose rolled masses are covered with soil in some places, but in others they are bare, just as they were left by the torrent which must have rounded them, and de¬ posited them in this region.”2 Mr Laing was informed by one of the officers employed in the trigonometrical sur- vey of Norway, that Schneehoette is not the most elevated of the Norwegian mountains, and that, in all probability, xiurunger bjelde exceeds it by about 700 feet. The names of the other elevations to the south and west of Dovre hjelde, are Lang Fjelde, Stagen Fjelde, Sogne Fjelde, Ska- gen rjelde, Fille Fjelde, Hardanger Fjelde, and some others which need not be named. The Hurunger, the Fille, and the Hardanger Mountains, running into the sea at the Naze o Norway, “ form, with the Dovre Mountains, one vast triangular range, with its apex at Lessoe, and its base over¬ flowed by the ocean in the height called the Shagerrak.”3 Ihere are a number of lakes in Norway, the largest of Lakes, w ic i is t ie 1 lyosen, a splendid sheet of water, about rivers, and eighty miles in length and from one to ten in breadth. Itscataract3' scenery has been classed with the pastoral or beautiful, lather than with the sublime. Its shores are well culti¬ vated, and, with the exception of a few rough promontories dippmg into the lake, the slopes are easy, and yield fine crops of oats, bear, flax, pease, and potatoes. Its direction, like that of a great many of the lakes and rivers in Nor¬ way, is from north-west to south-east, crossing the sixty- first parallel of north latitude. The depth of the Myosen varies greatly ; but it is considered as shallower than most of the other Norwegian lakes. The depth in the lower parts is not more than forty fathoms, often it is much less ; but in the upper part it has been found to exceed a hun¬ dred. Yet even this is nothing in comparison with the depth of the other lakes, particularly of the Famund Soe, which is reputed to be unfathomable*; a distinction always allotted to the deepest lake in every mountainous country. A laige stream, called the Vormen Elv, issues from the southern limit of Lake Myosen; and at Sunde, which is its northern extremity, it forms a communication with Lake Losness, or Losness Soe, by the Lossen Elv or River which derives its name from the lake. Into this lake flows a river which rises in the Dovre Fjelde range of mountains, and appears to be the one alluded to by Mr Laing in the following passage. “ The stream which runs through Gul- brandsdal and the Myosen, and reaches the sea at Fre- denckstad, being the same I left at Lien, comes down from the hills at or near Lessoe, and is there divided into two branches, one of which, as above stated, runs into the Myosen, and the other into the North Sea at the fiord in 3 ^-aing s Residence in Norway, p. 52-3. U! 262 NORWAY. Norway. Romsdal amt, in which the town of Molde is situated, thus including in its delta between four and five degrees of latitude, and all the west and south of Norway. 1 he course of this little river from Lessee to the sea is very important, as it gives precision to our ideas of the shape and direction of the Dovre Fjelde, and its connection with the Hurunger, the Fille, and the Hardanger Mountains. This river must therefore have a course of probably one hundred miles in a north-westerly, and above two hundred and fifty in a south-easterly direction. It is in several paits of its course of considerable breadth, and at more than one hundred miles from its embouchure is described as a large dark-coloured and rapid river. A still larger stream is he Glommen, called by way of distinction Stor Liven, or tne Great River, from its being the largest m Norway. It rises iu the government of Drontheim, not far from Ovesund Lake, through which it runs ; and it afterwards traverses the extensive government of Christiania, flowing through Osterdaelen and Hedemarken, passing Kongsvinger, and finally foiling into the sea at Fredenckstad, after a cou of not less than three hundred miles, all in Norway. From the heart of this continent it opens an easy communication with the ocean, and through its means the produce of the interior is brought down to the coast. At about two nun dred mi es from the sea it is described as a fine majestic stream, two hundred yards in breadth. Nav.gat.on how ever, is obstructed by numerous falls, one of which, not far from its mouth, is called the cataract of Sarpen, the roar of which is heard at a great distance. Ihere are other foils on the same river; but the most stupendous natural phenomenon of this description is situated upon the oppo¬ site side of the mountain range, onlstref[1Sr>w[1hlC^T^A^‘ to the North Sea. Mr Lloyd1 describes the falls of Rinkan- fos and Voringfos as particularly grand, the first having a perpendicular descent of 450 feet, and the second of 900 feet! the body of water in both cases being very consider¬ able. Mr Forsell, in giving some statistical information re¬ garding Norway, mentions other falls even more stupen¬ dous than these. There are many other lakes and rivers in Norway besides those which we have described, among which we may mention the Toms Elv, called the Odderen Elv during part of its upper course, a large stream, which “iJsea a. ChrisSmsand; the TopdaU, which fa U into the sea ne^r the same place ; the Louven EL, whict rises in the Hardanger Fjelde, traverses several long, nar¬ row lakes, passes through Kongsberg, and enters the sea near Nauvig, in latitude 59° ; and between this stream and the Lessen, which lies considerably to the north-east, there is more than one large river. A multitude of streams a run into the North Sea. I he most important ot these is the Namsen, which, from its exit out of the lakes that give rise to it, has a course of about ninety miles. From the ground sloping with more rapidity upon this side ot the mountain chain than on the other, the water-courses must be considerably steeper. “ Few countries in the world, says the traveller just mentioned, “ present such sublime natural scenery ; its numerous lakes and rivers, its magni¬ ficent cataracts, its boundless forests and solitary wilds, where silence seems to brood eternally, its terrific preci¬ pices, its smiling valleys, and its towering alps covered with everlasting snows, impress the mind of the travelle always with admiration, and often with awe. I he forests of Norway, as is well known, are large and numerous ; but they do not appear to be so extensive as those of Sweden. In the southern parts of Norway, indeed, and up as far as Drontheim, the supplies of timber are very considerable , but to the north of the latter place, and along the sea-coast, Nor»,f s as well as on the mountain ranges, wood is not plentiful, v-y, ^. many parts of the country being perfectly destitute of it. Norway, however, from the district of Drontheim south¬ wards, may be considered as a country abundantly supplied will, gigantic forests of magnificent trees, amongst wh.ch the pine, birch, and aspen, are the most celebrated and the most valuable to the inhabitants. . The prevailing rocks found in Norway belong to the pri-Geolo» mitive and transition series. The west coast is wholly composed of primitive rocks, gneiss and mica slate greatly predominating. Secondary rocks occur but rarely, and alluvial deposits are not so abundant as in many other less extensive regions. Contrary to the general belief of geo- legists, granite is but a rare rock. When it appears, it is frequently in veins traversing the primitive stratified rocks, or running parallel with beds or strata ; and sometimes it is found spread over the surface of mica slate, as at Forvig ; or irregularly associated with clay slate and diallage rock, as in the island of Mageroe. But by far the most abundant rock in Norway is gneiss, all the others of the primitive series appearing to be subordinate to it. Extensive tracts of county, and long mountain ranges, seem to consist al¬ most entirely of gneiss. In some parts it abounds m veins of rose and milk quartz, in iron ores, in garnets, sometimes the precious, but most frequently the common garnet, and other minerals. Mica slate, however, which rests upon and alternates with the gneiss, is far from being so gene¬ rally distributed, as is also the case with the clay slate. In some places steatite occurs in beds, and is quarried in slabs to be used for different purposes. Quartz rock, various hornblende rocks, and limestone, occur in beds subordi¬ nate to the gneiss and mica slate. One side ot the valky of Shalheim, situated between Bergen and Sognefiord, b bounded by hills of snow-white quartz, which are almost bare, and present mural precipices, having a very singula appearance at a distance, from their shining-white colour. Gabbro or diallage rock occurs in great quantities, con¬ nected with clay slate, in the island of Mageroe, and other parts of Norway. The class of transition rocks con- tains besides graywacke, alum, slate, limestone (combine with^me tremohte), and other rocks well known to min, raloMsts as belonging to the following seriesL Lran>te> which sometimes contains hornblende; 2. syemte, whic contains a beautiful Labrador variety of common felspar, and numerous crystals of the gem named zircon; 3 pi* phyry, and associated with it various trap-rocks allied o . basalt and amygdaloid.’ All the mounta.ns, and espem^ those of the south, contam a great numbe. of ■n.nera sought after in collections, and of metals valuable to man, amongst which may be mentioned gold, sdyer, iron,cop ner cobalt, and others. The mines of silver in Norway are situated at Kongsberg, but although they once rich returns, they now scarcely repay the labour best d on them. Large masses of native silver have been toun here, one of them, now in the Museum of CoPenhage - weighing upwards of five hundred pounds. The Kong berg mines abound with mineralogical curiosities, of whd the most remarkable is native electrum, a "atur^ al^yth gold and silver.4 There is a gold mine at Edswold, in t district of Rommarge, and mines of lead and silver i ^ of Jarlsberg; but they have not been wrought to a y tent. The copper mines of Norway are chiefly sfo in the northern division of the kingdom. The tnost c ^ siderable are those of Raeraas, which were discovered 1644, at the base of the Dovre Fjelde Mountains. i Field Sports of the North of Europe, vol. ii. p. 295. Forbes, s Professor Jameson in Murray's Geography, p. 768 ; and a communication f 4 Elliot’s Letters from the North of Europe, p. 103. a Ibid. p. 293. m *1 NORWAY. m other copper mines are from fifteen to twenty leagues from j , Drontheim, atQuikne, Laekken, Selboe, and in the district of Christiania at Fredericksgave or Foledel. The princi¬ pal iron mines are situated in Southern Norway; and of these the most distinguished are those of Arundal and Kra^eroe. The mines of Arundal are celebrated for the richness of their mineralogical treasures. Many of these are rare, such as botryolite, datholite, wernerite, scapolite, and moroxite; besides abundance of epidote, actinolite, cocolite, and colophonite. The ore (magnetic iron ore) is found in beds of gneiss, of which the country is chiefly formed. The mine of Laurwig, in the vicinity of the town of that name, affords annually 26,000 quintals of bar iron, and 6000 quintals of cast iron. The establishment of the same kind at Moss affords annually 10,000 quintals of bar and cast iron. Other mines, situated in various parts of the country, likewise yield large quantities of this valu¬ able metal; and the whole produce of the Norwegian mines has been estimated at about 150,000 quintals annually. The mines of cobalt, which are worked at Modum and Fossum, are extensive, but not very deep. There is a mine of plumbago and black lead at Engledal. The mines of alum, which are worked in the mountain of Egeberg, near to Christiania, afford not only a sufficiency for the con¬ sumption of the Danish states, but some for exportation. Norway possesses quarries of granite, marble, millstone, whetstone, slate, and clay. Granite is exported to Hol¬ land, and marble and other minerals to Denmark. Norway possesses an island called Berend Island, situ¬ ated between Spitzbergen and North Cape, which pre¬ sents some interesting features to the geologist. It is about thirty English miles in circumference, and is com¬ posed of a formation totally different from the primary rocks of which the Norwegian peninsula, and, it is under¬ stood, Spitzbergen, and other polar islands, consist. The whole island appears to be one entire mass of coal. It is not the fossil-wood brown coal, or surturbrand, found in Iceland, Germany, and some parts of the west of England, but mineral coal. Quantities of it have been brought to the mainland by vessels sent to hunt the white bear and the walrus, which abound in the icy region where Berend Island is situated. j lent Some valleys in Norway give abundant indications of their 1 s,&c. having been lakes of fresh water, which were either gra¬ dually drained as the land became elevated, or, bursting the barriers that confined them, suddenly laid their basins dry. Mr Laing describes one of these in the following passage. “On ascending the steeps which bound the flat alluvial bottom of the valley on each side, and which consists ge¬ nerally of banks of gravelly soil, one is surprised to find a kind of upper terrace of excellent land, cultivated and in¬ habited like the bottom, and consisting of the same soil, a friable loam. This terrace rests against the primary rocks of the Fjelde, which are here limestone, marble, and gneiss, or rock of the micaceous family, of which the laminae are singularly twisted and contorted ; and the terrace has evidently been the bottom of an ancient lake which has been bounded by these Fjelde ridges.” The same travel¬ ler gives an account of one of these ancient sea-beaches, which, in other countries besides Norway, are calculated to arrest the attention and excite the wonder of the ob¬ server of nature. He is speaking of the Snaasen Vand, a lake some sixty or seventy miles north from Drontheim. “ About seven miles inland from the present sea strand, at the head of the fiord, and about sixty feet above the present high-water level, there is an ancient sea-beach of a very remarkable character. Above the house of Fossum, and forty feet higher than the lake of that name, the ^ea-shells are so abundant that they might be applied to igricultural purposes, and they lie close to the surface.” At another place in the neighbourhood there is a large 263 bed of shells, which have been used in mending the road Norway. for a considerable distance towards Snaasen Vand. “They^^r^' are entire ; the upper and under ones of the mussel, cockle, and clam are united, and the mussels grouped together, as in the living state ; so that this bed has clearly been the spot upon which the animals lived.” From these and other indications, it is concluded, that a shore in a direction nearly parallel to that of the present one of the Drontheim Gulf, and on a level at least sixty feet higher, has existed at a recent geological period. These beds are not covered with any thickness of decayed vegetable soil, and the shells retain in part their natural hue and enamel. The land, therefore, has been elevated at no very distant period ; at what rate per century has not been determined as to this side ; but the Swedish philosophers assert, that the change of level in the Gulf of Finland is at the rate of four feet and a half in a hundred years. Such could not have been the case on the shores of Norway washed by the North Sea ; for the relative position of known points upon the line of the sea-shore, to the present level of the sea, are by historical evidence ascertained to have changed little if any during a thousand years. The change of level may have been local, or it may have gone on more rapidly at one time than at another. Earthquakes have been repeatedly experienced in Nor¬ way, at least seven having occurred within the last forty years. History records one which occurred at Drontheim on the 18th of July 1686, and another on the 1st of April 1692. On the 14th of September 1344, the river Guul disappeared in the earth; and on its bursting out again, destroyed forty-eight farms, and 250 human beings. About the same time a great earthquake took place in Iceland. Indeed the whole aspect of this country bears evidence to the fact, that at some period, or more probably at differ¬ ent periods, its surface has been elevated, depressed, and shattered by great convulsions. It would occupy too much space to enumerate in detail Botany, the characteristic plants of Norway. The vegetation of the w'est coast is very similar to that of Britain, but in the south and east there is found a completely different Flora, ap¬ proximating to that of Denmark and Germany. The cause of the remarkable difference between the Flora, and also the Fauna, of the two coasts, is probably to be referred to the absence of tides on the south coast. This circumstance seems to exercise an important influence on the character of the natural productions of the country ; and we the more especially refer to it, as it seems to have been hitherto en¬ tirely overlooked by naturalists. At Bergen the tide falls six or eight feet, but on the south coast it does not fall six inches. The animal kingdom of Norway requires some notice. Zoology. As population has increased, the wild animals have of course gradually disappeared, and the bear and the wolf are no longer the terror of the traveller, as they were wont to be. In winter, indeed, they may sometimes be found in dis¬ agreeable proximity to a stranger who intrudes within their range ; but they are in general timid, and only formidable in herds. In Norway the bear retires to his den, which is generally some sheltered hole in the rocks of the Fjelde, in November, and remains in a state of inactivity, without food, it is said, until April. Indeed many of the smaller animals, the field-mice, the lemmings, and, Mr Laing con¬ jectures, many of the birds, pass the winter in this climate in a state of occasional torpidity. The wolves are not so dangerous animals as those of the south of Europe. They rarely attack a man, but they will carry off a dog at his side; and they often commit serious havoc amongst the domestic animals. The loss of sheep, calves, cows, and foals, in certain parishes, during the season when they are at pasture, is sometimes immense. Bears also commit depre¬ dations of the same kind, but not nearly to the same ex- 264 Norway. NORWAY. tent, as the wolf, which, when he gets into a herd, bites 'and tears all that he can overtake. The elk is now very rarely to be met with, and in all likelihood will soon disap¬ pear from this part of Europe. It is described as a mag¬ nificent animal, being often seventeen hands m heig > and sometimes exceeding in size the largest horse, im such splendid specimens are now seldom or never seen. During winter it resides chiefly in hilly woods ; but in sum¬ mer it frequents swamps and the borders ot lakes, otten going deep into the water to escape the stings of gnats an other insects, and to feed without stooping. With its en - mous horns it turns down with great dexterity branches of trees, in order to feed upon the bark; and these are also used as shovels to get at pasture when it is covered wit snow The glutton or wolverine, so called in America, reckoned a Norwegian animal. Its total length is not more than two feet and a half, and it flies from the faceof man It feeds chiefly upon beasts which have been accidental y killed; but it will hunt small animals, such as meadow- mice, marmots, and the like, and occasionally attack dis¬ abled animals of a large size. Although not ^ 11 industrious, and does great injury to the small fui trade i the northern parts of Europe. The rein-deer, which found in considerable numbers on the Hardanger Fjelde and the Sogne Fjelde, and the diversified qua hues of which are so beautifully adapted to the bleak and inhospitable regions in the north of Norway, will be found described in the article Lapland. The beaver, although not extinct, is rare, and lives solitary, not, like the American beaver, i society. A particular kind of dog, with a remarkably fine soft, and glossv fur, is bred for its skin, which is maue into pelisses for winter wear. Besides the wild arid tame rein¬ deer, red deer are pretty numerous in some districts. 1 he fox and the lemming are abundant in some parts, particu larly in the north. A multitude ot birds inhabit the coasts of the ocean, and Norway furnishes a considerable part of the eider-down, so well known to the luxurious in couches. Game is plentiful; the principal birds being called the tyd- deTroeu ryper, and jerper. The tydder is the bird known of old in Scotland by the name ot capercailzie, but now extinct. The cock is a noble bird, of the size of a turkey- cock, with a bill and claws of great strength. I he loer is the female, and in size, plumage, and appearance so dif¬ ferent from the male, that it has received a different name in the language. The ryper is the same as the Scottish ptarmiganfbut larger am/better clothed ts davou^, how¬ ever is inferior to the game ot the Scottish hills. But the ierper is a more delicate bird for the table than any of our iame. It is of the grouse species, and about the size o a full-orown pigeon. The silence of the forest solitudes is occasionally broken by the sweep of the eagle s or the heron? wing; but the traveller in Norway is generally struck witlAhe limited number of small birds which he meets in the course of his ramblings. Magpies the Roys- ton crow, and swallows, are common ; but the ^fk, linnet thrush, blackbird, robin, and some others common to Great Britain, are little known here. Hares and squirrels are considerable abundance ; and there are some ^^ quadru¬ peds and birds no strangers to the country, but they at of too little importance to require any particular mention. Amongst domestic animals may be mentioned the horse, goat, sheep, and cow ; the goose, the duck, and the tu- key, which are also found wild. Of horses there is a sma breed very general in Norway, and another of a larger size, which is much esteemed for its swiftness and sureness of foot. “ These Norwegian horse are beyond all praise, says Mr Laing- “ they scamper down hills as steep as a house roof, and^in going^^up hill actually scramble. 1 hey have no obiection whatever, if you have none, to any path or any Nor*,,, nace • they are the bravest of horse kind. They are fed^ entirely upon hay, which, although merely withered grass, appears to be more substantial than ours, from the wind and powers of the horses which live upon nothing else. The sheep are shaped like deer, having long legs and small muzzles Numbers of goats and cows are kept, the milk which they yield being very rich, and highly esteemed. Fish abound in the seas, lakes, and rivers ot Norway ; and the inhabitants not only derive a considerable portion of their subsistence from fishing, but it also forms an import- ant article of export. Amongst the insects of Norway, the o-nat, or rather mosquito, is found exceedingly annoy¬ ing & They are in greatest abundance and most venomous in the north. The furia infernalis, so called from the dread- ful effects which follow from its bite, frequents the marshes or boggy grounds. The acute pain and inflammatory swell- ing which its bite produces are removed by a curd poul- tice, which is said to be an infallible cure. The entomo- loo-v of the south of Norway is very similar to that of the south of England, whilst that of the west resembles the en- tomologv ot Scotland, From the general elevation of the land, the climate isCta of course rendered more severe than would naturally be-and»L lono- to a country under the same parallel the general eleva¬ tion of which was more nearly on a level with the ocean. The winters are long and very cold; but, as in all north- ern climates, their length and severity are in some measure compensated by the great heat and consequently rapid vegetation, in summer, lowards the east, and in the in¬ terior, the winter is longest, the cold, generally speaking always increasing towards the north. The effects of the sea-breezes upon the general temperature of the coasts of all countries are well known. Winter, however, is very pleasant and salubrious ; for although the air is cold, it is dry and bracing, not damp and raw. But the western part especially about Bergen and along the coast, is pro- verbiafly6 rainy, owing probably to the high m„un« which attract the clouds wafted from the ocean. Bu the country behind this barrier is on that account particular y dry, perhaps somewhat too much so. In Norway weather is in general more steady than m Bntam, iUs either good or bad for considerable periods. Ihe su mer season is delightful, and very warm. In narrow glens it is too hot during the middle ot the day, but the mornins evening, and midnight hours are charming, and peculiar*u^this country. The sun is below the homos for so short a time that the sky retams the glow and th air the warmth and dryness, winch are as grateful to tbe eye as they are pleasing to the feelings. Summer hngm tong in this country; and, in general, it is an u senes of beautiful days. The disagreeable season is^ ,nrin„ April and May, when, in the transition from winter to summer, the snows are suddenly melted, and the groun is rendered uncomfortable for travelling. Damage is som times done by the rapid swelling of the torrents and rivers. When the white covering of winter disappears, vege bursts forth at once, and advances with astonishmg rapid tj- The following account of the climate of Norway, ed into several districts, is abridged from a popular boo ^ of travels.1 From latitude 58° to 5.) the aver g perature is about 45° of Fahrenheit, and there is noco slant snow region ; between 59° a"d on* nerature is 44° ; and between 60 and 61 it is *0 La-coast and 41° in the interior. The mountains0 Hardanger Fjelde and Fille hjelde he '£lthinfit1o1St0 62° sion, and also the great Lake Myosen. the average temperature is 40 ; a degree i .Tmirnev throuch Norway, Sweden, and Denmark, by H. D. Inglis, p NORWAY. the heat is about a degree less; and of course it continues to decrease as we proceed towards the North Cape. The luxuriance of vegetation being abridged by the length and severity of the winter, the soil is thus indirect¬ ly rendered comparatively sterile. In America the im¬ mense forests are continually enriching the mould with their decaying foliage ; but in Norway the paucity of alluvial tracts, the prevalence of rock, seldom far beneath, and often forming the surface, together with the want of vegetable decomposition, materially detract from the quan¬ tity as well as the quality of the soil. In some parts it is very rich ; and the valleys, in particular, are celebrated for their luxuriant fertility. But much of the soil is thin, and obstructed by rocky knobs rising above its surface, and in¬ terfering with the labours of the husbandman. “ I have not, indeed,” says Mr Laing, “ seen in Norway twenty acres of arable land in one field, without some obstruction from knobs of stone.” Excepting in the extreme northerly divisions of the country, agriculture is prosecuted with considerable spirit and success. “ In Norway,” says Mr Laing, “ the trees of the pine tribe are called furu and gran. Furu is our pine (pinus silvestris), and gran is our fir (pinus abies) ; the one is the red wood and the other the white wood of our carpenters. There are whole districts which produce only furu, others only gran; and this seems not exactly regulated by lati¬ tude or elevation. The zones at which different trees cease to grow appear to be a theory to which the excep¬ tions are as numerous as the examples. In Romsdal amt, at Fanne Fiord, near Molde, in latitude 62° 47' north, and with a medium temperature of only 4° of Reaumur (41° of Fahrenheit), pears, the bergamot, gravenstein, and impe¬ rial, and also plums, come to perfection; and the walnut- tree often bears ripe fruit. Hazel and elm in the same amt form continuous woods, as at Egerdal. Yet the gran disappears altogether, although in the same degree of latitude it grows at an elevation of 1000 feet above the sea in the interior of Norway, and even in latitude 69° in Lapmark. It has been found a vain attempt to raise it in Romsdal amt, a locality in which the following trees and bushes grow readily; Canadian poplar, balsam poplar, borse-chestnut, larch, elder, yew, roses of various sorts, avender, box, laburnum, white thorn, and ivy. Larch arought from Scotland appears to thrive. There must be something in the nature of the plants not connected with devation or latitude that determines the growth of the ?ran and furu.” Mr Laing mentions instances sufficient- y striking to prove that the “ theory of the zones of I deration at which different species of trees will or will not . ^row must be taken with caution, as it does not satisfac- orily cover all the facts observable in this country.” In I mother place he observes, that “ wood of considerable size ?rows as far north as the valley of the Namsen, the largest ' the Norwegian rivers, about 120 miles from Drontheim. t grows in sheltered situations in Nordland and Finmark, is tar north as Alien Fiord (latitude 70°), but of'diminu- ive size, and in such limited quantity that it is thought iccessary to preserve it for the use of the inhabitants, and fs exportation is prohibited.” Trees in the valley of the vamsen are large enough for building material and the aasts of ships. In another place Mr Laing says, “ 1 did not xpect certainly to be charmed with the crops in the sixty- 1 egree of north latitude ; but the vegetative power, latever be the cause, is more vigorous here than in the ort of Scotland. Some of the largest establishments of w mi s in Norway are supplied with trees from the fo- “ S arou^d the Snaasen Vand. Of ordinary productions, as j > oats, beai, flax, hops, there appeared to be great crops. is may well be in a soil and climate which raises such iipre t*rests‘ Bddnd the house I inhabited is a standard vnT 66 bearinS riPe fruit- ^ would be a rarity in VOL. XVI. 1 265 Scotland to raise them unless against a wall, even eight Norway. degrees of latitude south of this.” Here Mr Laing found " y— hops cultivated as a crop, wLilst flax ripened so as to be fit for seed, ihe mountain and common ash are here scarce; the aspen, wild cherry, birch, and the pine tribes, being the trees, and the juniper, wild raspberry, and wild rose, the bushes, which generally prevail. faking the river Namsen as a boundary line separat¬ ing the productive from the unproductive part of Norway, the country lying to the south of it may be considered as capable of producing, in favourable situations, the grains and fruits of England, and these, too, often in the highest degree of perfection. Most kinds of fruit are abundant, but the greatest favourite is the cherry. The crop of cherries is scarcely ever knowm to fail; and in proof of the abundance of this fruit, it may be mentioned, that the Nor¬ wegians preserve it in great quantities, and use it in many culinary operations. Amongst the fruits growing wild are strawberries, raspberries, cloudberries, cranberries, and various other kinds of berries. The three first mentioned are considered as delicious, and they are eaten both when freshly gathered, like cultivated strawberries, and after being preserved. Ihe principal products of the Norwegian farm are oats, Agricultu- rye, wheat, bear, hops, flax, a kind of bearded spring grain, ral P™- with potatoes ; and a large portion of every farm is set apartducts' to grow grass for the cattle and horses. The grass for the most part is natural, sown grasses for hay being very little cultivated. The land, after a bear crop following potatoes, is left to sward itself w ith natural grasses for four years, and to form the hay land, so that the proportion of grass to arable land is much greater than in our farms. The natural grasses do not attain any length, and they are shaven as close to the ground as a bowling-green. The fields are not wdiat is called top-dressed, as with us. The scythe in use is much shorter in the blade than that of Great Britain, and it answers the purpose much better. Potatoes, w hich appear to occupy the place of turnips with us, have been much cultivated since 1812 and 1814, when bad crops, together with the war then raging, reduced many to the use of bark-bread. Large quantities of spirits, called Norwegian brandy, are distilled from potatoes. A small enclosure for hops is attached to every farm-house; but carrots, onions, cabbage, and all garden vegetables, are little used. Probably the short interval between winter and summer allows little time for attending to any but the es¬ sential crops. The hop flourishes with little attention un¬ der the sixty-fourth parallel; a striking fact, when we con¬ sider that this plant is delicate and precarious in the south of England. But there are doubtless families of plants, as there are races of animals, more hardy, or at least more exempt from disease, than others of the same species, and thus enabled to endure the rigours of a stern climate. In farming operations, ditching, draining, and clearing land of vegetable and other obstructions, are prosecuted with great spirit and success. Agriculturists are continually adding to the quantity of arable land in the country by thus re¬ deeming the soil from its original wild state. However, from causes already mentioned, Norway is not capable of furnishing the means of subsistence to any considerable po¬ pulation. Generally speaking, only the glens of the coun¬ try are inhabited. On the dividing ridges there is little or no cultivation, and indeed no soil to cultivate, but only rounded masses of gneiss and micaceous rocks, with juniper, fir, aspen, birch, and beech, growing where they can amongst the stones. Mr Laing gives a very minute account of a Norwegian farm rented by a Scotchman; and as he considers it “ fit¬ ted to be the representative of a large portion of the es¬ tates into which this country is divided,” we shall abridge his description, retaining all the essential parts. Land in 2 L 266 NORWAY. Norway. Norway is measured by the mseling, which contains forty- " "ne square ells, the ell containing two feet, and the Norwe- Plan foot being three per cent, longer than ours. 1 bus the English acre of 43,560 square feet contains four maelmgs and four tenths. Each farm may be considered as consist¬ ing of three divisions. The first is the infiek , or w should call the mains, or home acres, enclosed for the cr and the best hay. The next is the mark or outfield also en closed, and affording the out-pasture for the cattle. 1 a of it are occasionally fenced off, and broken |rm ^ and, when exhausted, are left to sward '’™se',e*|^r0 that when the cattle are sent to the je sti|i some hay is got from the mark. There is often a still rougher piece of ground divided from the ■nark, as » range for goats and young cattle, called the out mark. The third division is the seater. This is a pasture or gra. firm ofen at the distance of thirty or forty miles up in the Fjelde, to which the whole of the cattle and da y maids are sent for three or four months in summer; T huts on these sealers are substantia budding , V accommodation necessary for the da,ry ; a"drn erind^markire mTt included ^rsrysMiEng u consists of 1276 mailings, or 290 i-i^o= Hut this does not include the seater, which English “cresi bnt tins does no te behind the irTco^whli fine trees, and is of a defined houn- d ’ extending about a Norwegian mile (seven English So ,n circuit. On the measured land 148 acres are ] It hut bein^ farmed in the Norwegian style, one “ly b ’arTa-Sps of corn and potatoes. The remain¬ der is always in grass or hay, for the winter support of the cattle.8 Ills natural grass, not top-dressed with manure and is mown when not above the length of ones finger, so that the proportion of arable land that must be given 80 t U i .hi rvmtip in winter is enormous. It is the up to keep ‘ .. quarter; 142 acres outside of gf HS inS ^ ia;; cCed, being fenced off and ploughed in patches. It bears good grass, but is encum¬ bered in some places with brushwood and stones. « This farm supports twenty cows, seven horses, and a score or two of sheep and goats. 1 he accommodation foi cattle is excellent. They stand in a single row n the middle of a wide house, with partitions between each, and room before and behind greater tha" animal itself. The itanfon a w^enfloor, &0SV.d™».J into which «He JrgA» housed tn°Nor way^re1 constructed on this large and con¬ venient scale; and neither cows nor horses requne litter, which is a great saving of fodder. Besides, they are kept perfectly clean, with comparatively little t^ou >1^1 annual lent of this farm was two hundred ^Wars, or T 10s sterling, and the amount of taxes paid was L.6. U 5s! nearly one sixth of the rental, which appears very heavy. ’ Hut this is nearly all that is paid in any shape, . “ indirect taxes, such as our excise and custom-house du¬ des being inconsiderable. It includes tithe, and all charges connected with the church establishment, poor rate, and c ti Such a property as that now desenbed is con- “dlred worth abo„Pt MOti dollars. From 2500 to 4500 dollars include, it appears, the prices of all ordinary es tales, and any thing very much ab°ve or be J°“ bnt. an exception to a general rule. As to the dwemnto houses on such estates, the material for building is so easi¬ ly obtained that there is really no difference between t e residence of a public functionary, of a clergyman, or of a gentleman of large property, and that of a bonde or pea¬ sant proprietor. The Norwegians are the best lodged Nor,, people in Europe, Mr Laing says; but there is little show, and no magnificence which can well be dispensed with n such a country. The division of property among children prevents the erection of splendid mansions, or any thing more expensive than is proportioned to the pro- pertV upon which they stand. The harvest work in this district,” continues our traveller, “ and I believe all over Norway, is well done; and parts of their management might be adopted with advantage in our late districts, where so much grain is lost or damaged almost every au¬ tumn by wind or rain. For every ten sheaves, a pole of Ut strong wood, about the thickness of the handle o a garden rake, and about nine feet in length, is fixed ^ the ground by an iron-shod borer; it costs here almost no- fhing. A man sets two sheaves on the ground against the stem, and impales all the rest upon the po e, one above the other, with the heads hanging downwards. Hus is certainly a mode very superior to ours; and hey have likewise^ better way of cutting it, by which little of the grain is lost. But for an account of this process, and other farming operations, we must refer to ilr aings W°ThePbreed of cattle in Norway is fine boned, thin skin- ned and kindly looking; the colour is generally white, sometimes mixed with red, hut seldom entirely black. The head and muzzle are as fine as in our Devonshire breed. There is so little coarseness about the head or neck of the bull, that the difference bet^ee" a"d ^ ox is less observable than in our breeds. 1 he cattle are all very carefully attended to, and form an important branch of the Imsbandry, as dairy produce enters much into the food of every family, and is more certain in t dimate than that of grain. The cows, sheep, and goats are more tame and docile than they are m Britain, from the constant care and attendance bestowed on them dur- ins the long period which they must stand within doors ami the Norwegians are remarkably kind to their domes¬ tic animals. Goats are a favourite stock, and on every farm appear to be much more numerous than sheep. The goat will eat and thrive on the shoots of the dwarf birch, beech and young fir ; but the sheep will not, and m win¬ ter it requi/es some hay. The goat then gets a bund of dried leaves and shoots of the beech, which only c^t the trouble of collecting and drying them. E^ry h house at this season is surrounded with bundles of these withered branches and leaves of beech tied togetheJ’a.)k rtiick upon poles to dry. The goat, too, gives "ft in winter, when that of cows is scarce ; and from the u common richness of milk in Norway, this small quant y can bear to be increased with water, without materia y ^Irrigation is carried on in many parts to an ext^n^a1^ unknown in this country. Hay being the PrinC'P support of live stock, and both it and corn, as well a P tatoes, being liable, from the shallow sod and powerfnl ^ flection of sunshine from the rocks, to be burned withered up, the greatest exertions are ^vel as water from the head of each glen, along such ^ of will give the command of it to each farmer a his fields This is done by conducting water in . made of the half of a tree roughly scooped out, fra ^ highest perennial stream amongst the MM1'™ « dic„te across ravines, along the rocky an p i ^ sides of the glens; and from tb'® ”“”^U|strib«te> branches shoot off to each farm, le i,:s fields, waler‘ this supply by moveable troughs ^ ing each rig successively. I he quantity of bv" these artificial water-courses is very great. _ . i. «frnT’Qi nnprat.ions 3X6 by these artificial water-courses is very grem. In winter, when agricultural operations are s P_ the Norwegian employs himself in making a iy. merits, furniture, and clothing, which his family may re- 'm,;™. thrashing out tiie crop, attending to the cattle. NORWAY. 267 'quire; nirusuuig uut me crop, atrenaing to tlie cattle, distilling his potatoes, brewing, driving about to fairs, or paying visits. The heaviest of his occupations is driv¬ ing wood out of the forests, or bog-hay from the Fjelde, where it is made in summer by those who attend the cat¬ tle. The distillation of spirits from potatoes is general throughout Norway, grain not being in such abundance as to allow of its consumption in this way. By far the great¬ er part of the spirits used in the country is made in fa¬ milies, not in regular distilleries; every common bonde, or peasant proprietor, distilling his own few barrels. It is part of the women’s work, like cheese making or brewing, and is carried on once a week or once a fortnight, on every gaard, for the sake of the wash and refuse to the cattle, as well as for the spirits. The most profitable way of distil¬ ling potatoes,” says Mr Laing, “ is with a mixture of crushed wheat and malt, or, instead of wheat, rye or any other kind of grain. I he best proportions are these To six heaped barrels of potatoes, weighing seventy-ei'Hit stones of sixteen pounds each, nine and a half stones of wheat or other corn, and five of malt from bear or bio-. If more of any of the parts be taken, the wort or liquor to be distilled is too heavy, and is apt to burn or singe in the still. By this proportion the smallest distilling, as a barrel 01 half a barrel at a time, is regulated. The crush¬ ed grain and malt are first mixed in about a hundred and twenty quarts of water, heated to 50° of Reaumur, or of Fahrenheit, and no higher. The potatoes being per¬ fectly steamed (brought to such a state as to be fit for eat¬ ing), are crushed between two rollers, and, as they leave the rollers, are shovelled into the vat in which the fermen¬ tation is to take place.” “ Boiling water to the extent of about four hundred and fifty quarts is then poured into tbe vat, and is cooled down with cold water to 20° Reau- mur, or 77° Fahrenheit, at which the mash of wheat and malt is added to it; the vat is then immediately covered up as tightly as possible, and left to ferment.’' After fer¬ mentation has ceased, distillation immediately commences iue„fL0CeSS1bein^ conducted in the usual way. Some ten at the end of twelve months, or at that rate for what- Norway, ever .me he may have the loan This is, in fact, a sav¬ ings bank for corn, and is probably the most ancient of ese institutions. I here being no corn-merchants is decid- f !r f? rnaftIenal che{* ul)on ttie prosperity of agriculture ; for, from the want of a ready market where he might dis- ° ]1S ^10 ^le consequent comparatively small inducement winch he has to store it up in these magazines, the farmer naturally wastes it, or does what is probably worse, distils it into ardent spirits. But these institutions are exceedingly useful to the Norwegians as they are circumstanced ; and were it not for them, many might be placed in great difficulties, for want of seed or biead when a bad season disappointed their hopes of a supply from their own fields. The small profit which oc¬ curs upon these transactions defrays the necessary ex¬ penses of building and keeping up the magazines, which are entirely under the management of the bonder or pea¬ sant proprietors. However, under such a system, hus¬ bandry can never become what it is in Great Britain, a manufacture of corn, beef, and other provisions, carried on by a class of individuals who pay a very high rent for the premises on which they work, and embark large capitals in the business. In Norway the bulk of the farmers have no rent to pay, the property being their own ; the articles winch their farms produce constitute nearly the whole of the food or raiment which they and their people require • an there are not, as in other countries, considerable’ masses of population in towns and villages, who, not be¬ ing producers of food themselves, must obtain it from those who.are; so that the former is less dependent upon money-bringing crops than is the case with us. If he raise what is sufficient for his own household consump¬ tion, with a little surplus for sale to pay the taxes, and for the purchase of a few luxuries, all the purposes of form- ing are served with him. This is partly owing to the state of property in Norway. Property in Norway is held by what is called the udal state of or ode system of rights not from any superior, not even propertv. fiorn the king, but, as the possessors proudly express it * * by the same rnrht bv whfoh L > ’ what morethan eighteen quarts EnffIishSUof « [r0ml ,he ki"»' b'“- ^ posseasor/prjud 7 «s, i frit, destitute 0^ d^g”e,bltte or smTfs „r7 * “‘TT ^ the -own’Lit'fs dticed front the barrel of potatoes. Of its exact Jtreneth f ’o dot ,'' . “’"i !“ T ackn°*lf dgment, real or nominal, as Mr Laing was unable to form a,tv judgment ^ 5“^“? u red.^nd“' Pa,d-,ln country all lands are In Norway there is „„ restrict,g„n mdls, every man S si, Sayr?r V° be ^ d fr°m ^ < a"d- according who chooses having a rufot to erect one wbhnm ■> ? r 1 ^ Ftlward Coke, we have no allodial lands. In No£ upon himself any feudafburden snrb e ln£ estates are a^0ll,al> the absolute property of the owner’ feu, for he is the^su er or of Sol la, d iT’ tl,eyare ‘^ore possessed without dtarter. and are subjeci are very numerous in the county be “ not ^'iv nec ‘ ? dT,°‘the l!"rde,‘S a"d Ci,sualties alfccting land held by sary to almost every farm, but S’ sawS ,i nb"Hot ex Sr v 'r0m ^ S°VereiS"’ or snpe- portation, as well as for home consumption ‘ ,,, 1 If® ' V" “'fa total "cgation of the feu- Tlte thrashing machines in general use amonnst anrien! H* p ."f'1’e ’ ll|cre is neither superior nor vassal, so that tunsts are similar in construction ,o tl,o“ of S„T“d tothtarv servtce whtch the latter paid to the former in some have grinding machinery attached to them' ThS consideration ol the land which was granted appears never !S an institution of a very peculiar nature u lY h • • 6 exited ui Norway; and as this constituted the foun- common all over Pr. • ’ w,?ich 18 qu'te dation of the law of primogeniture, so, where such service was entirely unknnurn fl-io^c ^ c , In *his any weekly ma ket^J m T" c1orn-(,ealers» "or are there are nn rw-3 kets be d for t{le sale of grain. There and any ^ ^rowerand the consumer, UP in what mav h n ^ the farrner may have is stored large warehouses 6 cajlef .corn-magazines, which are just as foe'necessities Various ^ the country, grain the former think6/" re(luire them’ What sledges to these nk, § ^ jW/- n0t require ,le conveys in he dW.s £ ‘7. b“sl“'le which . . r ou, wutre sucn service was entirely unknown, there was no necessity for that law which consequently remained equally unknown. In all feudal countries the eldest male heir has to pay an acknow¬ ledgment to the feudal superior on bis entering as vassal in the land. But udal, or noble land, as the word signifies, not being held for military service to a superior, no delectus persona as to who should inherit it was competent to any authority, and consequently no preference of the eldest !>e ^sdCirrSesmt10/, S dtf f 'T* "'f ^^0^'equaTly^Sd’amo^ >n short, he lays it out at interest and ^ 7 surviv,ng children, male and female. There appears fghth per annum. If howeverI IUCrea.se ot however, to be a species of email connected with tl eP uda ' « ^ ^ bushel. Which l«Ke“S rLK »?l\C£a 268 NORWAY. Norway, are what is called Odelsbaarn to his land, or, in other ' words, have a certain right in the order of consanguinity. By recent enactments, this right of redemption has been limited in its exercise to a period of five years; and it is provided that all improvements, as well as the original price, must be paid for. The equal partition of property amongst children by the udal tenure has prevented the accumulation of property in large masses; but, as might have been expected by theo¬ rists, it has not led to subdivisions of estates to an injurious extent. “ The division of the land appears not,’ says Mr Laing, “ during the thousand years it has been in opera¬ tion, to have had the effect of reducing the landed proper¬ ties to the minimum size that will barely support human existence. I have counted from five and twenty to forty cows upon farms, and that in a country in which the farmer must, for at least seven months in the year, have winter- houses and provender provided for all the cattle. It is evident that some cause or other, operating on aggrega¬ tion of landed property, counteracts the dividing effects of partition among children.” In another place Mr Laing says, “ The estates of individuals are generally small; and the houses, furniture, food, comfort, ways and means of living, among all classes, appear to me to approach more nearly to an equality to one standard than in any country in Europe. This standard is far removed from any want or discomfort on one hand, or any luxury or display on the other. The actual partition of the land itself seems, in practice, not to go below such a portion of land as will sup¬ port a family comfortably, according to the habits and no¬ tions of the country ; and it is indeed evident that a piece of ground without houses upon it, and too small to keep a family according to the national estimation of what is re ¬ quisite, would be of no value as a separate propeity. Hie heirs accordingly either sell to each other, or sell the whole to a stranger, and divide the proceeds. The duty of the Sorenskriver, or district judge, consists chiefly in arrang¬ ing this kind of chancery business, and all debts and deeds affecting property are registered with him.” The cause which, according to Mr Laing, has prevented excessive subdivision, is, “ that in a country where land is held, not in tenantry merely, as in Ireland, but in full ownership, its aggregation by the deaths of co-heirs and by the marriages of female heirs among the body of land- owners, will balance its subdivision by the equal succession of children ” This is undoubtedly true, and, when taken in connection with other facts, may sufficiently explain the case. Mr Laing informs us that the standard of living is high in Norway ; or that the population is much better clothed, lodged, fed, and generally provided for, than our labouring and middling classes in the south of Scotland. The dwelling-houses of the meanest labourers are divided into several apartments, and have wooden floors and a suf¬ ficient number of good windows, with some kind of out¬ house for cattle and lumber. Their food and clothing are equally good and substantial. Now it seems quite clear that a people habituated to such a standard of subsistence and comfort will not only not suffer their condition to sink indefinitely below it, but, by prudence and foresight in the contraction of marriage and the raising of a family, will keep down their numbers considerably within their means of subsistence. In Norway that condition which secures respectability to a common man, is one in which he commands not only all the comforts, but most of the luxuries of life, common to the country ; and the natural desire of all mankind to keep up caste, to maintain them¬ selves in that station in which they were born, not to decline from it, and fall, as it were, out of the ranks, will operate as a most powerful check upon the minute subdi¬ vision of land. There are other causes in operation to which our circumscribed limits will only admit of our ad¬ verting. These are the ancient and confirmed habits of Ktk the people, which may be taken into account as a corol-s—i lary of the preceding proposition; and the absence of impediments, such as fines on alienation, or imposts of any kind, in the way of sale or conveyance. Where such fines exist, the difficulties of re-uniting land which has been subdivided are great and annoying. But in Norway, when an udalman dies, the co-heirs do not break up the estate left to them into six or eight, or any other number of estates, corresponding to the number of children ; which would at once reduce the standard of living of the whole of them below that to which they were accustomed. They appear either to sell to each other, which is easily effected in the absence of fines and other burdens on conveyance of property ; or they make a joint-stock business of it, till circumstances permit some of the members to dispose of their shares to those who may remain, and employ the capital in such an advantageous manner as will secure them in that comparative independence and affluence to which they were all their lives accustomed. The diffusion of pro¬ perty in Norway is no doubt very great, compared with its diffusion in this country, but not as compared with Canada. The following table will facilitate comparison: Country. Scotland Norway Lower Canada. Population. 2,093,456 910,000 512,000 Proprietors. 8,961 41,656 57,891 Proportion of Proprietors to Population. 1 to 222 1 to 22 1 to 9 These small estates are scattered on the sides of glens, lakes, and fiords, over a vast extent of country, and, gene¬ rally speaking, are situated at great distances from towns. There are two classes of landholders in Norway; those who have farms larger than they themselves can cultivate, and those who exclusively farm their own estates. These constitute the bulk of the population. The first are called proprietors, a sort of conventional term, equivalent to our esquire; the smaller landholders who work upon their own estates are called bonder, a term, as appears, neatly equi¬ valent to feuar in Scotland. The incomes of the for- mer seldom exceed eight hundred or nine hundred dollars, although there are some who possess as much as three or four thousand pounds sterling per annum. The Norwe¬ gian valleys are crov/ded with bonder farms, which are very numerous throughout the country, and, with their look of plenty and completeness, may compete with the richest and most beautiful in Scotland. Mr Laing draws a very pleasing and interesting picture of this class of peo¬ ple, whose comfort and happiness may indeed be inferred from a short statement of facts. They are owners of their own little estates, which produce all the necessaries of hie, and afford a surplus for the payment of taxes and the pur¬ chase of luxuries. They have no feu-duty nor other incum¬ brance on their property, except the scot or land-tax, whicti, although heavy, renders every thing used by a family so much cheaper, the indirect taxes being little or nothing. They are exceedingly well lodged, and the families hv abundantly ; the manner of living, indeed, is pretty muc i the same amongst all classes. Ihese, and the com or assurance, that in case of death the udalman leaves h wife and family provided for, are certainly calculated m terially to promote human happiness. “ lhls tJass; ® Mr Laing, “are the kernel of the nation. They general fine athletic men, as their properties are no ^ large as to exempt them from work ; but large eno gh ^ afford them and their households abundance, and e superfluity, of the best food. , NORWAY. 269 Besides the bonder or agricultural class, properly so ' called, who occupy all the most fertile lands in the coun¬ try “ from the shore-side to the hill foot,” whereon corn will growr, there is another class called Fjelde bonder, who form a connecting link, as it were, between the class above described and the wandering Laplander. They also pos¬ sess land, and have houses, which, although small, are com¬ fortable ; but being above the level of the corn growing country, their situation is not so favourable, nor is their con¬ dition equal to that of the other small proprietors. The Fjelde bonder are “ the hewrers of wood and drawers of water” in Norway; but they still possess property in cattle as well as in land, and they are described as extremely hardy and active, and as having more robust frames than the agricultural bonder. There is yet another class of the population, which is altogether distinct from any of the preceding, consisting entirely of fishermen, whose so¬ cial condition must be considerably inferior to that of the others. In the provinces of Nordland and Finmark, which occupy the northern part of Norway, beyond the river Namsen, agriculture is but a secondary business, and fishing may be said to occupy most of the attention of the inhabitants. The crops of grain are too inconsiderable and precarious to afford them the means of subsistence, and the riches of the deep are brought in as a compensation for the poverty of the land. The wdnter fishery in the Lofoden Islands, from the middle of February to the middle of April, and the summer fishery over all the coast, which in some branch or other gives employment for the remainder of the year, furnish the inhabitants with the means of purchasing the necessaries which they require. The fish trade is a very curious monopoly. It does not belong to Noway as a whole, but is in the possession of Bergen, Drontheim, Chris- tiansand, and one or two other towns of minor note. Those who manage the business as merchants or shop-keepers, are licensed burgesses of these towns ; and each has a cer¬ tain tract of coast or circle belonging to his shop or fac¬ tory, within which no other person is entitled to buy or sell. These privileged traders pay a certain tax, and are besides obliged to receive and entertain travellers; and their exclusive privilege has become hereditary, attached to the house or factory in which it may be exercised by a duly privileged trader. The average value of the winter fishery has been estimated at L.86,500 sterling; and as the number of inhabitants in the two provinces is only about 80,000, the trade of Nordland and Finmark with the rest of Norway is at the rate of little more than twenty shillings a head. The merchants send out vessels furnished with articles required in the country, and receive the produce of their eight weeks’ fishery in payment. In fact, these distant provinces are connected with the rest of the coun¬ try for just two months in the year, and that only through a few merchants in two or three towns. During the other ten months the trade is left entirely in the hands 0 the Russians, who feed the population, and receive in return all that their industry produces in the fishing. The privileged Norwegians take no more brandy, colonial pro- uce, or such other articles as are wanted, than what is Su £ient to pay the persons who fish for them for eight s; their further supplies the inhabitants obtain from ussia. Were the trade free to all the natives of Norway, s1 is in every country where trade has flourished, there on have been a body of Norwegian traders to and from these provinces, carrying on every branch in which em- i * -—> —- * j *“5 vij cvciy ui ctiiuii in vv ymentand profit could be found and realized. Instead „ 1S’business is almost entirely in the hands of stran- >an No™;ay receives little or no benefit from her own be.r?8- £ ^le absurdity of such a monopoly it would restriction t0 3 Para^e^ *n t^le history of commercial The fishing business itself is conducted in a peculiar Norway, manner. Every twenty or thirty of the fishing companies have a yacht, or large tender, which conveys the provisions, nets, lines, and other articles, to the Lofoden Islands, the great scene of the Norwegian fishery, and brings back the pioduce. I he stations are all correctly defined by marks on the coast, and by judicious regulations confining line- fishers to the inside, and net-fishers to the outside. In 1827, which was a medium year, there were 2916 boats fishing in eighty-three different stations, accompanied by 124 yachts or tenders, the number of men employed being 15,324 in all. The produce was 16,456,620 fish, which would amount to about 8800 tons dried ; there were also 21,530 barrels of cod oil, and 6000 of cod roe. When this fishing ends, the seafaring peasantry of this part of the country, as we have already said, are employed by the Rus¬ sians; the others return to their homes, and catch sethe (gadus virens) or herrings. The herring fishery is very judiciously managed; so much so, indeed, that the Nor¬ wegians have beaten the Scotch herring curers out of the markets of the Baltic, as they deliver fish better assorted, and of superior quality. Besides these important general fisheries, there is in every creek of the fiords, even at a hundred miles up from the ocean, abundance of cod, whit¬ ings, haddocks, flounders, sea-bream, and herrings, caught for daily use and for sale by the seafaring peasantry. The rivers and lakes are likewise well supplied with fish, which may indeed be said to constitute the basis of a Norwe¬ gian repast. The manufactures of Norway are too unimportant to de¬ tain us long. Wood and fish are the chief produce of theTrade and country; and these find their way to every part of Europe, ™anufac' chiefly in Norwegian vessels, which in return bring home ures‘ whatever foreign articles are required, at the cheapest pos¬ sible rate of freight. Ihe import duties are very moderate. Articles which have been in use, and are not intended for sale, as furniture, books, clothes, or household goods, are not subject to duty. Before the importer pays his duties, he is allowed to take his goods to his own warehouse and shop, upon giving security for the amount of the duties as¬ certained by the custom-house officers at landing; he also keeps an account of his sales, and pays the duty every three months upon the quantity which appears to have been sold. 1 his must be of great advantage to the dealer in a country' so poor as Norway, since it leaves his capital entirely free for active employment. Coffee, sugar, tea, a little French brandy, and French and Spanish wines, a little tobacco, (for the Norwegians smoke less than any other continental people), and a limited quantity of spiceries, are the princi¬ pal articles for which the house-keeper has to disburse money. Ihe other necessaries of life are produced by themselves. Shoes, furniture, cloths, and the like, are all made at home. Looms are at work in every house in the country ; carding, spinning, and weaving forming constant occupations of the female part of the household. Wool¬ len cloth, substantial but coarse, excellent bed and table linen, and checked or striped cotton or linen for female apparel, are the ordinary fabrics produced. These home¬ made stuffs, including boots, gloves, and in bad weather great-coats, clothe the greater part of the inhabitants, and more comfortably than is the case with the lower and mid¬ dling classes of people in most other countries. The upper ranks, or the people of condition, dress as in other parts of Europe ; and as living and lodging are nearly on a level amongst all the respectable classes, the peasant proprietor, and those more wealthy than he is, this wearing of foreign articles by the latter, and home-made stuffs by the former, would seem to constitute a kind of conventional distinction between them. This is not the place to speculate on the general economy of these family manufactures; it seems, however, to be extremely well adapted to the Norwegians, 270 NORWAY. Norway, as they are circumstanced, both in regard to climate and ~y~—^ social relationship. The principal articles of export are timber, bark, iron, copper, fish, and some others. The principal articles of import are corn, colonial produce, woollen, linen, and cot¬ ton goods, wine, brandy, &c. Salted and pickled fish, one of the staple products of Norway, is principally exported from Bergen. In the year 1833, there were exported from this place, of dried fish or stock fish, 22,620,992 pounds, and of salted and dried fish 4,802,000 pounds, ihe deals of Christiania have always been held in the highest esti¬ mation ; a consequence of the excellence of the timber, and of the care with which the sap-wood and other defec¬ tive parts are cut away. Like many other branches of the trade of Norway, that of preparing wood was formerly fet¬ tered by pernicious restrictions; the saw-mills being li¬ censed to cut a certain quantity only, and the proprietors bound to make oath that it was not exceeded. But this absurd regulation no longer exists. British manufactured goods are admitted into Norway on moderate duties, and are very generally made use of. The imports from Nor¬ way were, With regard to money, the principal silver coin in circu- N In 1831. In 1835. Bark for tanning and dveing... 48,131 cwts 20,04.1 cwts. Iron 377 tons 4 tons. Goat-skins 18,210 number.... 7,837 number. Smalts 200,840 lbs 00,503 lbs. Battens and batten ends 8,430 grt. hurd .. 5,415 grt. bund. Deal and deal ends 10,457 do. do 4, > 04 do. do. Masts, yards, and the like,.... \ 4 826 do 6?842 tl0. do. under twelve inches ) Timber 23,527 loads 30,446 loads. These are the principal articles; but there were some lation (for there are none of gold) is called a species dol lar, which is divided into one hundred and twenty skil¬ lings. There are also half species, one fifth species, one fifteenth species, and what is denominated skillemynt or small change, that is, four and two skilling pieces of silver, and also one and two skilling pieces of copper. The dol¬ lar is worth three shillings and tenpence sterling at the present rate of exchange (1837). There are, besides, notes of one dollar, half a dollar, and twenty-four skillings, all printed on white paper. The notes of five dollars value are on blue paper, those of ten dollars on yellow paper, and those of fifty on green paper. This is, we think, a very wise and convenient arrangement. The Norwegian finances are in a flourishing condition,Re- e. the revenue having latterly increased considerably. The Bank of Norway, which was founded in 1816, has its head office in Drontheim, with branches in the princi¬ pal towns, and is under the direction of five stockholders, with a council of fifteen representatives of the other pro¬ prietors. The transactions of this bank are conducted upon a principle totally opposite to that of the Scotch and other banking establishments. It is there considered as a first principle that the bank should hold only available securities, as bills or bonds at a short date, or payable at a short notice, for its issues or advances. The national bank of Norway is therefore a bank for landed property, and discounts mercantile bills and personal securities only as a secondary branch. Its chief business is ad¬ vancing its own notes, upon first securities over land, any sum not exceeding two thirds of the value of the property, according to a general valuation made in the year 1812. The borrower pays four per cent, for what he draws, and others, amongst which may be reckoned one million of is bound to pay also five per cent, of the principal yearly, lobsters. The exports to Norway were, Coffee... Indigo... Pepper.. Pimento. Rum In 1831. In 1835. .535,491 lbs 310,459 lbs. 7,765 lbs 8,631 lbs. ....8,189 lbs 1,920 lbs. ....4,981 lbs 4,348 lbs. .4,585 galls 6,248 galls. Muscovado sugar 3,169 cwts 1,298 cwts. Tobacco 366,024 lbs 4/5,338 lbs. Cotton wool 83,566 lbs 39,227 lbs. Coal 3,774 tons 5,602 tons. Cotton cloth 434,744 yards 691,320 yards. Earthenware L.3,402 L4,502 Cutlery L.2,648 L.3,646 Soap and candles L.2,938 L.3,302 Woollens L.13.000 L.17,229 Salt 92,150 bushels 147,057 bush. Wheat L283 qrs. Barley 24,471 qrs. In some articles our trade with Norway has declined, but the amount of British and Irish produce and manufacture This kind of bank is exceedingly well adapted for the wants of the country ; and their paper can scarcely be con¬ sidered as less secure than their silver. Since it com¬ menced business, discussions have more than once taken place regarding the return of the bank to cash payments, as it was originally agreed that after the lapse of a certain period it should begin to pay its notes in cash. This has not been found practicable, although the maximum has been reduced to 125 paper dollars for 100 of silver; but the paper dollar has for a considerable time been at 112 for 100 silver on the exchange of Hamburg. The bank is able to provide for all its notes in silver; and the ques¬ tion recently agitated in the Storthing was, whether its course of 125 paper for 100 silver dollars should not now be reduced to par, 100 paper for 100 silver, which has not been agreed upon. The Norwegian army consists of some twelve thousand An troops of all arms, besides which there are thirty thousand militia enrolled. Two companies belonging to each regi¬ ment in the Norwegian service are trained to the use of This corps, called the skielobere, the skidor or skate. Tins corps, Uie amount O, m.u » — , — move with singular agility and speed, and, whilst skating exported to that country has steadily increased, as the fol- along with the greatest velocity, perform their m y lowing statement will show. Our exports were, in 1827, evolutions with uncommon precision. . Ihe army 18 a , L.39,129; in 1828, L.53,582 ; in 1829, L.64,234; in 1830, disposal of the king, as far as its services can be renaere L.63,926 ; in 1831, L.58,580 ; in 1832, L.34,528; in 1833, available in Scandinavia ; it cannot, however, be sent L.55,038 ; in 1834, L.61,998; and in 1835, L.79,278. yond the limits of the peninsula without the special pe - Were the discriminating duty on Norwegian and Baltic mission of the Storthing. The king has the nomina^ were ine UlscriiimiauiJg uuty uli muiwegiau cum uanu; miooiwn wi n p few timber repealed, our commercial relations with the whole of the superior officers of the army, as well as o s0"? oj- of the first civil officers under the government; others rests with the Storthing. Norway is governe / a viceroy, appointed by the king of Sweden; Christiania, the capital of the country, being the seat of governmen • She contributes nothing towards the expense of the To these should be added L.27,436 received on account ish government beyond a trifling annual a^0.vv®nce of tonnage duties, lights, and sundries. The weights and royal family; but she supports all her own civil an measures of Norway are the same as those of Denmark, tary institutions. north of Europe would be greatly extended. Compared with the Swedish customs-duties, those of Norway are mo¬ derate, the import duties seldom exceeding two per cent. ad valorem. In 1831 they amounted to L.161,840 in¬ wards, and to L.47,381 outwards, making in all L.209,221. NORWAY. 271 j.r, In the year 1825 the population of Norway amounted to ters in counties. The elective franchise is not connected Norway. 1“-^ 967,959. According to the census of 1835, it was 1,098,291, with the place, but with the number of electors ; and ex- being an increase of 130,332 in ten years. The town pands or contracts as they increase or diminish. Ifnum- population of 1825 was 112,7/8, and in 1835, 125,139, bers change, the power of choosing electing men changes being an increase of 12,361 in the same period ; and that also; and as the Storthing bears a proportion to the num- of the country amounted in 1825 to 855,181, and in 1835 ber of electing men, the number composing the Storthing to 973,152, being an increase in ten years of 117,971. It is likewise varies; but the variation cannot be great, indeed quite clear, therefore, that the great bulk of the population seldom more than two or three. By this self-acting sys- is engaged in agricultural pursuits; trade, manufactures, tern of parliamentary reform, places which increase ob- and the other occupations employing but a very limited tain a direct voice in the making of laws, whilst such number. The town population is confined to thirty-eight as decrease below fifty electors must join another district, places, only nine of which have more than 3000 inhabi- The electing men, on a day fixed by law, choose their repre- tants, and only two reach 20,000. Besides, in the whole sentatives, and the body thus elected forms the Storthing, of these, with the single exception of Bergen, a consider- The proportions of members chosen is founded on the prin- able proportion of the inhabitants are partially engaged in ciple, that the towns in Norway should as nearly as pos- agriculture. During these ten years, no manufacture has sible return one third, and the country two thirds, of the been produced fit to be exchanged for the commodities whole body, which must not consist of less than seventy- of other countries. The staple trade in wood, which for- five, nor of more than one hundred members. Each district merly gave employment to a large portion of the inhabi- elects as many substitutes as it elects representatives, to tants, has latterly been in a very depressed state, from provide against death and other casualties. The Storthing the restrictive duty already referred to. The increase of is chosen every three years, and is assembled only once in population, therefore, has chiefly taken place amongst the three years, when it sits for three months, or until the agricultural classes ; and the additional food raised for their business be despatched. The 1st of February is the day of support, together with the admitted advance of the people meeting fixed by law. An extraordinary Storthing may during these ten years, is to be attributed partly to addi- be convened by the king, but its acts must be confirmed tional tracts of land having been taken in, and partly to by the next regular Storthing. After some preliminary busi- improved methods of cultivating the old soil. The coun- ness, such as electing a president, speaker, and secretary, try has unquestionably made great progress under its own the Storthing divides itself into two chambers. One fourth peculiar legislation; and taxes have gradually been re- of its whole number is formed into a second chamber, duced. called a Lagthing, or division, in which the deliberative ;1 The kingdom of Norway is divided into four sees or functions of the legislative body are vested. This chamber 1 3- stifts, each of which is divided into a certain number of appears to be equivalent to a house of peers, but its districts, corresponding to its size and importance, and powers are much more confined. No bill can be introduced these again into parishes, of which there are 336 in the there; it must come from the other house, which is called country. The dioceses are Aggershuus, containing Christi- the Odelsthing, or house of commons. The Lagthing can ania, the capital; Christiansand, the largest town in which only deliberate upon what is sent to it, and approve, reject, bears the same name; Bergen, containing the large and or send back the bill with proposed amendments. It is also important city of the same name ; and Drontheim, which the court before which, aided by the Hoieste Ret Court, an contains the city of Drontheim, situated on the south shore independent branch of the state, the lower house may im- of a great fiord ofjhe same name ; the northern territories peach ministers of state. As the Storthingof 1836 consisted of ninety-six individuals, the Lagthing comprised twenty- four members, and the Odelsthing seventy-two. Mr Laing thus speaks of the Norwegian parliament. “ The Storthing consists, in fact, of three houses, the Lagthing of twenty- four members, the Odelsthing of seventy-two, and the en¬ tire Storthing consisting of the whole ninety-six united in one house. In this latter all motions are made and dis¬ cussed ; and, if entertained, are referred to committees to report upon to the Storthing. The report, when re¬ ceived back from a committee, is debated and voted upon ; and if approved, a bill in terms of the report is ordered to be brought into the Odelsthing. This house entertains or rejects the proposed bill, frames and discusses the en¬ actments if it is not rejected in toto, and sends it up to the Lagthing or upper house, to be deliberated upon, ap¬ proved, rejected, or amended/’ In regard to the passage of bills through these two houses, the practice of the Nor¬ wegian parliament does not differ materially from that of our own, except in the more limited functions of the Lag¬ thing, the king having only a suspensive veto. But if a bill pass through three successive Storthings, it becomes the law of the land without the royal assent. This was exemplified in the case of the bill, already mentioned, for the abolition of hereditary nobility. The duties of the Storthing need not be minutely specified; they may easily be inferred. The members are paid for their services; and no executive officer of government can sit in either house. For legal purposes, the whole country is divided into jlirj:Spru. four stifts or provinces ; and these are farther subdivideddence. into sixty-four judicial districts, each of which last compre- of Nordland and binmark, which goes also by the name of Drontheim, being presumed to be in the same see. The stifts are thus distributed. Christiansand occupies the southern extremity of the country; Bergen and Aggers¬ huus occupy, the former the western, and the latter the eastern sideof Norway, where it is widest, extending over its whole breadth in that quarter, and being separated by the great mountain chain; still farther north lies Dron¬ theim, which is succeeded by Nordland and Finmark, the most northerly region of Norway, and of which the reader will find some account in the article Lapland. Each district, called a fogderie or bailiwick, is under a foged, who has charge of the collection of taxes, police, and all executive functions in his district. Besides this public functionary, there are military officers, who have official re¬ sidences in the district; and the amtman, and sorenskriver or judge ordinary. Christiania, Bergen, Drontheim, and the other large towns in Norway, will be found described each under its own respective head in this work. The Norwegians enjoy more political liberty than any other European nation. The parliament, called the Stor¬ thing, is chosen by the owners or life-renters of the land who have attained the age of twenty-five years complete, fhe minimum value which gives a vote is a hundred and . ty dollars, or L.30, a value which, from the large diffu¬ sion of property, renders the suffrage nearly universal. To render the elector himself eligible as a representative, it is only necessary that he should be thirty years of age, have resided ten years in Norway, and be altogether unconnect- e vvith the state. The voters choose electing men, one to eveiy fifty voters in towns, and one to every hundred vo- 272 NORWAY. Norway, hends several prestigilds or parishes. To each of these di¬ visions there is a distinct tribunal, with a supreme court of ultimate appeal for the whole kingdom, established at Christiania. The lowest court, which is strictly one of equity, not cf law, is the court of mutual reconcilement or agreement held in every parish, and over which presides a commissioner, who is elected every three years by the householders, and holds his court once a month, receiving a small fee. Every case or law-suit whatsoever must pass through this preliminary court, where no lawyer or attorney is permitted to practise. Each party states his own case ; and if by the judgment or advice of the commissioner the parties are brought to agree, his opinion is duly re¬ gistered in another court held in the parish, and it has all the validity of a final decision. If, however, the litigants are not satisfied, they carry their case to the lowest legal court, that of the sorenskriver, or sworn writer, which is held in every parish of every district once in every quar¬ ter. The sorenskriver’s court is ot great importance. Be¬ sides judging civil and criminal matters, it is the court ot registration affecting property in the district, and also for ascertaining the value of and succession to the property of deceased persons. The court next above is the stift-amt court, or that of the province, and is thus constituted. It consists of three judges with assessors, is stationary in the chief town of each province, and is the court of appeal from all the low'er tribunals of the province, having at the same time the revision of their administration. It must likewise sanction their decision in criminal matters be¬ fore sentence can be pronounced. T.here is, lastly, the Hoieste Ret Court of final appeal. It consists of seven judges, and, by the ground law, is one of the three estates of the constitution, being independent of the executive and legislative branches. To this court appeals are carried in the last resort, from the stift-amt courts, in ciiminal as well as civil cases. The Norwegian system of jurisprudence presents some remarkable features, not the least important of which is that the judge is responsible for his legal decision; and in a case of appeal to a higher court, he must there de¬ fend his judgment, being liable in damages for a wrong de¬ cision. This principle involves a high responsibility, and must occasion some individual annoyance, as well as ex¬ pense ; but it does not prevent able lawyers from becom¬ ing candidates for judicial functions ; and beyond all doubt it is of great advantage to the public in giving certainty to the law, and in preventing as well as remedying erro¬ neous decisions. The punishment of death was abolished by the Danish government about the latter end of the last century, a measure of questionable expediency in this country, at least where the secondary punishments are by no means perfect. But the punishment which is found the most effective, and which forms one of the most dis¬ tinguishing characteristics of the country, is that of the “ loss of honour.” From the earliest times this has been a specific punishment in the criminal law of Norway, standing next in degree to the loss of life. “ The pos¬ session of property,” says Mr Laing, “ naturally diffuses through all classes the self-respect, regard for character and public opinion, circumspection of conduct, and consi¬ deration for others, which flow from and are connected with the possession of property, and render these influen¬ tial on the morals, manners, and mode of thinking of the whole body of the people.” There is and has always been much more of the real business of the country in the hands of the people of Norway, and transacted by themselves, than is possessed by the inhabitants of any other European nation. Now, as the “ loss of honour” involves exclusion from all the functions which naturally devolve upon them, the punishment is very severely felt, and looked upon, even by the humblest peasant, with the greatest dread. Imprison¬ ment is regarded by the great bulk of the population as E li°"ht compared with the sentence of dishonour; and the^ prevalence of such a high tone of feeling regarding a check to crime, which in other countries is altogether ineffectual, is a phenomenon in social polity highly to the credit of the Norwegians. . The Norwegian church is in principle and doctrine Lu-C;,] theran, and remains as it was originally moulded after the subversion of the ancient faith, unaltered by the spirit of in¬ novation, and unviolated by the hand of power. It is essen¬ tially ceremonial, almost as much so as the Roman Catho¬ lic. The altar is decorated with crosses and images, and the priest, arrayed in embroidered robes of velvet, celebrates high mass under that name. Io maintain the ceremonial with decent splendour, as well as to support the clergy¬ man in a respectable manner, it is necessary that the pa¬ rishes should be of considerable size. Iheie are in Nor¬ way 336 prestigilds or parishes; and many of these are exceedingly large, extending in some parts from the sea- coast to the Swedish frontier, and containing from 5000 to 10,000 inhabitants. This is certainly a low provision for religious instruction; but the people, generally speaking, are scattered all over the country, not clustered in towns and villages; and although individually they are not af¬ fluent, they are at least respectable, notwithstanding that as a whole they' are poor. Under such circumstances, pa¬ rishes must necessarily be large. There are five bishoprics in Norway, each of which has in it a suitable number of in¬ ferior clergymen. The patronage is in the hands of the five bishops and the Norwegian council of state, acommittee of which has charge of all the affairs of the church. By ju¬ dicious arrangements the abuse of patronage is prev ented. Amongst the regular clergy there is one who has the su¬ perintendence over the concerns of four or five of the ad¬ joining parishes; and the state of the church-property buildings, and the manner in which clerical duties are dis¬ charged, come under his cognizance. He communicates with the bishop of the diocese, and has a small allowance for performing these services, as dean or probst. Ihis ap¬ pears to be the only dignity in the church, with the ex¬ ception of that of bishop. The incomes of the clergy are derived from tithes, commuted into a payment of grain, glebe farms, one of which the widow has for her life, of¬ ferings, and dues. These incomes in country parishes vary from 800 to 1600 dollars; but in large towns, or thickly settled parishes, they are higher. The bishops, says Mr Laing, have about four thousand dollars each. In propor¬ tion to the other professional classes in the country, the clergy are well paid, and the church has always been the first profession to which talent is naturally directed. Ihe clergy are laborious and zealous in the discharge of their duty, the church service forming the smallest part of it. They have school examinations, Sunday schools, and other institutions for the promulgation of Christian knowledge. Mr Laing’s impression is, that the Norwegian clergy are a highly educated body of men, being all acquainted witn the literature of Europe, and some of them celebrated tor their classical attainments. It is a peculiar characteristic of the Norwegian church, that there is no dissent from it; there are no sectarians in the country. This arises party from the church having no temporal power, no polltica ex¬ istence as a part of the state, no interests jarring with thos of the other members of the community. In political rig and privileges the clergy are on a footing with the res o the inhabitants, and are represented in the Storthing, i other citizens. The Lutheran religion is part of the s > but not the ministers who teach it. One chief cause o influence of the ministers of religion, and the absence dissent, is the high consideration in which the rig confirmation is held. The person who has passed th deal is regarded as having received a moral as wen NORWAY. 273 or r. religious diploma, which capacitates him for an office of trust and responsibility. In connection with religion, we may mention the singular fact, that Bibles are remarkably scarce. Mr Laing could not obtain a copy of the Old or New Testament from the only bookseller in Drontheim, which contains 12,000 inhabitants, nor from the book- dealers at the fair of Levangor. The reason assigned for this remarkable deficiency in the sacred writings in a country attentive to religion, and sufficiently supplied with the catechism and the book of common prayer as used in the Norwegian church, is, that the Bible Society of Lon¬ don at one time sent over a great supply, and drove the regular dealers from the market by underselling them. In consequence of this they are now afraid to speculate in such a precarious stock. Education is very generally diffused ; but the standard of excellence is rather low, reading and writing constitut¬ ing nearly the whole. It is provided for in the country parishes by an arrangement similar to that of Scotland. There are parochial schoolmasters, of whom some have fixed residences, and others live for one half of the year in one place, and for the other half in another. A small tax is levied from each householder, and every adult pays a small personal fee. There is a considerable degree of intelligence evinced in some of these communities; but the schools are too widely scattered over a thinly peopled country to be equally beneficial to all. It may be mentioned, that the clergy pay particular attention to the diffusion of edu¬ cation. The higher department of university education at Christiania is exceedingly expensive ; and, besides, there is not such a demand for educated men in the medical, legal, and commercial professions, as in more densely-peo¬ pled and commercial countries, the tendency of which un¬ doubtedly is to raise the standard of intellectual proficien¬ cy amongst all classes of the community. Those belong¬ ing to the learned professions are not numerous, because the demand is not great, and the supply is adjusted ac ¬ cordingly. The restrictions on the free exercise of trade and industry also operate with great force in depressing general education. Before a person can enter upon any medical or legal employment, before he can manufacture, buy, or sell as a merchant, he must obtain peculiar privi¬ leges from a corporate body. “ As the expense of prepa¬ ration,” says Mr Laing, “ and the small number of prizes to be obtained, place the higher and learned professions out of the reach of the main body of the people, as objects of rational ambition, for which they might endeavour to bestow superior education upon their children, so the re¬ strictions and monopoly system shut them out from vari¬ ous paths and employments for which ingenuity, with or¬ dinary useful education, might qualify them.’’ With such a legislature as Norway possesses, it is to be hoped that these fetters upon the industry and intelligence of the country will not be allowed to remain much longer unre¬ moved. is. From the general diffusion of periodical publications, Mr Eaing is Jed to infer that the Norwegians are a reading peo¬ ple. What is of great importance to the community is, that the press is by law perfectly free. There is no duty on news¬ papers, of which upwards of twenty are published ; seven or eight in Christiania alone, and all in extensive circulation. very little town has its local newspaper; and from the importance attached to local subjects there discussed, the u k of the community are the purchasers, not the educat- e ew. In type and paper they are superior to the French or erman papers, and much ability is shown in conducting Rq^ivr newsPapers as the American people read,” Ys r Laing, “ would not find readers in this country.” ere is no scurrility nor personal abuse displayed by those sinn Wr.lte in t^em ; yet the most entire freedom of discus- exists, public men and public measures being handled VOL. XVI. ° freely but decorously, and with a strict eye to the general Norway, good. There is no tax upon advertisements ; and a mea- v-*l,' sure to allow all periodical publications to be transmitted free of postage was lately negatived, only because the re¬ venue of the post-office had been appropriated to certain specific purposes for the three years next ensuing. Some newspapers which are supposed to be particularly favour¬ able to government are allowed by royal favour to pass free of postage at present, and no doubt is entertained that ere long all will be placed upon the same footing. A number of periodical and occasional works besides newspapers are published. There are two weekly magazines in great cir¬ culation ; several monthly journals devoted to literature, antiquarian, agricultural, and military subjects ; and in al¬ most every newspaper there is the announcement of some new work or translation. Yet the literature which ought strictly to be considered as Norwegian is not yet of a very high order compared with that of other countries. But the mind of the country is advancing, and literature, which is young in Norway, will advance along with it. The inhabitants of Norway are very polite in their man- Manners ners, as well to each other as to strangers. They are and cus- partial to theatrical representations, so that the drama holdstoms* a high place in their estimation ; and, besides the public theatres, there are societies of amateur performers in all the larger towns, and even in some of the villages. In music, dancing, and dress, the Norwegian females are by no means deficient. They have pleasing voices, and in every family of every station singing and dancing are constantly practised in the long winter evenings. Music is taught in the country by the organist attached to each parish. In the winter regular fairs are held, at which Swedes and Laplanders attend for disposing of goods. Christmas is kept in great style, and there are other festivals and vari¬ ous amusements which serve to relieve the tedium of winter and spring. The 17th of May, also, being the anniversary of their independence, is celebrated both at home and abroad by every Norwegian, and with marked propriety. Mr Laing gives a favourable account of the state of mo¬ rals in Norway ; but, without impugning so high an autho¬ rity, if we are to take bastardy as a test, the statement is not borne out by the facts. The proportion of illegitimate to legitimate children is as one to five, which is as high as in London or Paris. But the evils entailed upon society by illegitimacy are partially alleviated by the state of the law in respect to this. Children are not only rendered legiti¬ mate by the subsequent marriage of the parents, as in Scotland, but the father, previously to his contracting a marriage with another party, may, by a particular act, le¬ gitimize them. The Norwegians are at all events a very hospitable, honest, industrious, and peaceable people. The government of Norway, aware of the value and im- pubiic im_ portance of steam navigation, is making great and judici- prove- ous exertions to promote it. This is a country where it is menta. calculated to produce its greatest benefits, from the man¬ ner in which the peninsula is traversed by long arms of the sea, penetrating sometimes to its very centre. Steam- vessels are now seen plying on these fiords; they are com¬ manded by naval officers; the fares are moderate ; and in all that regards thecomfort of passengers they rival ourown. Roads and bridges are kept in a state of excellent order; a circumstance likely to happen in a country of proprie¬ tors, whose common interest it is to keep them in repair. There are no tolls in Norway ; the principle of the farm¬ ers and others is to work in concert, and to keep up esta¬ blishments for the common benefit. The worst feature, perhaps the only thoroughly bad one, in the institutions of Norway, is, that the trade is not free. Each trade is monopolized by a sort of guild or fraternity, by which even country dealers are licensed. The perni¬ cious eftects of such a system we have sufficiently shown 2 M 274 NOR NOR Norwich, when treating of the fisheries; and we shall close our ac¬ count of this interesting country with the following observa¬ tions, extracted from a work of great authority on such subjects: “ The principle of equal partition of land among all the children, retained in Norway from the earliest period, pre¬ vailed also in England before the conquest. A relic of it remains in the law of gavelkind, still existing in Kent. The different effects produced on society by the retention of that law in the one country, and its general disuse in the other, are remarkable. In Norway, chiefly by its ope¬ ration, a high standard of sufficiency has been preserved among the middle and labouring classes. Population has been prevented from increasing too rapidly by the fear which people have of falling below the general standard. There has, therefore, been a continual prevalence and dif¬ fusion of ease and well-being. But, on account of the ab¬ sence of great inequalities of condition, and therefore of many of the usual stimulants to exertion, society has been kept at a low level. Great social freedom has indeed al¬ ways existed, in consequence of the land being in the hands of the mass of the people ; but there has been a want of ability, until a very recent period, to combine for the preservation of their political independence. During their earlier history, their political liberties were often variable and uncertain. After the union of their crown with that of Denmark in 1380, it appears that the Danish nobility gradually encroached upon their privileges; for >?j when, in 1660, the crown and the people combined against ^ the nobility, and abolished the states in Denmark, a simi¬ lar revolution also took place in Norway ; and that coun¬ try continued under absolute government until the estab¬ lishment of its constitution in 1814. Their udal laws trained them in the management of their own affairs, and produced that feeling of self-respect which the possession of property, and of land in particular, is calculated to give. These, together with the civil institutions preserved or in¬ troduced whilst they were under the Danish crown, pre¬ pared them for the large measure of freedom to which they have now attained. The evil of their udal system is its tendency to obstruct the development of intellect, and to keep society stationary. But since 1814 they have made great progress. Stimulants to mental activity are now no longer wanting. Their continual collision with Sweden, the problem of their internal restrictions on trade and com¬ merce, the routine of their government, and the wholesome struggles always arising in a free state, will supply them. Their land will become more productive, by the applica¬ tion of science to its cultivation ; their trade will also be expanded. If we open our ports to their timber, which we may one day see accomplished, their wealth will increase. And, according to the experience of the last twenty years, wealth will not materially disturb the peculiarities of their social system.”1 B* R< R* r NORWICH, a city of England, the capital of the coun¬ ty of Norfolk. No historical notices of the place are to be found during the period of the Roman government in this island. Its origin was during the Saxon heptarchy, when’ in 446, a castle was first erected, on an elevation surrounded by water and marshes, which having become drained by na¬ tural, aided by some artificial means, gradually served as the site of the present city ; its progress was slow, till Una, one of the kings of the East Angles, built a more solid castle in 575; and, the habitations having increased, it became the capital of the kingdom of the East Angles, which then comprehended the counties of Suffolk, Norfolk, and Gam- It was captured by the Danes about an hundred yeais afterwards, and during the two succeeding centuries was often lost and won by that people, till Alfred the Gieat, in 872, had subdued those erratic conquerors, when he greatly improved the fortifications of the castle, which, having been originally of earth, he rebuilt with brick. In the reign of Ethelred, the Danes, under their king Swayne, again seiz¬ ed upon Norwich in 1003 ; but being expelled by Ethel- red the next year, the city was left in a most desolate condition till 1011, when Swayne again returned, captur¬ ed the castle, rebuilt the fortifications of the town, and conferred the government of it on one of his commanders, named Turkel or Turketel, who seems to have maintained himself in that post many years, and, notwithstanding occasional hostilities between the Danes and the Angles, to have contributed greatly to the advancement of the place, which was then constituted a borough. After the final expulsion of the Danes, in the latter part of the tenth century, the town increased with rapidity; much of the marshy ground was drained and built upon ; and the first churches of stone were erected, some of which exist at the present time. Norwich had been created an earldom by Edward the Confessor in 1049; and in the reign of Wil¬ liam Rufus the episcopal see was removed from Thetford, in 1094, when it became a city, but only received a char¬ ndti ter of incorporation in the reign of Henry L, in the year 1100. The chief officer was then denominated propositus or provost; but in 1152, by another charter, extended still further in 1189, the title of mayor was given, and the right of the citizens to elect that officer was conferred upon them. This city was the residence of several of our monarchs at some periods during the reigns of John, of Henry III., and of Edward I.; and the cathedral having been finished in the year 1278, the latter sovereign assisted at the so¬ lemn ceremony of its consecration. In the year 1336 the foundation of manufactures was laid in Norwich by a colony of Dutch and tlemish weavers, who had been driven from their own country by a great in¬ undation. The goods they made were from woollen yarn, the best spinning of which was executed first at the town of Worsted in this county, and by the name of which thread made of wool has ever since been distinguished. By this manufacture the city rapidly attained a degree of opulence before unknown, and the traces of which have continued to the present day. King Henry III., with his Queen, Philippa, visited the city, when a grand tournament was exhibited; and they repeated their visit two years afterwards, when a new char¬ ter was granted, which extended the powers and privileges of the citizens. In 1348 the city was afflicted with that dreadful visitation known as the plague, from which, it is said, more than 57,000 persons were carried off in seven months. Before that calamity the city is said to have con¬ tained 70,000 inhabitants, having sixty-nine parish churches, and eight religious houses. But it must soon have reco¬ vered from this visitation, as it is related that, two years afterwards, a grand tournament was held, at which Edwar the Black Prince was present, for whose entertainment t e citizens provided a magnificent banquet, at the expense o thirty-seven pounds four shillings and sixpence. _ In the year 1422 the doctrines of the reformation mane their appearance in Norwich, and several persons were s 1 Edinburgh Review, No. cxxxi. p. 60. ■PIP ... NORWICH. P i. executed as Wickliffites, or, as they were then called, Lol¬ lards ; and during the early part of the reign of Henry VII., between 1422 and 1448, many suffered severe whip¬ ping and other punishments, upon suspicion of entertaining the new opinions. These persecutions were continued at intervals till the reign of Edward VI., when, in the year 1538, the Protestant system being established by law, all the images in the cathedral and the parish churches were de¬ stroyed, and the different orders of friars and nuns in the religious houses were suppressed. On Trinity Sunday in that year the prior and monks in the cathedral changed their dresses for the habits of deans, prebends, and canons, and the Protestant worship was celebrated in it, and in all the parish churches within the city. In 1549 this city was the theatre of a tumultuous insurrec¬ tion, resembling that of the Jacquerie in France, and the peasants’ war in Germany. It was at first an insurrection of the rural population, on complaints respecting the enclo¬ sure of common fields. As soon as numbers had been col¬ lected, they chose as their leaders two brothers of the name of Kett, one a tanner, the other a butcher; and on the 7th of July their numbers amounted to 16,000 men. They surrounded the city, and from thence increased their numbers to more than 20,000. Having established them¬ selves near the city, the Kelts proclaimed themselves the king’s deputies, and established a pretended court of judi¬ cature under a spreading tree, which they called the Oak of Reformation. Many gentlemen and clergymen were made prisoners by this rabble, and treated with the most barbarous cruelty. They made several attempts to force their way into the city, and succeeded in making some pro¬ gress towards its reduction ; but being repulsed, they, on their retreat, set fire to the houses in several places, so that some streets were consumed, and the whole city would probably have been rendered a heap of ruins, if an unusual¬ ly heavy fall of rain had not checked the farther exten¬ sion of the conflagration. Whilst the insurgents still continued the siege, they were quarrelling amongst themselves, and committing the most atrocious acts of violence on the surrounding country, as well as on the persons of the gentry who were so unfortunate as to fall into their hands. They at length became masters of the city, though a small body of forces under the Mar¬ quis of Northampton had been sent to defend it. At length a more powerful body, commanded by the Earl of War¬ wick, made its appearance before Norwich. The first ef¬ forts of the royal troops were unsuccessful, and the rebels obtained possession of the artillery and ammunition of the Earl of Warwick, but were too ignorant of their use to im¬ prove the advantage they had gained. New troops were brought to the royal army, w hen a bloody attack, in which 3500 of the rebels were killed, decided the contest. A ge¬ neral pardon was proclaimed to all but the leaders, who were soon seized, and tried for rebellion ; some were exe¬ cuted on the spot, but the Ketts were conveyed to Lon¬ don, and there convicted, but at length sent back to the place where their guilt had been incurred, and executed with great cruelty. From the extinction of this rebellion, which, as before stated, commenced on the 7th of July, and was terminated on the 29th of August, the history of this city has nothing so peculiar as to make it an object of attention distinct from the general history of England. Norwich is partly built upon a plain on the banks of the Wensum, a branch of the river Yare, which has been from time immemorial navigable for barges to its entrance into he sea at Yarmouth. Of late years a project has been executed for rendering this city accessible to vessels of considerable burden direct from the sea. This has been done by forming a canal ending in the lake, or, as it is provincially called, the Broad of Loathing, whence, by some 275 excellently-constructed flood-gates, an opening into the sea Norwich, at Lowestoft has been completed. 1 he city, built on the very gentle acclivity of a hill, is distinguished by one peculiarly striking feature ; a large sugar-loaf hill of considerable elevation, which (whether formed by nature or by art, has been frequently a subject of dispute) stands in its centre. On the summit of that hill, towards the south-west, stood the ancient castle, of very remote but doubtful origin, though tradition, as be¬ fore stated, has ascribed it to a king of the East Angles, who reigned about the year 575. It long continued strong¬ ly fortified, and, till more peaceful times have made such objects of less importance, served as the means of either protecting or overawing the city. Great alterations have been made on the level at the top of the castle hill at va¬ rious periods; and, finally, since the year 1793, it is occupied with a pile of buildings as nearly resembling the architec¬ ture of the old castle as could be adapted to the purposes for which it is now used. Though the outside has a heavy and indeed gloomy appearance, the interior is appropriated with great judgment and taste as a county jail, a county hall, and an apartment for holding general county meet¬ ings. _ As this castle hill covers a large space, and as the streets either converge from or wind round it, those in the vici¬ nity, which are the scenes of the greatest activity, are both narrow and crooked, and have rather a gloomy appearance. This is indeed in some measure relieved by an extensive market-place, a large open oblong square, said to be the finest in England. Ihis market is most abundantly sup¬ plied with provisions of all kinds, and of the best descrip¬ tion, on Wednesdays and Saturdays. The spots for the dif¬ ferent articles are kept separated into those for meat, for fish, for vegetables, and for poultry, butter, eggs, &c. The houses which surround the market-place are lofty and ele¬ gant, many of them have been recently new-fronted, and some rebuilt, and most of them are occupied by well-em¬ bellished shops. In the front of these shops, what is called the Gentleman’s Walk was the first part of the city paved with flag-stones, and was long the chief promenade in the city. At the northern corner of the market stands the guild¬ hall, an ancient and large building constructed of black flint, with cornices, window-frames, and battlements of Portland stone. The assizes for the city and the county of the city are held in an appropriate apartment of this edifice, as well as the elections of members of parliament and other elective functionaries. The upper part of the building is a room supported by fluted pillars of the Co¬ rinthian order, designed for the justices of the peace of the city, having the mayor’s council-chamber within it, with a large and two small windows of beautiful stained glass. It is adorned with portraits of former distinguished members of the corporation, and more especially by a naval trophy presented by Lord Nelson, containing, in a glass case, the sword of the Spanish admiral, delivered up to that hero at the great victory gained near Cape St Vincent on the 14th of February 1797. St Andrew s Hall, a public building, chiefly used for the social meetings of the corporation, or other public bodies, is an ancient foundation ; but in its present state it is a re¬ gular and beautiful structure, consisting of a nave and two side aisles, more than fifty yards in length and thirty in breadth. It is adorned with some portraits of former ma¬ gistrates by eminent artists, set in elegant frames, carved with great labour, and highly gilded. Under the gallery, at the west end, is suspended the ensign of the French ship Genereux, presented by Sir Edward Berry, the brave captain of the Foudroyant, in the year 1800. Amongst the paintings in the edifice is a fine full-length of Lord Nelson, and two historical pictures by Martin, a native of the city ; 276 NORWICH. Norwich, one representing the story of Edward and Elenora, the ' other the execution of Lady Jane Grey. The Dutch con¬ gregation have the right of assembling here on Sunday for public worship. The most prominent public edifices in this city are those for ecclesiastical purposes. The first of them is the cathedral, a venerable pile, one of the finest remains of Saxon architec¬ ture in this country. This building was originally erected under a Bishop Herbert, in the year 1069; and it has un¬ dergone various alterations and improvements at subsequent periods up to the present time. It is 400 feet in length, from the entrance door at the west to the east end. Ihe west front is handsome and uniform ; and the upper part is orna¬ mented with four turrets of stone-work, and one large and twm small doors. Over the centre door is a large Gothic window, extending the whole breadth and depth of the nave. The two transepts extend in length about 180 feet from north to south. The north front is ornamented with two pinnacles of stone, and over the middle door is a carved figure of Bishop Herbert, the founder. The south front has likewise two pinnacles of stone, between which, in the pediment of the roof, is a handsome dial. The in¬ terior, on entering the west front, exhibits a very pleasing appearance, arising from the uniformity and the neatness of the building, having a space of 204 feet to the entrance of the choir, which is fifty-four feet wide and seventy in height. The roof is of stone, supported by two rows of massive pillars, and is curiously arched, and carved full of small figures representing many passages of history from the Old and the New Testament. These figures are in a state of good preservation, although they have existed ever since the year 1463. The roofs of the north and south tran¬ septs also exhibit the same kind of curious workmanship. The whole of the roofs are highly esteemed by the curious, and it is said they are the only carvings of this kind that have existed so long, and been so perfectly preserved. The roof of the chancel is eighty-four feet high, and the arch'is and carved figures in it are very curious. The choir is spa¬ cious and beautiful; the stalls of the dean, of the vice¬ dean, archdeacons, prebendaries, and canons, as well as the bishop’s throne and the chancellor’s seat, are of Gothic carved work; and near them a temporary pulpit is placed for the weekly preacher. At the east end of the choir are four painted windows, the lowest representing the transfigura¬ tion, and the other some of the apostles, evangelists, and prophets. In the body of the cathedral are a number of monuments to the memory of distinguished ecclesiastics who have filled the different offices connected with this church. The tower rises in the centre of the building, at the meeting of the four roofs. The ceiling is there 100 feet in height, and the tower rises 140 feet above that. The outside is adorned with curious Gothic carved work, and is crowned with a battlement and four small spires. From the battlement a spire rises sixty-four feet, thus making the cross and weathercock at the apex 306 feet from the ground. From the low spot upon which it stands, it is not, however, a conspicuous object at a distance. The cloisters adjoining to the cathedral excite much at¬ tention. It consists of the largest and most beautiful quadrangle in England, and was built in the year 1279. It is about 174 feet square, each of the four sides being twelve feet wide ; the arches are Gothic, and the windows were once furnished with painted glass. The roof is full of historical figures, the subjects being taken from the gospel, the Revelations, and ecclesiastical history ; and it is upwards of fifteen feet in height. At the south-west cor¬ ner are two lavatories, ornamented with curiously carved work, representing the inveterate antipathy borne by the monks towards the secular clergy. The roofs contain no less than 418 historical figures. The bishop’s palace is a vast pile of building, very an¬ tique, but modernised in some degree at subsequent, and in the greatest degree in comparatively modern times.' The principal entrance is through a large and ancient gateway, with an ornamented Gothic arch. The only ob¬ ject within deserving of notice is the chapel, a neat an' spacious edifice of white stone, most neatly fitted up. Tho whole precinct of the cathedral is surrounded with a lofty stone wall, except on the eastern side, where it is bounded by the river. The parish churches are more numerous here than in any other place in England, excepting the metropolis. Few of them deserve notice ; some of them are small, and se¬ veral of them but a few years ago were covered with thatch. The whole number is thirty-eight. One of the oldest, and by far the largest, is that of St Peter’s Mancroft. It is a fine building, 180 feet in length and sixty feet in height, with north and south aisles each 120 feet long. The inside is much admired for the lightness of its construction, the slenderness of its pillars, and the number and size of its windows. It contains many, and some remarkably fine, monuments. In the tower is a ring of twelve musical bells put up by a voluntary subscription of the parishioners in 1775. They vary regularly in weight from six hundred¬ weights three quarters five pounds, to forty-one hundred¬ weights one quarter four pounds, weighing together nine tons four hundredweights twenty-four pounds. They are highly harmonious, and are commonly rung on festivals and holidays. Besides these numerous churches, there are places of worship for two foreign congregations of Protestants, two Roman Catholic chapels, two Quakers’ meeting-houses, and chapels for each grade of dissenters from the Socinians to the Huntingtonians. The city is well supplied with benevolent institutions for the relief of distress. Bethel Hospital, for lunatics, is endowed; St Giles Hospital, an ancient establishment,pro¬ vides for a hundred poor, equally divided between males and females; Doughty’s Hospital, from the name of the founder, supports twenty-four aged men and eight women; the Girls’ Hospital, united with the Boys’ Hospital, and with an altered establishment, providesfora large number of both sexes, both in clothing and in maintenance ; the Infirmary is supported chiefly by parochial assessments; the Asylum for Indigent Blind was opened in 1805, by the beneficence of an individual, and the aid of voluntary contributions; Cook’s Hospital provides for ten aged females; and the Nor¬ wich Dispensary, founded in 1804, provides the poor with medicine and medical advice gratis. The voluntary asso¬ ciations for purposes of beneficence are the following, be¬ sides some of a private nature, viz. the Humane Society, for recovering persons apparently drowned ; the Friendly So¬ ciety, for the benefit of women in old age or sickness, ad¬ ministered by ladies, who distribute a large sum annually; the Friars’ Society, w'hich dispenses to the industrious poor the charity for clergymen’s widows ; the Benevolent Asso ciation, which has for its object the relief of decayed trades¬ men ; the Norfolk Benevolent Medical Society, and the Amicable Society of Attorneys, which relieve the distress¬ ed members and families of their respective professions; and the Society of Good-Will, which aids those who are not entitled to any parochial relief. , Amongst charities for educating the poor, the St Georges Company, an old institution of the year 1700, must be noticed. It is chiefly supported by voluntary contribu¬ tions, and educates some hundred boys and girls, who at¬ tend public worship in six parish churches. Almost every one of the various dissenting congregations has either Sun¬ day or daily schools attached to their respective places o divine service. , One establishment, although supported by and extenue to the whole county of Norfolk, is the County Hospital, wit NOR | ch. out St Stephen’s gate, erected in 1772, but enlarged at a subsequent period. A great number of patients are con¬ tinually admitted and relieved by this excellent institution. The most eminent medical men attend daily, and the hos¬ pital is at all times open for accidental cases. For objects of amusement, Norwich has an assembly- room, a neat building, erected in 1756 ; and a theatre, con¬ sidered as one of the most complete in the kingdom out of London, in which a company perform a few months in every NOS year. The population of Norwich in 1801 amounted to 35,252, in 1811 to 35,338, in 1821 to 50,190, and in 1831 to 61,110. But there are portions of some of the parishes be¬ yond the boundaries of the city, though forming part of the suburbs. Ihus, in 1831, the parish of Hellesdon contained sixty-one inhabitants beyond the city boundaries, St James’ had 1669, and Thorpe had 940; thus making the popula¬ tion at that period amount to 63,770. As the increase up to the present time lias been as great as in the preceding ten years, the population at the present time, 1837, must ex¬ ceed 70,000 persons. Norwich has been the seat of manufacturing industry from a very early period, the commencement of which has been remarked in the historical notices of this article. The long disturbances in the Netherlands, and the persecutions under the Duke of Alva in particular, produced immigra¬ tions from thence in greater number, and much more im¬ portant, than those which had preceded that period; and the immigrants received the greatest protection from the government of Queen Elizabeth. The goods fabricated by these people were chiefly of wool; but some were made from flax and from hemp. The woollens received appro¬ priate names, the exact significations of which are now nearly lost. Soon afterwards a peculiar fabric was pro- duced, from a mixture of silk or of mohair with the wool. Inis gave a great impulse to the trade, and produced a con¬ siderable demand for the great markets of Frankfort, Leip¬ zig, and others in the north, and for Spain, Portugal, and Italy in the south. At the beginning of the eighteenth century, about the year 1720, this trade was at its zenith. Almost the whole female population of Norfolk and Suffolk was employed at the spinning wheel; and though 50,000 tons of wool were used, it was found necessary to draw supplies of yarn from other districts. The establishment | of manufactures in Yorkshire, where coals, provisions, and labour were cheaper than in Norfolk, gave a heavy blow to the trade of the city; which would have been more se¬ verely felt, but for the fluctuations of fashion having creat¬ ed a greater demand for bombazines, an article which had been early made there, but had at first languished. The lorkslure workmen, and the substitution of machinery for emale hands, reduced the making of the ancient kinds of goods to a low point; and that was chiefly maintained by ^d’a 9®mpany purchasing annually a very large quantity of camblets for the China market. During the cbnpH /m"1 1700 t0 1800’ the P°Pulation of Norwich de- man, f. f t0Wardj t,le end of tlie century, when some new manuiactu ^ a great revivaI in the bombazine trad incrp^1 !™PuIse» t^le effect of which has continued with the S f°rce ,t0 the Presenf day- The introduction of sent V manufact°ry> one of the chief causes of the pre- turv ProsPer‘ty> took pJace about the end of the last cen- mnst’e.i r i abric has gradually improved till it has al- nishinff m ^v! r'110.16 trade of the kingdom, besides fur- the makh,UC1/°i!' f°ueign markets- Besides this trade, and produced °i bo"!bazines’ there are some of silk goods finer, Ju d Ta er manufactures of cotton and hempen market fr^fu1'"8 18 a considerable trade; and the corn Yarmouth O' r easy c?nnection with London through the kingdomr r^810 F’ 1SK onf of’J;he most extensive in b tom. It appears by the official returns of 1831, that there were in the city 3752 males above twenty years of age employed in manufactures. According to the re¬ turns of the same year, the whole number of the families within the city was 15,572, of whom 9174 were chiefly em¬ ployed in trade, manufactures, and handicraft; 509 in agriculture; and 4889 not comprised in either of the two preceding classes. I he relative extent of trade in different towns may be in some measure determined by the amount of the postage of letters collected in them. In this view, Norfolk stands the ninth m the list of English towns, being next after London, Liverpool, Manchester, Bristol, Birmingham, Leeds, Hull, and Sheffield ; and the sum collected having amounted in the year 1836 to L.9557. 10s. 3d. I he corporation of Norwich, before the municipal reform aw was enacted, consisted of a mayor, a recorder, two she¬ riffs, twenty-four aldermen, and sixty common-council men; j at ^aW- *nstead P°ur wards, as formerly, it is now divided into eight, and has sixteen aldermen and forty- eight common-council men, chosen by the inhabitants, and justices of the peace and a recorder nominated by the crown. This city, as before, returns two members to the House of Commons, chosen by a very numerous body ot resident electors, comprising, besides the ten-pounds householders, many hundreds of freemen. The title of Earl of Norwich was conferred upon the Scotch Duke of Cordon; but that title, as well as the dukedom, is now ex¬ tinct. NOSE, the organ of smell. See Anatomy. The uses of the nose are, exciting in us the sense of smelling and serving in the great office of respiration, as well as m mo¬ delling the voice, receiving the abundant humours from the eyes, and adding to the beauty of the face. The nose was by the augurs particularly attended to in forming coniec- tures concerning future good or ill success. The tingling of the right or left nostril, for instance, was thought to indicate ifferent things, as it happened to different sexes, or to per¬ sons in different conditions. * NOSOLOGY is a Greek word signifying a discourse oi treatise of diseases, otherwise called pathology. The importance of a comprehensive and accurate nosology has been long and generally allowed. Baglivi, Boerhaave, Corter, Gaubius, and Sydenham, have expressed their de¬ sire for a work of this kind, the great object of which should be to bx the pathognomonics of every disease, or to dispose af diseases into certain classes, orders, and genera, found¬ ed on distinctions taken from the symptoms only, without regard to remote or proximate causes. NOSIOCH, Shot Stars; tremella nost.ee (Lin. Spec. Plant.; Dillenms, de Muscis, tab. 10, fig. 14; Flor. Danica tab. 885, fig. 1); tremella intestinulis vel mesenterica (Lin’ Spec. Plant.; Dillen. de Mas. tab. 10, fig. 16 ; Flor. Panic tab. 885, fig. 2). The substance in question is not un- frequent in Lngiand, and in other parts of Europe, after rains, both in spring and autumn. Very large spots of it are seen m gravelly soils, and particularly on the tops of hills and on open downs, and it is often found on gravel walks. It is met with m some of the old authors, under the name of nostoch, as in Paracelsus and others; and the alchemists fancied there was something wonderful in it, and that it would afford a menstruum for gold. Nostoch is said to be a word synonymous with Jaculum alicujus stellce, vel po- tius ejus repurgatione dejectum quid in terram, flos aens, fragmentum. nimbi; as this substance was believed to fall from the sky, along with the meteors which we often see, and call falling-stars. Hence the country people in Swe¬ den have called it sky fall; and in England it is known by the name of witches butter, in common with some of the gelatinous liver-worts. Paracelsus, Helmont, and others, however, ranked it with the termabin, or manna, and thought it dropped, as the lat- 277 Nose II Nostoch. 278 NOS NOS Nostrada- ter did, from heaven. It is described, and the chemical mu8' analysis of it given, by M. Geoffroy, in the Memoirs ot the Academy of Sciences for 1708, and is there said to yield, besides an acid phlegm, a portion of concrete volatile salt and some fixed salt. The distilled water from it was be¬ lieved by some to possess singular virtues in allaying pains of the joints; but there is certainly no ground for attribut¬ ing to it any extraordinary qualities. Since the days o Paracelsus it has been considered as a vegetable produc¬ tion ; but the botanists have had difficulty in assigning to it its place or genus in their several systems. Naturalists had, however, for some years begun to doubt whether the substance in question was of a vegetable or animal nature, when at length the latter .°Pinion rece*) e a strong corroboration from the observations ot ^ a of Oxford, in a letter printed in the Gentleman s Maga¬ zine for 1776. . . “ From a child,” says he, “ I remember seeing the me¬ teors shooting in the air, which appearance, by my com¬ rades, was called star-shooting, believing the stars no lar¬ ger than their apparent magnitude. This jelly-like sub¬ stance, mentioned in your magazine, was believed to be the dross of these meteors, and took the name ot star-shot, which passed for certain with me till I had arrived at the aae of twenty-four, when I was engaged in business that required my frequently passing over both meadows and pasture-grounds, where in spring and autumn I saw many portions of this supposed alga or nostoch, but never more than one or two contiguous, mostly near the water, when the meadows were or had been just before flooded. y conjectures were various, until I saw a crow pecking o something in a field, which I heard to cry; when turning my horse to the place, I found a frog of the common size, which the crow (of the carrion kind) would soon have killed and gorged, had I not disturbed her, and chased her away. “ About this time I found in a meadow the bowels of a frog indigested, and compact as the chitterlings ot a calt or pig, but white as the paper I write upon, though not translucid. I took it up and placed it in a paper exposed to the air, leaving it in some grass where I found it, till my return that way in three days’ time, when I saw it changed to that tremulous jelly-like substance, the alga or star-shot. I was much pleased with this discovery, and took it home in my pocket wrapped in a paper, where I showed it to a society of young persons of which I was a member, who agreed with my sentiments of its being the indigestible part of a frog disgorged by some bird ot prey. « To corroborate my sentiments of this alga being the bowels of a frog, I luckily saw some of it lying by the side of a brook, where I lighted and took it up, and to my great surprise found attached to the jelly the head, heart, liver, and one leg of the frog, which had been, I presume, disgorged by some carrion crow, who frequented the flood¬ ed grounds to pick up worms and other vermine. There was also some of it found on an apple-tree at Wyston Mag¬ na, near Leicester, where I then lived, which, no doubt, was disgorged by some owl.” Dr Darwin, in his Poem on the Loves of the Plants, is of the same opinion with Mr Platt, that these gelatinous substances are of an animal nature ; and that the diflerent appearances they put on are owing to various circumstan¬ ces, viz. the different birds who feed on frogs, the quantity they devour at a time, and the state of digestion before they are voided. . . . NOSTRADAMUS, Michael, an able physician and a celebrated astrologer, was descended of a noble ^Provem^al family, and born on the 14th of December 1503, at St Remy, in the diocese of Avignon. By his grandfather he was initiated in the study of the mathematics* and he at- terwards completed his courses of humanity and philosophy No at the college of Avignon. Having repaired to Montpellier, J he there applied himself to physic, till being forced away ^ by the plague in 1525, he took his route towards Toulouse, and passed on till he reached Bordeaux. This course occupied him five years, during which he undertook the cure of all such patients as were willing to put themselves under his care. After this he returned to Montpellier, and, having been created doctor of his faculty in 1529, levisit- ed the places where he had before practised physic. At Agen he contracted an acquaintance with Julius Ciesar Scaliger, which induced him to make some stay in that town, where he married ; but having buried his wife, and two children which she had brought him, he quitted Agen after a residence of about four years. On his return to Pro¬ vence, he established himself first at Marseilles ; but his friends having provided an advantageous match for him at Salon, he, in 1544, transported himself thither. In 1516, Aix being afflicted with the plague, he went thither at the solicitation of the inhabitants, and proved of great service; so that the town gave him a considerable pension for se¬ veral years after the contagion ceased. Returning after¬ wards to Salon, he became a recluse, and employed his leisure in applying to his studies. He had for a long time occasionally followed the trade of a conjurer, and now he began to think himself inspired, nay, miraculously illuminat- ed with a prospect into futurity. As fast as these illumi* nations had discovered to him any future event, he enter¬ ed it in writing, in enigmatical prose sentences; but re¬ vising them afterwards, he thought the sentences would appear more respectable, and would savour more of a pro¬ phetic spirit, if they were expressed in verse. This opi- nion determined him to throw them all into quatrains, and he afterwards ranged them into Conturiest \Vhen this was done, he hesitated about making them public, till reflect¬ ing that the time of many events which he had foretold was very near at hand, he determined to print them. This he did with a dedication addressed to his son Caesar, an infant only some months old, in the form of a letter or pre¬ face, dated the 1st of March 1555. This edition, which includes seven Centuries, was printed by Rigault at Lyons. He prefixed his name in Latin, but gave to his son Caesar the name as it is pronounced, Ndtradame. The public were divided in their sentiments respecting this work. Many looked upon the author as a simple vn sionary or a fool; whilst by others he was accused of the black art, or magic, and treated as an impious person, who held a commerce with the devil. But there were not want¬ ing persons who believed him to be really and truly en- dowed with the supernatural gift of prophecy. A few re¬ mained in suspense, and refrained from giving any judg¬ ment at all respecting his pretensions. But Henry II. and Catherine of Medicis his mother, having resolved to see the prophet, he received orders to that effect, and imme¬ diately repaired to Paris. He was very graciously received at court, treated with extraordinary respect, and gratified with a present of two hundred crowns. He was after¬ wards sent to Blois to visit his majesty’s children there, and report what he should be able to discover concerning their destinies. No doubt he exerted himself to the ut¬ most on this occasion, but the precise nature of his prog¬ nostications is not known ; it is certain, however, that ne returned to Salon loaded with honours and presents. Ani¬ mated with his success, he augmented his work from™, hundred quatrains to a complete milhad, and poh113" in 1558, with a dedication to the king. But that pr having died the next year, of a wound which he receiv at a tournament, the book of the prophet wasimmediat y consulted; and in the 35th quatrain of the first cent y this unfortunate event was found predicted m t 4.; 1112 verse: NOT Le lion jeune le vieux surmontera, »/ En champ bellique par singulier duel, Dans cage d’or les yeux lui crevera, Deux classes une puis mourir, mort cruelle. So remarkable a prediction added new wings to bis fame, and he was shortly afterwards honoured with a visit from Emanuel duke of Savoy, and the Princess Margaret of France his consort. From this time Nostradamus found himself overburdened with visitors, and his fame daily in¬ creased. Charles IX. on visiting Salon, was eager to see him. Nostradamus, who then waited as one of the reti¬ nue of the magistrates, being instantly presented to his majesty, complained of the little esteem his countrymen had for him ; upon which the monarch publicly declared, that he should hold the enemies of Nostradamus as his own, and further desired to see his children. Nor did that prince’s favour stop here. Not long afterwards, in pass¬ ing through the city of Arles, he sent for Nostradamus, and presented him with a purse of two hundred crowns, to¬ gether with a brevet, constituting him his physician in or¬ dinary, with the same appointments as the rest. But the prophet enjoyed these honours only for the space of six¬ teen months, having died at Salon on the 2d of July 1566. Besides his Centuries, we have the following compositions of Nostradamus : A treatise de Fardemens et de Senteurs, 1552; a Book of singular Receipts, joowr Entretenir la Sante du Corps, 1556; a piece des Confitures, 1557 ; and a French Translation of the Latin of Galen’s Paraphrase, exhorting Menedolas to apply himself to study, especially to that of physic, 1552. Some years before his death, he published a small instruction for husbandmen, showing the best sea¬ sons for their several labours, which he entitled The Al¬ manac of Nostradamus. Lastly, after his death there came out the eleventh and twelfth Centuries of his Quatrains. It is to these productions that the following pungent dis¬ tich was applied: NOT 279 Nothus. Nostra damns cum falsa damns, nam fallere nostrum est, Et cum falsa damns, nil nisi Nostra damns. NOTiE, signs used in writing, which have the force of many letters. This contrivance for expedition is of great antiquity. It was known to the Greeks, and from them passed to the Romans. By whom the invention was brought to Rome has not been precisely ascertained ; but the most general opinion is, that in matters of importance Tully first made use of notes or short-hand writing when Cato deliv¬ ered an oration in opposition to Julius Caesar relative to the conspiracy of Catiline. Cicero, who was at that time con¬ sul, placed notarii, or expert short-hand writers, in differ¬ ent parts of the senate-house, to take down the speech ; 1 and this was the first public occasion which we find re¬ corded of employing short-hand writers amongst the Ro¬ mans. It is unnecessary to observe, that the name of no- ary, still in use, was derived from this practice. There K’ere three kinds of notes for short-hand writing used by ne ancients, either for despatch or secrecy. The first in most ancient was that of hieroglyphics, which are ather images or representations of things than of words. ine ?econd species were called singidarice, from their ex- iressing words by single letters. Sertorius Ursatus has fb Pli5 j iV-ery coPious collection of such abbreviations, i ne third kind were called notoe Tironiance, from Tiro e reedman of Cicero, who was particularly skilled in ZV ; r'} is t0 him that we are indebted for the pre- ation of Cicero’s letters, of which a great part still re- elf"* 006 entire k00^ having been addressed to Tiro him- It appear notes were in frequent use amongst the , 3nd C0.ntInued to be employed till the tenth and S 1 C,ent1unes’ We have indeed but few books re- irnriXr11^1 are 'v1ntten in short-hand; but this is not g> when such was the unhappy situation of early times, that either superstition condemned them to the Notarii names as the works of impious magicians, or they were left, through ignorance and stupidity, to be devoured by vermin. It is probable, how’ever, that there are still ex¬ tant writings of this sort, which might contribute to en¬ rich the republic ofletters. . There are several manuscripts and instruments written in these kinds of notce in the royal library of Paris. In the yeai the learned and ingenious M. Charpentier en¬ graved and published at Paris a capitulary, and fifty-four charters of Louis the Pious, emperor and king of France, written in the notce Tironiance. To this work the learned editor has prefixed an Alphabetum Tironianum, together wnh a great number and variety of notes or marks for the diffeient parts ol speech, and rules for acquiring the art of writing in this kind of notes. Valerius Probus, in his book iJe Littens Antiquis, explains many of the characters used by the short-hand writers; and there is a dictionary of them published by Gruterus. NOTARII, persons employed by the Romans to take, by means of notce, trials and pleadings in their courts of judicature, or to write as amanuenses from the mouth of an author. These notarii were of servile condition. Un¬ der the reign of Justinian they were formed into a college or corporate body. Notarii were also appointed to attend the prefects, in order to transcribe for them. There were likewise notarii domestici, who were employed in keeping the accounts of the Roman nobility; and when the empire became Christian, there wrere notaries for ecclesiastical af¬ fairs, who attested the acts of archbishops, bishops, and other spiritual dignitaries. We find ecclesiastical notaries at Rome under Pope Julius IV. and also in the church of Antioch about the year 370. From these notaries was de¬ rived the office of chancellor to the bishops ; and afterwards almost every advocate was admitted a notary. NOTARY (Notarius) signifies a person who takes notes, or frames short draughts of contracts, obligations, charter-parties, or such other writings. At present we call him a notary public, because he publicly attests deeds or writings, in order to make them authentic. NOTATION, in Arithmetic and Algebra, the method of expressing numbers or quantities by signs or characters appropriated for that purpose. See Arithmetic and Al¬ gebra. ES, in music, characters which are used, in writ¬ ing or printing, to mark the pitch and the duration of the sounds of any musical composition. These characters or signs of notation have varied much at different times. Many alterations of those now generally received have been proposed, but not adopted. Numerical and literal me¬ thods of expressing musical sounds have been repeatedly proposed ; but it seems that these are even more compli¬ cated than the signs in common use. A musical short¬ hand, constructed of alphabetical letters, was proposed many years ago in France, but rejected; although in nu¬ merous cases of simple melody and harmony it might be very useful in saving space to publishers of books. As to the notation of music in ancient and modern times, see Padre Martini, Hawkins, and Burney, and especially Mer- senne regarding the entablature of some musical instru¬ ments now disused. See Music. Note is likewise used to signify a mark made in a book or writing, where there occurs something remarkable and worthy of particular notice; as also an observation or ex¬ plication of some passage in an author, added in the mar¬ gin, at the bottom of the page, or elsewhere. In this sense it stands contradistinguished to text. Note is also a minute, or short writing, containing some article of business. In this sense we say, promissory note, note of hand, bank-note, and the like. NOTHUS signifies spurious or bastard; and hence it is 280 NOT NOT Notion Notting¬ ham. figuratively applied by physicians to diseases which, though in respect of a similitude of symptoms they have the same denomination as some others, yet are of a different origin ,from them. NOTION, a word which in common language is consi¬ dered as of the same import writh idea. See Metaphysics. NOTITIA, in literary history, a book which gives an account of a particular country, city, or other place. Such are the Notitia Imperii Romani, the Notitia Romce Anh- quce, and other similar works. NOTO, a city of the island of Sicily, in the kingdom or Naples, the capital of the province of the same name, 149 miles from Palermo. It stands on a rocky hill, in a fine but unhealthy situation. It has elegant streets, with noble ehurches and convents, and forms one of the most respect¬ able places on the island; whilst the surrounding soil, though much of it is neglected, is of abundant fertility. Its port is Avola, about seven miles distant. It contains 1958 houses, and 13,300 inhabitants. Noto, Val di, one of the three valleys or provinces into which Sicily is divided, and which lies between the sea, the Val di Demona, and the Val di Mazara. Noto is the capital town. . , NOTTINGHAM, a large market-town of England, the capital of the county of the same name, in the centre of England. It is a place of great antiquity, deriving its name from the Saxon w ord Snottingaham, w’hich is descrip¬ tive of its position as a retreat in rocks, since there were formerly many, and are still a few, caverns, cut on the soft rock on which its castle was built. It is by some anti¬ quaries asserted that it wras once a Roman station , but that is a subject of controversy. The earliest records no¬ tice some incursions of the Danes about 866; but they appear to have received a check from the town, and a de¬ feat near it from King Alfred, who afterwards made it the winter-quarters of his army. William the Conqueror erected a castle, and constructed fortifications so strong as to render the place impregnable against any of the me¬ thods of attack wrhich were then known. King Richard Cceur de Lion assembled a parliament in this place pre¬ viously to his departure for the Holy Land, and ano¬ ther soon after his return from Palestine. It was from Nottingham that Richard III. marched forth to his fa¬ tal battle of Bosworth Field. There Charles I. erect¬ ed his royal standard at the commencement of the civil war, at the spot which is now covered by St James’ Church. The Castle of Nottingham, defended by the roy¬ alists, was besieged by the parliamentary forces under the command of Colonel Hutchinson, to wrhom, after a brave defence, it at length surrendered, the particulars ot which are related in a most interesting manner by the wife of that officer. When Cromwell had attained su¬ preme power, he ordered the fortifications to be destroyed and the castle to be dismantled. At the beginning of the present century, this towrn and neighbourhood were dis¬ tinguished by the riotous disposition manifested amongst the lowrer orders, who acquired the denomination of Lud¬ dites, and were excited to destroy much of that machin¬ ery bv the aid of which the town subsequently attained to its present high degree of affluence. These disturbances were quelled by the power of the law, and some wholesome severities ; but it caused the removal of many of the capi¬ talists, and a large portion of the trade, to distant and more tranquil districts. During the excitement respecting par¬ liamentary reform in 1832, a very violent spirit was mani¬ fested, which led to the destruction of a silk-mill in the neighbourhood, the burning of the ancient castle belong¬ ing to the Duke of Newcastle, and outrages upon private hocuses. These disturbances led to a few exemplary pu¬ nishments, and some heavy burdens on the town, to indem¬ nify those whose property had suffered by the riots. Nottingham is finely situated upon the side of a hill over- N , looking the valley of the Trent, and near to the south- lj western extremity of what was formerly the forest of''"' Sherwood, once famous as the resort of the celebrated Ro¬ bin Hood, but now a well-cultivated district. The envi¬ rons of the town are picturesque and beautiful; and there is a delightful walk on the bank of the river Leen, having a fine view of the south front of the castle, and of the gar¬ dens, which were formerly the fish-ponds belonging to that edifice. The windings of the river Trent have also a great effect on the whole scenery. Some of the old streets are narrow, but in the great ex¬ tension of the place of late years some new and spacious avenues have been built, and much improvement has been judiciously effected. The market-place is one of the finest 'in England. It is spacious, occupying an area of 27,515 square yards, or rather more than five acres and a half. It is well paved, and admirably adapted for the purpose of the three weekly markets held in it on Wednesday, Fri¬ day, and Saturday, the last of which is the principal one. At the east of the market-place stands the Exchange Hall, which is a noble-looking building. The pediment is crown¬ ed with a well-proportioned pedestal, on which stands the figure of Justice. On the pediment are the town arms, with an oak branch on one side, and an olive branch on the other; and underneath it, with a clock intervening, is a handsome Venetian window, ornamented with two ele¬ gant Ionic columns, which lights the spacious room within it. That apartment, when the temporary doors which di¬ vide it are thrown open, is 123 feet long, thirty wide, and thirty high, with an arched ceiling. It is used for public dinners, at which more than 400 persons can be commo- diously seated, and also for public meetings. This room was nearly destroyed by an accidental fire in 1836, but has been restored and further beautified. One part ot the building is appropriated to magisterial business, and another is occupied by the Artisan’s Library ; an institution possess¬ ing some thousand volumes, which are lent out to mem¬ bers, who pay seven shillings and sixpence on admission, and one shilling and sixpence quarterly. Underneath the Exchange there are a few shops in front, but the principal part of the ground-floor is appropriated to shambles. In another part of the market-place is the Subscription Lib¬ rary, containing a large collection of valuable books; and a news-room ; a cabinet of mineralogy, with sculpture, maps, and portraits of eminent individuals connected with the town, amongst whom are Colonel Hutchinson, Lord Byron, Sir Richard Arkwright, and others. The other civic buildings are the county jail and hall, a commodious but not elegant structure ; the house ot correction, which stands on the site of a convent of the hospitallers of St John of Jerusalem; the town hall and town jail, where the borough assizes and sessions, and the mayor’s and sheriff’s courts, are held ; the assembly-room, a very elegant building, just erected and fitted up witi much taste; and the free grammar school, in which abou a hundred boys are gratuitously instructed in Greek am The edifices for religious worship are in about the same proportion to the number of the inhabitants as is seen m other places which have increased with similar rapi !)• St Mary’s is usually denominated the mother church o town, from its priority of erection. It resembles a ca ' dral more than a parish church in its extent, its arc1 ture, and its decorations, and is the most striking o J in the place, when viewed from what is called tne pavement. It stands on an elevated spot, and is sai ^ nearly seventy feet above the level of the meaJ0''; i(i the town. The date of the erection is unknown, bu to have been in the fifteenth century. It is in th,e Le of a cross, and has a handsome square tower, in win vs ,tll I NOT is a musical peal of ten bells. The length of the structure in the inside is 216 feet, the breadth in the centre ninety- seven, at the west end or principal entrance sixty-seven, and in the chancel twenty-nine feet. The height of the tower is 126 feet, and that of the side aisles sixty feet. The porch on the south side is a very ancient piece of work¬ manship, on the fluting of the pediment of which were sculptured red and white roses, some traces of which may even yet be discovered. In the west gallery there is an ex¬ cellent organ of great power, supported by two Tuscan columns, over which is a picture of David playing on his harp. There are in this church many monumental in¬ scriptions on tombs of the family of the Earls of Clare, and one of an Earl of Meath, and the mausoleum of the fami¬ ly of the Wrights. Besides the mother church, there are provided for the adherents of the established worship the following edifices, all of them capacious, and appropriately finished, viz. St James’, St Nicholas’, St Paul’s, and St Peter’s. The cha¬ pels of various sects are numerous, amounting to twenty, but some of them are very small. They are classed thus : Independents ; Baptists, two subdivisions ; Wesleyan Me¬ thodists, three subdivisions ; and one each for Unitarians, Homan Catholics, Quakers, Huntingtonians, and Ingham- ites or Sabellians. The charitable institutions depending on endowed foun¬ dations or on voluntary contributions are numerous. The General Hospital, built in 1781, contains about two acres of land, given partly by the Duke of Newcastle, and part¬ ly by the corporation. It is supported chiefly by subscrip¬ tions, and usually contains about 120 patients; whilst be¬ tween five and six hundred are out-patients, receiving me¬ dical advice and assistance. 1 he General Lunatic Asylum is a modern and spacious brick building, erected in 1810, at an expense of nearly L.20,000. There are extensive courts, gardens, and places for recreation, and the whole economy of the place is constructed in such a manner as may best contribute to the recovery or the welfare of the miserable inhabitants. Labray s and Lambley’s Hospitals are small asylums for aged widows; and Collins’ Hospital is a splen¬ did charity, founded by one of the Smith family of the town, of which Lord Carrington is the present head. It consists of twenty-four small but convenient dwellings for is many poor widows, each of whom receives four shillings weekly, and two tons and a half of coal every year. From die same endowment Carrington Street Hospital has lately ieen built, where twenty poor persons are comfortably ac¬ commodated. Plumtree Hospital, founded by a family of mat name, since transplanted into Kent, in the year 1392, cut twice repaired since, viz. in 1650 and 1751, has been ebuilt under an act of parliament passed in 1823. Thir- een aged widows are provided with comfortable dwellings 'u in the house, and allowed six shillings weekly, whilst uny others, called out-pensioners, receive ten pounds a ar. Willoughby’s Hospital contains nineteen tenements, ue inhamtants of which receive a small pension. Woo- Un! i 8 a^e dvv'eIlings for six poor persons; and Bilby’s msnouses for eight persons, who have each a loaf weekly, two tons of coal at Christmas. Warser’s Gate Hos- *ta Slves apartments to six, and Hanley’s to twelve poor iarra6) otli1er, poblic edifices that deserve notice are the P; ,C s’ Ul t ln 1 f 92, a handsome building, with well-con- ble Sfa/rrtmrents/or °fficers and for the privates, and suit- srJll !!?g f°r three trooPs of horse’ the Riding School; lewnt0theat^e’ •neVer ,0ng °Pened nor much attended; id ,ia!TTkS’m tW° parts of the town 5 the gas-works ; 4 alt f6 river Trent after that stream has ent S ented by the waters of the Dove and the Der- vot xPv0pulation of this town in 1801 amounted to NOT 28,861, in 1811 to 34,253, in 1821 to 40,415, and in 1831 to 50,680. This great increase, arising from the progres¬ sive extension of its manufacturing industry, is not, how¬ ever, confined within the limits of the town, but is exhi¬ bited in the villages either contiguous to it and forming its suburbs, or at a few miles distance. Thus Snenton, which conjoins the town, contained in 1801 but 558, and in 1831 it had 3605 inhabitants ; Radford, a parish within a mile of Nottingham, had in 1801 but 2269, and in 1831, 9806 persons; Lenton, another parish, in 1801 had 893 inhabi¬ tants, and in 1831, 3077. There are other parishes near to it, in which a similar progress has been making, so that Nottingham, with its dependencies, may be estimated, sup¬ posing that the increase since 1831 has been at the same rate as in the previous periods, to have more than 70,000 individuals. According to the account of Mr Rickman, the males above twenty years of age employed in the stock¬ ing and lace trade are, in Nottingham 4740, in Radford 1300, in Lenton 300, at Snenton 430, and at Beeston 300. The 1 lent, which is navigable up to the town, and the various canals which branch from that river, afford the means of easy communication with every part of the king- The chief accumulation of capital in the town and its vicinity has been from its manufactures. The most an¬ cient, and still the most extensive, is that of stockings. T he earliest introduction of that neat piece of machinery,' the stocking-frame, at nearly the same period into Leices¬ ter and Nottingham, gave to those towns a superiority in fabrication, which has subsequently been maintained, and which has nearly superseded the domestic manufacture of knitting stockings. The stockings of the two towns, made either from wool, thread, cotton, or silk, are to be seen in every part of the world, and far excel in beauty and cheapness any that are made elsewhere in imitation of them. Ihe prosperity of Nottingham has, however, been ad¬ vanced in a prodigious degree by a new manufacture executed by machinery, analogous to that of the stocking- frame, but contrived with a greater portion of mechani- cal ingenuity. I his article of commerce is known by the name of bobbin net. It generally resembles lace, and has in a gi eat degree supplanted that pillow lace for which Flan¬ ders, Trance, and some counties of England were once high¬ ly celebrated. ° Although this trade originated at Nottingham, yet the riotous disposition of the workmen called Luddites (which has been already noticed), who opposed all those improve¬ ments in machinery to which the extension of this trade has been indebted, caused many of the capitalists to re¬ move their establishments to other and some very distant counties. Yet, notwithstanding such removals, and the ri¬ vals thereby created, the trade here has gone on increasing, and is still most extensive in and around Nottingham. Our limits do not admit of tracing the various steps of improve¬ ment with great minuteness. At first, only plain nets were made, then quillings were introduced, and afterwards fi¬ gured or fancy patterns were produced. The two last are the highest priced, and the chief object of the manufac¬ turers here. The number and description of the machines in January 1836 were thus dispersed:—In Nottingham¬ shire, 372 for plain nets, 1006 for quillings, and 784 for fancic8 , in Leicestershire 207 for plain, thirty-seven for quillings, ninety-nine for fancies; in Derbyshire J92 for plain, forty-nine for quilling, fourteen for fancies ; in De¬ vonshire, Somersetshire, and the Isle of Wight, 654 for plain, thirty for quilling, 103 for fancies. Total for plain 1425, for quillings 1122, for fancies 1000. The improve¬ ment made by the introduction of the quilling and fancy nets has caused additional capital to be invested in machi¬ nery, and the employment of from 1500 to 2000 additional 2 N 281 Netting- ham. 282 NOT NOT Notting- workmen ; and the above statement shows that this benefit hamshire. principally fallen to the share ot Nottingham. v — — ^ The following calculation, made by Mr W. Felkin, will show, in a national point of view, the great value of this apparently minute branch of industry. That gentleman estimates that, in the year 1835, there were used in this trade 1,850,000 lbs. of sea-island cotton wool, valued at L. 185,000, and 25,000 lbs. of silk, valued at L.40,000. The produce of these raw materials, and their disposal, are stated by the same person thus: Home consumption for nets, L.320,000 ; for quillings, L.210,000 ; for fancies, L.580,000 ; total, L.l,110,000. Foreign trade, for nets, L.340,000 : for quillings, 282,000 ; for fancies, L.480,000 ; total, L.l, 102,000. , ,. , The plain nets made in the other parts of the kingdom are mostly sent to Nottingham in the rough state, where they receive the finishing operations of gassing, bleach¬ ing, and dressing. The amount of these was, in the jear 1835, L.328,000; so that this town, besides the profit upon the goods manufactured in and near it, gains a con¬ siderable share of the profit upon the goods made by their rivals. The net wages earned by men vary from twelve to thirty-five shillings a week, according to the kind, the width, and the speed of the machines at which they are emploved. Sixteen shillings is about the average. Wages to women vary from three to twelve shillings, as they may be occupied, but average about six shillings a week. Chil¬ dren are paid from one to four shillings, and can be useful as embroiderers, or in mending and winding. Mr Felkin says it is difficult to estimate how many persons altoge¬ ther are employed in the various departments of this flou¬ rishing trade. Besides the staple trades, there are, in and around the town, several large factories for spinning and weaving cot¬ ton goods. Nottingham has been celebrated for its ale, the quali¬ ties of which have been the theme of song. It is still good, and very potent. Its excellence has been attributed by some to the good quality of the barley grown in the neigh¬ bourhood, by others to the purity of the water, and by many to the excellent cellars scooped out ot the rock with which most of the good houses are furnished. This town returns two members to the House of Com¬ mons. The freemen, who were formerly the sole electors, are still numerous, but are exceeded in number by the ten- pound voters. By the municipal corporation reform law passed in 183o, this town is to continue a corporation, is divided into seven wards, and has a mayor, fourteen aldermen, and for¬ ty-two councillors, with twelve justices of the peace ap¬ pointed by the crown. NOTTINGHAMSHIRE, an inland county of England, bounded on the north by Yorkshire and a part of Lincoln¬ shire, on the east by Lincolnshire, on the south by Lei¬ cestershire, and on the west by Derbyshire. It is of an oval figure, with its narrowest end towards the north. Its greatest length is about fifty miles, and its greatest breadth twenty-seven. Its circumference is estimated at 140 miles. According to the statement of Mr Rickman, the extent is 837 square miles, or 535,680 acres. The county is divided into six hundreds, or, as they are usually denominated, wapentakes ; three of which are to the north and three to the south of the river Trent. It contains nine market-towns, and 207 parishes. The an¬ nual value of all the real property of the county, as taken in the year 1815, for the purposes of the property-tax, was found to be L.737,220. The number of inhabitants at each of the four decennial enumerations amounted, in 1801 to 140,350, in 1811 to 162,000, in 1821 to 186,873, and in 1831 to 225,400. The burials in the ten years from 1821 to 1831 appear to have been one in fifty-four of the inha¬ bitants then living. The illegitimate births were one in twenty of the whole births. The occupations of the inhabitants in 1831, according to the arranged returns of Mr Rickman, were as follow: Occupiers of land employing labourers 2,643 Occupiers of land not employing labourers 2,414 Agricultural labourers 11,799 Employed in retail trades and handicraft 14,683 Capitalists, bankers, and professional men 2,093 Labourers not agricultural 5,628 Employed in manufactures and machinery 14,260 Other males under twenty years of age 56,582 Male servants of all ages 1,132 Female servants L886 The number of inhabited houses was 44,936, occupied by 47,117 families. Of these, 13,351 were employed chiefly in agriculture, 25,578 in trade, manufactures, and handicraft, and 8188 belonged to neither of the foregoing classes The towns and villages containing more than 1500 in¬ habitants, and the numbers in each, were, in 1831, Lenton 3,077 Bulwell 2,611 Retford 2,491 Hucknal-Torkard 2,200 Clareborough 2,106 Kirby Ashtield 2,032 Carleton 1,784 Bingham 1,738 Stapelford 1,5 Nottingham 50,680 Newark 9,557 Mansfield 9,426 Basford 6,325 Worksop 5,566 Sutton Ashfield 4,805 Greasley 4,583 Arnold 4,054 Southwell 3,386 ^ The face of the country is generally level, with moderate undulations ; and its beauties are of a mild description, somewhat picturesque in the vicinity of Sherwood forest, but displaying neither the striking features of the adjoin¬ ing county of Derby on its western side, nor the flat insi¬ pidity of the plains of Lincolnshire on its eastern side. From its position between these two descriptions of coun¬ try, and from its moderate elevation, it enjoys a milder climate than either, partaking neither of the raw air of the one nor the moist atmosphere of the other. The dryness of the climate is favourable to early vegetation, and is sup¬ posed to be the cause of the seed-time and harvest in Not¬ tinghamshire commencing at the same period as in the more southern counties. The soil of this county is very various. On the bor¬ ders of Derbyshire there is a stripe of land with coal and limestone, partly in wood, but mostly under arable culture. Parallel to it is a broader tract, including Sherwood Forest, the soil of which is chiefly sandy and gravelly ; but though naturally sterile, it has in some degree been brought into a productive state by the extensive cultivation of tumps, and the maintenance of considerable flocks of sheep. Ihe tract which adjoins is a clayey soil, extending to the banks of the river Trent. It is chiefly arable land, but varieu with woods and meadows, and highly productive of wheat, oats, beans, and, in some parts, of hops. The lands on the banks of the Trent are very fertile, being mostly devoteu to pasture, on which many oxen are fattened; and som of the dairies are extensive. The arable land of this 's trict is celebrated both for the quantity and the quality o the oats which it produces. The beautiful vale of belvoi, in the south-easternmost part of the county, enjoys som of the best soils, both for pasture and arable husbandry, any part of this island. The farms are in general small, and commonly held by tenants at will, the rents taken r whom are generally moderate ; and a very great pro tion of the land is free from the burden ot the m ‘ The spirit of agricultural improvement has not Proce so far as in many other counties, though it has maC^, f siderable progress of late years. Neither the bre NOT . cows and sheep, nor the modes of cultivation, differ so i • much from those of the adjoining counties as to deserve /any especial notice. There are no mines except those of coal, which are ex¬ clusively confined to a narrow district bordering on Derby¬ shire ; the coal is of good quality, very abundant, and, by means of internal navigation, diffused throughout the whole county. Excellent stone for building is raised in many parts, some ol which has the peculiarly valuable quality of improving by exposure to the weather. Many parts of the county abound in veins of gypsum. In the parish of Gotham it is found in strata of the thickness of three feet. At Beaconhill, near Newark, there are large quarries of this substance. Although it has been much praised as a manure, the trials of it that have been made in its vicinity have not been attended with such beneficial results as to induce the continued use of it for that purpose. The Forest of Sherwood, formerly celebrated as the scene of the exploits of Robin Flood, whose deeds amused our nursery days, is mostly an open heathy plain, border¬ ed with recent plantations, and upon which the plough has made very extensive encroachments. The boundaries of the forest are extensive, it being twenty-five miles in length, and from seven to nine in breadth; but a great portion of it has become the property of private indivi¬ duals, and is enclosed in farms and parks ; in the latter of which is to be found the deer with which this forest was once most abundantly stocked. The trees of most ancient date are those now remaining on the estates of the Duke of Newcastle and Lord Manvers. -Nottinghamshire is, for its population, one of the great¬ est manufacturing counties. The frames for making ho¬ siery were the discovery of a clergyman of this county named Lee, in the reign of Queen Elizabeth, who, find¬ ing but little encouragement in England, repaired to Pa¬ ris, and commenced his work under the auspices of Henry IV. The murder of that monarch having deprived him of a patron, he died of chagrin in France, and the work¬ men returned home, when, after many fluctuations, the machinery was introduced into this county. The making of stockings, caps, pantaloon-pieces, and other similar arti¬ cles, has long given employment to the great mass of the labouring population ; and of late years the making of lace upon a similar principle has been introduced, and created additional employment. Although the riotous conduct of the workmen, under the denomination of Luddites, has driven some of the large capitalists to other parts of the kingdom, yet the hosiery business is by far the most im¬ portant means of employment throughout the whole coun¬ ty. The spinning of cotton-yarn, from its natural connec¬ tion with hosiery, has been introduced and very widely extended ; and the establishments at Nottingham, at Mans- freld, at Newark, at Southwell, and several other places, me upon an extensive scale. There are also several large manufactories for spinning worsted yarn. Malting and brewing are carried on to a considerable extent; and the beer of Nottingham and of Newark rivals that of Burton- upon-lrent. There are potteries at Sutton Ashfield; starch is made near Southwell; and sailcloth and candlewick at lietford. ihe foreign trade of this county is mostly conducted by ie mercantile houses of London and Liverpool; but some o the larger manufacturers export their own goods, both o the continent of Europe and to the more distant parts of the world. The river Trent, the fourth in magnitude of the Eng¬ 's i streams, passes across the county, and is navigable for arges throughout the whole of it; but its deficiencies of j , a (jr and its shoals are such great impediments that a canal e. e ‘b fen miles in length, is found of great use ie intercourse. The other rivers are not navigable, NOV 283 but are beneficial for the purposes of irrigation. They are Novaia the Erwash, the Soar, the Maun, the Meden, the Wollen, t II the Worksop, the Idle, the Lene, and the Dover or Dare. vIsTovara* These all discharge their waters into the Trent. The ca¬ nals are, the Nottingham, the Grantham, the Idle, and the Chesterfield. The last of these is about forty miles in length ; the others about ten each. By means of these and the Trent, the intercourse by internal navigation is extend¬ ed to almost every district of the county. The titles derived from this county are those of Marquis of Granby, Earl of Mansfield, Viscount Newark, and Barons Pierrepoint and Carrington. For election purposes, the county has been divided into two districts, the northern and the southern. Each of them returns two members. The election for the northern division is held at Mansfield, and the polling places are, that town, East Retford, and Not¬ tingham. The election for the southern division is held at Newark, and the other polling places are Bingham and Southwell. The three boroughs, Nottingham, Newark, and Retford, return each two members, as before the passing of the reform bill. The whole of the county is in the diocese of York, and it is on the midland circuit of the judges. The remains of Roman and Saxon antiquities are nu¬ merous. Amongst the former are the camps at Barton Hill, at Combes Farm, at Gringley, at Hexgrave, and at Wenny Hill, and a Roman villa near Mansfield. Amongst the latter are the Castle of Newark, the abbeys of New- stead, Rufford, and Welbeck; the priories of Mattersey and Worksop; and the churches of Bingham, Blythe, Southwell, and Balderton. The most distinguished natives of this county have been, Archbishop Cranmer, Dr Erasmus Darwin, Sir Martin Frobisher, Denzil Lord Holies, Ireton the son-in-law of Cromwell, Lady Mary Wortley Montagu, Paul Sandby, Archbishop Seeker, Gilbert Wakefield, and Bishop War- burton. The seats of noblemen and gentlemen of the first class are as numerous as in any county of England. Of these, the most remarkable are the following, viz. Annesley Hall, J. W. Chaworth, Esq.; Babvvorth Hall, Honourable J. B. Simpson ; Bunney Park, Lord Rancliffe ; Clifton Grove, Sir Gervas Clifton ; Clipstone Park, Duke of Portland; Clumber Park, Duke of Newcastle; Colwich Hall, John Musters, Esq.; Grave, A. H. Eyre, Esq.; Holme Pierre¬ point, Earl Manvers ; Hurgarton Hall, G. D. L. Gregory, Esq.; Kelham House, J. M. Sutton, Esq.; Langold, H. Gaily Knight, Esq.; Lenton Priory, William Stretton, Esq.; Muskham, J. Pocklington, Esq.; Newstead Abbey, late Lord Byron (now the property of Major Wildman) ; Norwood Park, Sir Richard Sutton, Bart.; Osberton, F. F. Foljambe, Esq.; Ossington Hall, J. Denison, Esq.; Rufford Abbey, Honourable J. L. Saville; Stanford Hall, C. V. Dashwood, Esq.; Stappleford, Sir John Borlase Warren ; Thoresby Park, Earl Manvers; Welbeck Abbey, Duke of Portland ; Wollaton Hall, Lord Middleton ; Worksop Ma¬ nor, Duke of Norfolk. NOVAIA, a small town of Tobolsk, in Asiatic Russia, situated on the Irtysch, one hundred miles east-south-east of Tobolsk. NOVARA, a province of the duchy of Piedmont, in the continental dominions of Sardinia. It extends over 610 square miles, and comprehends one city, 117 mar¬ ket-towns and villages, and about 100,000 inhabitants. It is a level district, watered by the rivers Ticino, Sesia, and Agnona, the streams of which are spread by numerous small canals, so as to irrigate the whole of the surface; but as the water is not stagnant, the air is not generally insalu¬ brious, excepting near the extensive rice-grounds. Much corn is raised, and some of the best silk, with hemp, flax, and fruits. The capital is the city of the same name, situated on a 284 NOV NOV Nova Sco-hill at the foot of which flows the river Agnona; it is forti- both in Cape Breton and Nova Scotia, those immense Nov;: J tia. fled, is the seat of a bishop, and has a cathedral. It con¬ tains several parish churches, seventeen convents for the two sexes, and two thousand houses, with 14,662 inhabi¬ tants. The city has two colleges and a theological semi¬ nary. The chief occupations of the inhabitants consist in weaving silk and linen, and some smaller trades. Long. 8. 32. 25. E. Lat. 45. 26. 58. N. NOVA SCOTIA, a British province of North Ameri¬ ca, situated between the parallels of 43. 25. and 46. 0. north latitude, and the meridians 61. 0. and 66.30. of west longi¬ tude, and connected with the south-east part of the con¬ tinent by an isthmus of only eight miles in width. It is bounded on the north by the Strait of Northumberland, which divides it from Prince Edward Island ; on the north¬ east by the Gut of Canseau, which interposes between it and the island of Cape Breton ; on the south and south- coal fields which are supposed to rival in extent the mines of the mother country. Varieties of copper, iron, and lead ores are also abundant; and different other minerals of less importance are found. Salt springs, some of them strong¬ ly impregnated with saline matters, are met with near Pictou, at River Philip, and some other parts. The soil of Nova Scotia is of many different qualities, and various degrees of fertility. The alluvial, or intervale lands, of which there are extensive tracts, are rich, and produce plentiful returns of wheat, barley, oats, Indian corn, pota¬ toes, turnips, with all the vegetables and fruits common in England. Some of the uplands, lying between the hilly country and the rivers, are light and poor, whilst the high lands are rich and very productive. The lands on the southern coast are generally so rocky as to admit of cul¬ tivation only at much expense and labour ; but after the east by the Atlantic Ocean; on the west by the Bay of stones are removed, the soil is by no means barren. Fundy ; and on the north-west by New Brunswick. Its The interior of Nova Scotia is intersected and watered extreme length from Cape Canseau on the east to Cape St by numerous rivers, lakes, and streams, which beautify Mary’s on the west is about 280 miles; but its breadth and enrich the country. The two largest rivers are the An- varies from fifty to about 100 miles, and it contains a su- napolis and the Shubneccadie. The former takes its rise perficies of about 16,000 square miles, or upwards of nine in King’s county, and, running parallel with the bay of millions of acres. From this, however, nearly one third Fundy, after a long and serpentine course, m which it may be deducted for lakes, arms of the sea, and rivers, receives the Moose and Bear Rivers, discharges itself leaving about seven millions of acres of land, five millions into Annapolis Bay. It is navigable to a considerable ex- of which may be considered as adapted for cultivation, tent, and its banks present a rich and pleasing landscape, and the remainder as affording tolerable pasturage. It is The Shubneccadie, issuing from the Grand Lake in the estimated that above three millions of acres of these lands county of Halifax, divides that county from Hants, and, still remain vacant, and in the hands of the crown ; but the after a rapid and circuitous course, the length of which largest unoccupied tracts do not in one place exceed forty has not yet been accurately ascertained, discharges itself thousand acres. into tl)e ^ay of' Minas- 11 receives the waters of ten other The most remarkable physical characteristic of this pe- rivers, is navigable for large vessels a long way into the ninsula of the North American continent is the numerous interior, and contains on its banks inexhaustible quan- indentations along the coast. The shores are lined with titles of gypsum and lime, together with extensive groves rocks and studded with thousands of small islands; and of fine timber. At Pictou, three rivers, navigable for close’to these, and in the harbours, almost without excep- large vessels, empty themselves into the harbour; the - - All along the East, West, and Middle Rivers. Besides these, there tion, there is a considerable depth of water. D— - - . southern shore there is a succession of noble harbours ; and are the Avon, navigable for a considerable distance ; the coasting vessels sail amongst and within the myriads of La Have, which issues from a chain of interior lakes, and islands which line the coast during the most blustering wea- has a course of about sixty miles ; the Mersey, which ther thus enioying comparatively smooth water, whilst the winds from Lake Rosignol through the Queen s c°uaty> main ocean heaves in violent agitation. The interior of the and discharges itsel f into L.verpoo Harbour; the Med- country is very agreeably diversified with hill and dale, river way, the Shelburn, the Clyde, the lusket, the bt Mary, and lake, forest and grassy plain. The surface, although and others, all of which owe their origin to lakes m he undulating, is not mountainous, the highest land, Ardoise interior. Ihe most extensive still sheet of water is Hill or Arthur’s Seat, being only 810 feet above the level Rosignol, situated partly in each of the three counties of of the sea nearly the same height as Arthur’s Seat at Edin- Queen, Shelburn, and Annapolis. It is said to be thirty burgh. The highlands generally run north and south, miles in length, but is little known. Lake George is a so branching off in all directions, and in some instances ter- of considerable size; and there are innumerable o er> minating in bold cliffs on the coast, the most remarkable of which it is unnecessary to mention. Ihe forests o i which is Aspotagoen, between Mahon and Margaret’s Bay, Scotia still constitute a prominent feature of the country, which is about 500 feet in height. The Horton Mountains The trees are the same as those common to America and run nearly north and south; and the north mountains, which the timber is generally large and lofty. Amongs are washed by the Minas Basin, terminate in Cape Blomi- tural curiosities of this country is a huge granite stone, don. The Blue Mountains, which lie in the interior of the supposed to weigh about a hundred and sixty-four counties of Annapolis, Shelburn, and Queen’s, are said to stands on the margin of a small lake, encircled wi > retain traces of volcanic eruption. There is a great va- near Halifax, and ,s so nicely poised on a flinty base oi riety of rocks in Nova Scotia, but granite, trap, and clay- twelve inches, that the strength of one hand wi [ slate predominate. The most abundant variety is the gray motion, but that of several hundreds con « , granite, which prevails along the shore, and is well adapted from its place. I here are several remai kab e for mill-stones. Trap rocks, sometimes interstratified with grottoes, one of which, at St Peter s Poin , . clay-slate, protrude in various places in immense parallel of the Bay of Fundy, displays m the interior a sp ridges above the surface, and frequently in piles of loose hall, the roof of winch is fretted with stalacti es , masses heaped confusedly together, traversed frequently by hant gems are observed sparkling at t1^ monie ^ veins of quartz. Clay-slate of a very fine quality, and used light of a torch or a candle approaches. 1 he • i re(j as a building stone, prevails in the eastern section of the co- va Scotia was for many years after its discovery gn lony ; and graywacke and graywacke-slate extend along as an insuperable barrier to agricultural in the both shores of Chedabucto Bay, in which are found beds of limestone and numerous species of specular iron ore. In connection with carboniferous limestone are found, idea long prevailed in England that it was peculiarly region of snow and fog. The temperature is indeed co- er in winter in this peninsula than it is in Great Bn NOVA SCOTIA. 285 lia V but when the weather is cold it is usually dry, and alto¬ gether the winter is milder, and the summer less intense¬ ly hot, than at Quebec. The summer heat is moderate and regular; the autumn is a delightful season ; and there is seldom any severe winter weather until the end of December. Frost continues generally from Christmas to April, only interrupted by a thaw, which almost invariably takes place in January. The heaviest snow-storms occur in February. Rain falls in greatest abundance in spring and autumn ; and a fog prevails on the south shore near the mouth of the Bay of Fundy, but does not extend far inland. The wild animals are the moose, carriboo, bear, loup- cervier, tiger-cat, fox, marten, otter, mink, beaver, musk¬ rat, porcupine, racoon, wood-chuck, fisher, weasel, squir¬ rel, hare, and the like, all of which, excepting the two last, have rapidly decreased in number. Nearly all the birds common to North America frequent Nova Scotia; and there are but very few kinds of fish which are found in the American seas that do not frequent the shores of this colony in vast sw'arms. Nova Scotia is divided into ten counties, including Cape Breton ; and the counties are subdivided into districts and townships as follows, viz. Halifax, divided into the dis¬ tricts of Halifax, Colchester, and Pictou, and containing the townships of Halifax, Dartmouth, Preston, Lawrence Town, Truro, Onslow, Londonderry, Pictou, Egerton, and Maxwelton ; Lunenburg, containing the townships of Ches¬ ter, Lunenburg, and Dublin ; Queen’s county, containing the township of Liverpool; Shelburn, containing the town¬ ships of Shelburn, Yarmouth, Barrington, Argyle, and Pub- nico ; Annapolis, containing the townships of Digby, Cle¬ ments, Clare, Annapolis, Granville, and Wilmot; King’s county, containing the townships of Aylesworth, Cornwal¬ lis, Horton, and Sherbrooke ; Cumberland, containing the townships of Wallace, Amherst, and Pamborough ; Hants, containing the townships of Falmouth, Windsor, Rawdon, Kempt, Douglas, and Newport; Sydney, divided into the Upper and Lower Districts, and containing the townships of St Mary’s, Guysborough, Manchester, Wilmot, and Dor¬ chester, or Antigonish ; and Cape Breton, divided into the north-western, north-eastern, and southern districts. The townships are not all of equal extent, nor are there, as will be seen, the same number in each county. The inhabi¬ tants meet, like an English parish, in vestry, and assess themselves for the support of the poor. This regular sub¬ division affords facilities for the administration of justice; and the principal townships send representatives to the House of Assembly. Halifax is the largest county in the province, stretching quite across it from the Atlantic Ocean to Cumberland Straits. It is bounded on the east by the county of Syd¬ ney, on the west by the counties of Hants and Lunenburg, and on the north by the county of Cumberland. The whole southern shore is washed by the Atlantic Ocean, and a part of the northern shore by Northumberland Straits, ^ith the exception of the township of Halifax itself, the general appearance of the three districts into which t-he county is divided corresponds with that of the province as a whole; its surface being everywhere diversified by hill and dale, and well irrigated by rivers and brooks. All the southern part which lies upon the Atlantic is high, broken, rocky land, interspersed here and there with some good cits of soil, but in general it is barren and uncultivated. ie extensive tract of country surrounding the Great Lake hears the same character, as does that which extends se- veial miles along the eastern and western sides of the Shub- flcccadte River. Halifax, the capital city of the province, is situated on the south-east coast, in latitude 44. 40. north, aJ onghude 63. 40. west. It is built on the eastern side 0 a sma ^ Peninsula, upon the declivity of a hill, which rises gradually from the water’s edge ; its length being about Nova Sco- two miles, and its breadth about half a mile, with wide t^a- streets crossing each other at right angles, and containing nearly 2000 houses, and a population, including strangers, of about 20,000. It has been very much improved within the last ten years. The front of the town is lined with wharfs, alongside of which vessels of all sizes are conti¬ nually discharging or taking on board their cargoes. The harbour of Halifax has perhaps not a superior in any part of the world, affording safe anchorage for a thousand ships at once ; and it is accordingly the chief naval station of Great Britain in North America. It is accessible at all seasons of the year, being scarcely ever ice-bound, as Que¬ bec annually is. It lies nearly north and south, extending in this direction about sixteen miles, and terminating in a beautiful sheet of water called Bedford Basin, within which are ten square miles of excellent anchorage. The bay from which the entrance of the harbour leads is formed between Sambro Head and Devil’s Island, on the former of which a lighthouse was very early erected. There are four islands still farther in, upon the smallest of which, opposite the town, there are batteries strongly mounted, whilst several other fortifications command the harbour. A second light¬ house has been established on M‘Nab’s Island, situated near the mouth of the harbour. This island forms two en¬ trances to the harbour; the eastern passage being for small vessels only, the other having depth of water for ships of all sizes. Above the wharfs already mentioned are nume¬ rous warehouses; and on the acclivity are the houses of the citizens, public buildings, and other structures. The houses are very irregular in height, but many of them are handsome stone and brick buildings, whilst those of wood are neatly faced with plaster or stucco. The public edi¬ fices are substantial, the Province Building in particular being one of the finest in our American colonies. It con¬ tains chambers for the council and legislative assembly, the supreme court, and all the provincial offices. The go¬ vernment-house, at the south end of the capital, is an an¬ tique baronial-looking edifice ; and the military hospital, and other structures, are elegant and substantial. The dock-yard is one of the finest establishments out of Bri¬ tain. There are a number of churches, and other places for public worship; and several markets, which are ex¬ tremely well supplied with necessaries. Amongst the be¬ nevolent institutions of this city may be mentioned a col¬ lege, which was established in 1820; and seven or eight newspapers, and a monthly magazine, are published. The intercourse between Halifax and Europe, America, the West Indies, &c. is regular and certain ; and ever since its first settlement in 1749, it has continued to be of consi¬ derable importance, not only as a rendezvous for his ma¬ jesty’s ships, and as the head-quarters of the troops on the establishment of the lower American provinces, but also as the centre of a profitable fishery and trade. The manufac¬ tures carried on consist chiefly of sugar-refining, distilla¬ tion of spirits, porter and ale brewing, and the making of soap, candles, leather, flour, and cordage, and a few other minor articles. Halifax is a free warehousing port, and its trade is very considerable. Opposite to Halifax, on the eastern side of the harbour, stands the little town of Dartmouth. It was laid out about the time that the capital was founded, but in 1756 it was destroyed by the Indians, together with most of the inhabitants. It was subsequently resettled, and has slow¬ ly increased in population, and extended in size. The lands on the Dartmouth side of the harbour are much less stubborn than those on the opposite shore; and the indus¬ trious descendants of the original German settlers have long subjected them to a fair and profitable cultivation. Hie various other townships or settlements in the county of Halifax it is unnecessary to particularize individually* 286 NOVA SCOTIA. Nova Sco-They all contain a considerable quantity of excellent soil, lia- and a small town or hamlet where the settlers reside. Truro, '"■“"‘v'-"-"1 situated on the southern side of Cobequid Bay, near its head, contains about one hundred houses, and a number of pub¬ lic buildings. The district of Pictou, which contains three townships, has a very good soil, and, besides a great coal¬ field, abounds with iron ore, copper, freestone, and lime. It has a number of excellent harbours, the principal port being called Pictou. It is admirably situated on the Straits of Northumberland, opposite Prince Edward Island, on the route from Halifax to Quebec, between which places there is not a safer or better shelter for ships. The town of Pictou, situated about two miles from the entrance, is well built, and contains four churches, with other public edifices, and about 3000 inhabitants. It is a free port, and its trade in lumber, coal, and the fishery, is considerable. An excellent newspaper is published at this place. The county of Lunenburg is bounded on the north by King’s county and that of Annapolis, on the south by the Atlantic Ocean, on the east by Halifax, and on the west by Queen’s county. It extends forty miles from east to west, and its extreme width is thirty-five miles, exclu¬ sive of nearly three hundred islands scattered along its shores. The land is in general covered with spruce and fir timber, well watered, and capable of cultivation. The principal harbour is Mahon Bay, which is very extensive, and affords secure anchorage inside its numerous islands to vessels of the greatest magnitude. Chester town is si¬ tuated on the north side of the bay, about nine miles from its mouth, upon a snug and commodious harbour. It is a thriving place, and carries on a very considerable lumber trade and fishery. It was first settled by people from New England, who afterwards abandoned the place. They were succeeded by Germans, who, being industrious, soon secured their own independence and the prosperity of the settlement. The population of the bay amounts to about 2000, who are chiefly employed in agriculture, preparing lumber for exportation at the saw-mills, and in fishery. Near the entrance of Mahon Bay, upon the western side, lies the harbour of Lunenburg, the county town. It is regu¬ larly constructed, and contains the county buildings, above 140 dwelling-houses, besides stores, and about 1400 inha¬ bitants of Dutch and German origin. A few miles to the westward is La Have, one of the largest rivers in Nova Scotia, and settled principally by Germans, who own a number of saw-mills and grist-mills. Ihe harbour is very spacious, consisting of an outer and an inner place of an¬ chorage. Considerable quantities of fish are taken here, and several vessels are annually freighted with lumber and timber for Great Britain. Several islands well cal¬ culated for drying fish lie at the entrance, and they also form a protection to the shipping. Most of the islands in this county remain in their natural state; but one, call¬ ed the Great Tancook, is settled, and contains thirty fa¬ milies. c Queen’s county is bounded on the east by the county of Lunenburg, on the west by the county of Shelburn, on the north by the county of Annapolis, and on the south by the Atlantic Ocean. The interior of this county is stony, and generally incapable of cultivation. On the sea-board, however, it is better, and there are here several tracts of respectable soil, and some thriving settlements. Liverpool, the county town, and the second place in the province, is situated upon a harbour of the same name, about eighty miles west from Halifax. It is regularly laid out and well built, containing a court-house, jail, several places of pub¬ lic worship, a fort, above twm hundred dwelling-houses, and a great many wharfs, stores, and other buildings. There is a good lighthouse at the entrance of the harbour, which never freezes over. The trade of the place is very flou¬ rishing, consisting chiefly in lumber and fish ; but a con¬ siderable trade in timber is also carried on. Port Med-1/ way, into which the river Medway runs, is a very fine har¬ bour, capacious, and safe. There are some other smallv settlements in this county, but none requiring special no¬ tice. Shelburn county is bounded on the north by Annapolis county, on the sooth and west by the Atlantic Ocean, and on the east by Queen’s county. It contains four townships, one of which, Yarmouth, comprises 100,000 acres of land, exclusive of lakes, of which Lake George is one. In the interior, this county remains, with few exceptions, in the state of a wilderness ; but some parts are agreeably diver¬ sified, and in point of scenery it is one of the most beau¬ tiful portions of Nova Scotia. Shelburn, the shire-town, is built upon a harbour of the same name, which is es¬ teemed one of the best in America. It has a lighthouse at the entrance, and is twelve miles in length, easy of ac¬ cess, and perfectly secure, affording anchorage for the largest vessels. This town was at one time of considera¬ ble importance, containing, it is said, about 12,000 inha¬ bitants ; but the population does not now exceed 500. A few miles westward of Shelburn is Cape Negro Harbour, sheltered by a high island of the same name. It forms the embouchure of the river Clyde, which winds forty miles through the county, has finely wooded banks, and, next to Annapolis, the most beautiful stream in the province. Within Cape Sable Island, the most northern point in Nova Scotia, is Barrington Harbour, where fishing to a consi¬ derable extent is carried on. Yarmouth or Cape Fourche Harbour is the principal and most thriving place in this part of the province. Its harbour is large, well sheltered, safe, and navigable for ships up to Yarmouth village. Yarmouth and" its neighbourhood contain an industrious population oi about 4500 inhabitants, who possess about seventy vessels and large stocks ot cattle. It has always gone on steadily improving, and promises, from its nume¬ rous local advantages, to become a place of considerable importance. Shebogue River, in this part ol the piovince, is navigable for seven miles from the sea, and at its mouth expands into a good harbour. Annapolis county is bounded on the north and west by the Bay of Fundy, on the south by Shelburn, Queen’s, and Lunenburg counties, and on the east by King’s county. The first European settlements in Nova Scotia were esta¬ blished in this county by the French, who made some very extensive improvements. They founded Annapolis, the county town, and gave it the name of Port Royal. It is built upon a peninsula, which, projecting into the river ni the same designation, forms two beautiful basins, one above and another below t-he town. Although once the metropolis of Nova Scotia, it is not now more than a thriving village, containing about sixty dwelling-houses, with the govern¬ ment buildings, several places of public worship, and some stores. The trade is comparatively insignificant, and arises principally from the fishery. Digby, which has sprung up into a town within the last fifty or sixty years, is a much larger place, containing about two hundred houses. _ Ije inhabitants here and in the neighbourhood are principally engaged in the cod and mackerel fishery along the coas. Bridgetown, another thriving village, is situated at the head of the navigation of the river, and from this place produce of the inland districts is shipped for exporta¬ tion. Fish of various kinds, such as shad, bass, salmon, and particularly herring frequent Annapolis basin. A ou seven miles from Annapolis, on a stream called ivi River, an iron foundery has been established by a com pany under the protection of a legislative charter, buildings are extensive and substantial, and the iron is excellent; but a similar work at Pictou possesses great advantage of a coal mine in the immediate vicm )• The basin of Minas, in this county, is one of the two g NOVA SCOTIA. I o- branches of the Bay of Fundy. Its entrance is through a strait about three miles in width, with bohi, abrupt shores, within which it widens from eight to sixteen miles, and, re¬ ceiving the waters of upwards of twenty rivers and streams, extends about fifty miles to the head of Cobequid Bay. The tide rises sometimes so high as seventy feet in the bay, and flows with great rapidity, particularly when under the influence of high winds. The other townships of this county are thriving places, containing from 1000 to be¬ tween 3000 and 4000 inhabitants. King’s county is bounded on the south by the counties of Lunenburg and Hants, on the north by the Bay of Fundy, on the east by Cumberland county, and on the west by that of Annapolis. The township of Horton, in this coun¬ ty, contains about 4000 acres of diked land, besides inter¬ vale and salt marshes; and the upland, which is hilly and broken, consists mostly of good tillage land. The principal town is Kentville, on the borders of Cornwallis, containing several good private houses, a court-house, a jail, and a grammar school. The township of Cornwallis is well wa¬ tered by several rivers, and the land throughout is of the very best quality, being so fertile as to have obtained the name of the garden of the province. The township of Aylesford is similar to it in soil and productions ; but that of Parrsburgh is much broken and hilly, although in many parts the soil is excellent. Cumberland county is bounded on the north-west by the Chignecto Channel, the Missiguash River, and part of New Brunswick; on the east by the straits of Northum¬ berland ; on the south-east by the county of Halifax ; and on the south-west by King’s county. The soil of this county is various, containing a considerable portion of ex¬ cellent land, with some that is not so productive. On the shore of the Chignecto Channel and Cumberland Basin there are considerable tracts of valuable marsh land. The upland is in general of very superior quality, and there are several thousand acres of dike land of the most pro¬ ductive description. Coal, lime, and gypsum, are found almost everywhere; and iron and copper ores have been discovered at several places. Rivers and streams traverse the county in almost every direction, and it has several fine harbours on both its shores. It contains a number of thriving settlements, particularly those of Fort Lawrence, Amherst, Wallace, and West Chester; but none of the towns requires particular notice. Hants county is bounded upon the north by the Minas Basin, on the east by Shubneccadie River, which separates it from Halifax, on the south by parts of the counties of Halifax and Lunenburg, and on the west by King’s county. This county contains a considerable quantity of the very finest soil, and is well settled throughout. Windsor, the shire-town, is situated at the confluence of the Avon, Windsor, and St Croix Rivers, and is a neat, well-built place, containing about one hundred and thirty dwelling- houses, and a number of public buildings, particularly an university, King’s College, an academy called the Colle¬ giate School, and several places of worship. This is the only town in the county, the other settlements being small lamlets planted in positions favourable for agriculture or fishing. Sydney county, forming the most easterly part of the pro¬ vince, is bounded on the west by the county of Halifax ; on ie south by the Atlantic Ocean ; on the east by Chedabuc- o ay, the Gut of Canseau, and St George’s Bay'; and on ie north by Northumberland Straits. It is divided into an jTpei and a lower district, the former being, in an agricul- ural point of view, far superior to the latter; and, not- 1 standing the numerous and beautiful harbours on the 287 bays and coasts, and the valuable fisheries, it is much more Nova Sco- populous. The village of Dorchester, situated about a mile ^a- above the navigation on Antigonish River, is the principal ^ v'~—^ trading place in the district. The lower district of Syd¬ ney extends on its interior or northern boundary about forty miles, and on its western side (on the sea coast) about one hundred and twenty miles. No part of Nova Scotia, and perhaps few countries in the world, can boast of so many excellent harbours in the same extent of coast. Many of them are navigable for the largest vessels, and numbers af¬ fording safe and extensive anchorage-ground for ships of moderate size occur at intervals of only a few miles. The soil along the shore being stubborn, the agricultural re¬ sources of this part of the county are inferior to those of the upper district; but it possesses much greater facilities for commerce and navigation, and its fisheries are the best in the province. For a general description and history of Cape Breton, the reader is referred to the article Breton, Cape. In many respects it bears so close a resemblance to Nova Sco¬ tia as to supersede any further description. The staple pro¬ ducts of the island are fish, coal, gypsum, and timber. In 1832 the exports were, timber, 9500 loads ; coals, 22,911 chaldrons; pickled fish, 21,000 barrels d dried fish, 44,000 quintals ; oil, 2500 barrels; live stock, 820 head; oats, 6000 bushels ; potatoes, 13,000 ditto ; total value, L.780,000. The imports, consisting chiefly of British manufactures, amount to nearly the same sum. The revenue, amount¬ ing to about L.4000 a year, is expended in salaries to a few public functionaries, in improving roads, and for other purposes. This island is incorporated with Nova Scotia, and contains about 30,000 inhabitants, who send two mem¬ bers to the Provincial Assembly. Sable Island, although distant about eighty-five miles from Nova Scotia, is considered as belonging to that pro¬ vince. It lies directly in the track of vessels bound to or from Europe, and has been the scene of numerous and me¬ lancholy shipwrecks. Within a few years forty vessels have been wrecked on it; and in one year two hundred people perished on its shores. It is thirty miles in length by about one and a half in breadth, the west end being in latitude 43. 56. 42. north, and longitude 60. 71. 15. west; and the eastern end in latitude 43. 59. 5. north, and longitude 59. 42. west. It is a barren desert throughout, the soil consist¬ ing chiefly of sand, and the only vegetable productions being a coarse grass and some wild berries. A sum of L.800 is devoted to keeping on the island a superintendent from Nova Scotia, with a party of men provided with pro¬ visions and other necessaries, for the purpose of affording assistance to any shipwrecked mariners, of whatsoever na¬ tion, who may be driven upon its inhospitable shores. There is a small stock of cattle on the island, but the chief sup¬ plies of food are obtained from Nova Scotia. Agriculture was long almost entirely neglected in Nova Scotia, as other pursuits afforded a more immediate return for labour and capital. In fact, the cultivation of the soil was looked upon as rather a degrading employment, and ranked far below that of the petty shop-keeper or itinerant pedlar. In 1817, however, a board of agriculture was formed, the ob¬ jects of which were, the encouragement of agriculture on the most approved system; the improving of the breed of horses, and of all kinds of live stock; the importing of the best kinds of seeds, and the awarding of prizes to those who should excel in these various departments. Under the auspices of this society and its numerous branches, agriculture has made greater advances than could have been anticipated from the contempt in which it had previously been held ; but still farming operations are rather clumsily conducted. A great part of the fish taken here is transported directly to Halifax, and therefore does not appear in the Cape Breton returns. 288 NOVA SCOTIA. Nova Sco-The soil will produce, and the climate ripen, all the agri- tia* cultural productions of England in great perfection, so that it is unnecessary to specify individual crops. The province is well stocked with horses, horned cattle, sheep, and swine ; and the last species of stock has more than doubled within the last twenty-five years. There are few manufactures, properly so called, carried on in Nova Scotia ; but the pre¬ paration of lumber and ship-building are sometimes so de¬ nominated. Saw-mills abound in every district, and the quantity of lumber prepared and exported is immense. Ship-building is carried on to a great extent. The average quantity has been estimated at 10,000 tons per annum, prin- No cipally sloops, schooners, and vessels for the fisheries. The total quantity of timber shipped from the colony in 1833^" was valued at L.62,447. The total value of the produce of the mines exported was L.105,329, and of the fisheries L.127,455. There were exported besides, beef, pork, flour, grindstones, gypsum, and other articles, to the value of L.592,136, making the total amount of exports L.887,367. The following parliamentary return presents a tabular view of the exports from Nova Scotia, exclusive of Cape Breton, for several years ending 5th January. Seal skins Oil Fish, dry Ditto, pickled Ditto, ditto Timber, &c Gypsum Boards and planks. Vegetables Spars Staves Grindstones 1830. 14,913 618 158,289 45,741 3,416 25,182 28,059 12,450,250 68,213 976 4,068 1831. 3,365 715 151,807 45,433 2,999 26,182 44,253 9,876 63,503 1,322 3,051 1832. 1833. 49,412 694 161,174 52,063 3,200 33,261 47,857 8,833 58,691 689 2,386 51,918 704 160,640 36,070 2,168 38,192 45,058 9,984 64,712 1,689 2,714 2,192 1834. 22,229 596 232,269 53,128 1,470 36,386 93,962 14,774 75,592 2,366 3,133 36,386 number. tons. quintals. barrels. half ditto. tons. ditto. feet. bushels. number. thousands. tons. The fish is thus the staple article of the trade of this province. The fishery is carried on principally on the east¬ ern shore, in and about Chednbucto Bay i on the southern shore, at Lunenburg, Liverpool, and Shelburn; on the west¬ ern shore, at Yarmouth, Clare, Argyle, and Barrington ; and at Annapolis, in the Bay of Fundy. Ihe fish princi¬ pally taken are cod, herrings, mackerel, shad, alewives, and salmon. The British fishermen complain much of the in¬ juries which they receive from the French and Americans, who are permitted to fish upon the coasts of our North American colonies. The imports of Nova Scotia consist chiefly of British manufactures and spirits, sugar, wines, and other articles from our colonies. The following is an abstract of goods imported between the 31st of December 1832, and the 31st of December 1833, for which duties were paid or se¬ cured at the excise office, including the island of Cape BretonWine, 113,671 gallons; rum, brandy, and gin, 887,352 gallons ; sugar, 41,990 cwts.; beef and pork, 6016 pounds; flour, 32,263 pounds ; tobacco, 186,690 pounds. The amount of goods imported, paying ad valorem duties, was L.347,388, and the amount of duties levied was L. 105,386. The total value of the importations for that year was L.1,035,660. With regard to the shipping of the colony, the total number of vessels inwards in 1833 was 1950, of 163,385 tons ; and in 1834, 3068, of 253,921 tons. The total num¬ ber outwards in 1833 was 2330, of 179,956; and in 1834, 3116, of 250,239 tons. They belonged chiefly to Great Britain and the British colonies. To show the increase of trade, it may be stated, that in 1807 the shipping entering Nova Scotia was not more than 25,000 tons. The revenue of Nova Scotia is chiefly derived from the custom and excise duties above mentioned, to which are added other items of small amount derived from the sale of crown lands, which in 1831 realized L.645, and in 1832, L.1063 ; from the rent of the coal-mines, which is upwards ofL.4000 per annum; and from the lighthouse dues, which amount to an annual average of L.2000. According to a document first printed in Mr Montgomery Martin’s work on the British colonies, the revenues for a series of years were as follow:— Years. Colonial Gross Revenue. Parliamentary Grants. Total. 1821 1822 1825 1826 1827 1829 1830 1831 £ 31.430 32,097 37,004 38,360 59.886 81.887 52,030 85,018 9,395 11.245 13,998 16.245 13,125 £ 31,430 32.097 46,399 49,605 59,886 95,885 68,275 98,143 The colony of Nova Scotia is quite adequate to defray all its civil expenditure, and the parliamentary grants, much of which had been applied to clerical purposes, were near¬ ly all withdrawn in 1833, with the exception of that given to the Society for the Propagation of the Gospel. In 1831 the civil and military expenditure amounted to L.94,876, which was less than the revenue. Besides the salaries of the different functionaries, a considerable sum has been laid out annually in making and repairing roads and bridges, keeping up lighthouses, and for the purposes o! religion and education. The established church is Episcopalian, and under the management of a bishop, archdeacon, and thirty-two clergymen, who by the last census bad under their charge 28,659 people. Of the church of Scotland there are twelve ministers, having 37,227 hearers. Of the Roman Catholic church there are a bishop and four¬ teen priests, with 20,401 members. There are, besides, 19,790 Baptists, 9408 Methodists, 2968 Lutherans, 4417 dissenters from the church of England, 405 from the church of Scotland, 153 Quakers, and some few other persuasions. About 50,000 acres of land have been grant¬ ed for the support of religion and schools. For the year ending November 1832 there were in the province 42 schools, at which 11,771 scholars attended; and independ¬ ently of these there wTere twenty-four grammar-schoo s. Dalhousie College, at Halifax, is in constitution similar to the University of Edinburgh. There is a fine institution, called King’s College, at Windsor, with regularly educated NOV id- professors and others; and Pictou College is likewise an excellent institution. Nova Scotia is governed by a lieutenant-governor, coun¬ cil, and house of assembly. The president of the council is the chief justice of the province; the next in station is the bishop, and there are ten other members. The house of assembly contains forty-two members, each of the ten counties returning two, except the county of Halifax, which returns four, and the town of Halifax two; seventeen other towns return each a member, and the island of Cape Bre¬ ton sends two. The house of assembly act, and the laws are administered, as in Canada. There is a strong body of militia for the defence of the province, the name of every male from sixteen to sixty being enrolled. The king’s troops consist of artillery and engineer detachments, and two re¬ giments of infantry. Halifax is the chief naval station for the West Indies and North America, the commander-in¬ chief being a vice-admiral, with a suitable fleet. The forts protecting Halifax town and harbour are strong, and the interior of the country is well guarded by the militia. By the last census, which was taken in the year 1827, the population, exclusive of Cape Breton, was 123,848. In 1837 it cannot be estimated under 145,000 ; for during the last ten years a great quantity of land has been sold, and a number of settlers have gone out, whilst the revenue has also greatly increased. The inhabitants consist of natives, the descendants of Europeans, English, Scotch, Irish, Americans, loyalists, Germans, Acadian French, Indians, and freed negroes. They mingle and live toge¬ ther in much harmony, and, generally, the social state of this province is rapidly improving. Its prosperity has greatly increased; and, instead of importing, it now ex¬ ports provisions. Its fisheries, to which proper attention is at length paid, its rich and prolific soil, and its mines of coal and iron, are sources of wealth which were too long neglected by Great Britain. Our limits will only admit of a brief abstract of the history of Nova Scotia. Ancient authorities state that it wms dis¬ covered by the Cabots in 1497 ; but it was not until 1604 that the French attempted to form settlements. They were, however, expelled from it by the English colonists of Virginia, who claimed the country in right of the dis¬ covery of Sebastian Cabot. In 1621, Sir William Alex¬ ander obtained a grant of the whole peninsula, and it was named in the patent Nova Scotia, instead of Acadia, as the country was called by the French. In the mean time, the latter obtained a footing in it a second time; and it was not until 1654, when a strong force was despatched by Cromwell, that the French settlers were brought un- uer subjection. In 1667, Nova Scotia was ceded to France y the treaty of Breda ; but, after suffering during the war which broke out in 1701, as well as previously, it was final¬ ly ceded to England by treaty in the year 1711. From this period till 1749 it was neglected by Great Britain ; but the esigns of the French called the attention of government to t ie province. Encouragements were held out to settlers, L;I/“Save a larSe grant, and about 4000 adventurers t;eir am'hes embarked for the colony. Halifax was nan,1 rte “v foun(Jed ’ 15111 the French settlers, under the airl !c1neUTtr"Is’ Were sti11 very numerous; and, with the thp n v ^ Indians, they inflicted repeated injuries upon In 17cqIS1’ Untl- they were forcibly expelled by the latter, thn pp t3 con®tlTtution "as granted to Nova Scotia; and dUrinC!PiUre ° Louisburg, in the island of Cape Breton, lonv ^ i ?e,same fear, gave additional security to the co- Paris 'll nil1 c uWv began t0 imProve» By the treaty of claims n 1 ° ^bruary 1762, France resigned all further rica a nr/' any- °* per former possessions in North Ame- currpd 11 iF °* an.y naaterial importance has since oc- into twn rli ^ lunswiclc and Cape Breton were separated m. xvi governments in 1784, and the latter was NOV 289 re-annexed to Nova Scotia in 1819. This the colonists Novatian strongly protested against, and applied to government to jj allow them to remain as a separate province ; but, as might Novation, have been expected, their application proved unsuccess- fob R< R ^ NOVATIAN, a priest of Rome, but originally a pagan philosopher. He was baptized in bed when dangerously ill; having recovered, he was afterwards ordained priest through the favour of his bishop, although the clergy and the people were far from being disposed to grant it. He does not appear to have had the good of the church much at heart; for, with his wit, knowledge, and eloquence, he might have been peculiarly serviceable to her, had he not meanly shrunk from his duty when he dreaded persecution. His ambition to be a bishop likewise misled him ; and the circumstance which occasioned the apostacy of most of the first heresiarchs also occasioned his. On the death of Fabian, bishop of Rome, Novatian, after writing a letter to St Cy¬ prian, remained quiet whilst the see was vacant; but the promotion of Cornelius excited his envy and jealousy to the highest pitch. The consequence was a separation f rom the new bishop, and from those who professed to be¬ lieve, what Novatian strenuously denied, that the church could receive those again who had been guilty of idola¬ try. He soon got together a number of followers amongst the laity, and some even amongst the clergy. Novatus, a priest of Carthage, was one of his party, and having been opposed to St Cyprian, brought his adherents with him. In an infamous and clandestine manner he got himself con¬ secrated bishop of Rome, by three weak men, whom he had grossly imposed upon ; and one of them afterwards did pe¬ nance for having been concerned in what was so contrary to order, decency, and the rules of the church. His de*- signs, however, in this disgraceful affair did not succeed; for he was not acknowledged as bishop of that diocese,5 Cornelius being confirmed in it, whilst he was condemned and excommunicated. He still, however, taught his doc¬ trine, and at length became the head of the party which bears his name. St Jerome says he wrote on the Passover, on the Sabbath, on Circumcision, on the high priests, on prayer, on Jewish meals, and on firmness of mind, besides a large treatise on the Trinity. But none of these works appears under his own name, and some are thought not to be his. NOVATIANS, Novatiani, a sect of ancient heretics, who arose towards the close of the third century, and were so called from Novatian, a priest of Rome. They were also denominated Carficcri or Puritans. Novatian first separated from the communion of Pope Cornelius, on pretence of his being too easy in admitting to repentance those who had fallen off in times of persecution. Novatus coming to Rome, joined himself to the faction of Novatian, and both maintained that there was no other admission into the church but by the repentance in baptism, grounding their opinion on the words of St Paul : “ It is impossible for those once enlightened, and who have tasted the heavenly gift, if they fall away, to renew themselves by repentance.” Not that they denied but a person who had fallen into any sin, however grievous, might obtain pardon by repentance ; for the Novatians themselves recommended repentance in the strongest terms. But their doctrine was, that the church had not the power to receive sinners into its communion, as having no way of remitting sins but by baptism, which, once received, could not be repeated. In process of time the Novatians softened and moderated the rigour of their master s doctrine, and only refused absolution to very great sinners. Ihe two leaders were proscribed, and de¬ clared heretics, not for excluding penitents from commu¬ nion, but for denying that the church had a power of re¬ mitting sins. NOVATION, or Innovation, in the Civil Law, de- 2 o 290 NOV Novatus notes the change of one kind of obligation for another; II as when a promise is accepted instead of a written ob- Novel ^NOVATUS, a priest of Carthage in the third century, who, to avoid being punished for a crime, joined with the deacon named Felicissimus against St Cyprian. In Lol he went to Rome, and there found Novatian, who had ac¬ quired great reputation' by his eloquence, but who mur¬ mured at his not being raised to the see of Rome m pre¬ ference to Cornelius. Novatus soon contracted a friendship with him, and afterwards promoted the consecration of Novatian. This irregular proceeding produced a very great schism. Novatus also maintained that the churc i had not the power to receive those into communion who had fallen into idolatry. NOVEL, a fictitious narrative in prose, which protesses to exhibit the natural workings of the human heart, the happiness and misery of private life, and, above all, the nature of the affection called love, and the consequences of indulging it in certain circumstances. A critic, by no means too indulgent to works of fancy, and amongst w hose failings laxity of morals has never been numbered, thus expresses himself on the subject of novel-writing. “ Ihese familiar histories,” says Dr Johnson, “ may perhaps be , ^ade of greater use than the solemnities of professed mo¬ rality, and convey the knowledge of vice and virtue with more efficacy than axioms and definitions. But if the power of example is so great as to take possession of the memory by a kind of violence, and produce effects almost without the intervention of the will, care ought to be ta¬ ken, that, when the choice is unrestrained, the best exam¬ ples only should be exhibited; and that what is likely to operate so strongly, should not be mischievous or uncertain in its effects.” n .i ■ „ We have said that the novel professes above all things to exhibit the nature of love, and its consequences. Whe¬ ther this be essential to such performances, may perhaps be reasonably questioned; but it has been made an im¬ portant part of the drama in most novels, and, we thinK, with great propriety. It is the object of the novelhst to give a true picture of life, diversified only by accidents that daily happen in the world, and influenced by passions and qualities which are really to be found in conversing with mankind. To accomplish this object, he conceives a hero or heroine, whom he places in a certain rank of life, endows with certain qualities of body and mind, and conducts, through many vicissitudes of fortune, either to the summit of happiness or to the abyss of misery, accord¬ ing to the passion which he wishes to excite in his read¬ ers. In the modern novel, this hero or heroine is never placed on a throne or buried in a cottage ; because to the monarch and the cottager no difficulties occur which can deeply interest the majority of readers. But amongst the virtuous part of the intermediate orders of society, that affection which we call love seldom fails, at some period of life, to take possession of the hearts of both sexesand wherever it has place, it must be productive of happiness or of misery. In the proper management of this passion consists much of the difficulty of the novel writer. He must exhibit his hero as feeling all the pangs and plea¬ sures of love, as sometimes animated with hope, and some¬ times ready to sink into despair, but always exerting him¬ self to obtain the gratification of his wishes. In doing this, care should be taken, either that he never transgress the laws of virtue, or that at least he never transgress them with impunity. “ It is justly considered,” says the writer above quoted, a as the greatest excellency of art to imitate nature; but it is necessary to distinguish those parts of nature which are most proper for imitation: greater care is still requir¬ ed in representing life, which is so often discolouied by NOV passion or deformed by wickedness. If the world be pro- N miscuously described, I cannot perceive of what use it^- can be to read the account; or why it may not be as safe to turn the eye immediately upon mankind, as upon a mirror which shows all that presents itself without discri¬ mination. It is therefore not a sufficient vindication of a character, that it is drawn as it appears; for many cha¬ racters ought never to be drawn : nor of a narrative, that the train of events is agreeable to observation; for that observation which is called knowledge of the world will be found much more frequently to make men cunning than good. The purpose of these writings is surely not only to show mankind, but to provide that they may be seen hereafter with less hazard; to teach the means of avoiding the snares which are laid by treachery for inno¬ cence, without insuring any wish for that superiority with which the betrayer flatters his vanity ; to give the power of counteracting fraud, without the temptation to practise it; to initiate youth, by mock encounters, in the art of ne¬ cessary defence; and to increase prudence without im¬ pairing virtue. « Many writers, for the sake of following nature, so mingle good and bad qualities in their principal person¬ ages, that they are both equally conspicuous; and as we accompany them through their adventures with delight, and are led by degrees to interest ourselves in their fa¬ vour, we lose the abhorrence of their faults, because they do not hinder our pleasures, or perhaps regard them with some kindness for being united with so much merit. There have been men indeed splendidly wicked, whose endow¬ ments threw a brightness on their crimes, and whom scarce any villany made perfectly detestable, because they never could be wholly divested of their excellencies: but such have been in all ages the great corrupters of the world ; and their resemblance ought no more to be pre¬ served than the art of murdering without pain. “ In narratives, where historical veracity has no place, there should be exhibited the most perfect idea of virtue; of virtue not angelical, nor above probability (for what we cannot credit we shall never imitate), but the highest and purest that humanity can reach, which, exercised in such trials as the various revolutions of things shall bring upon it, may, by conquering some calamities and endur¬ ing others, teach us what we may hope, and what we can perform. Vice (for vice is necessary to be shown) should always disgust; nor should the graces of gaiety, or the dignity of courage, be so united with it as to reconcde it to the mind. Wherever it appears, it should raise hatred by the malignity of its practices, and contempt by the meanness of its stratagems ; for while it is supported by either parts or spirit, it will seldom be heartily abhoi- " It is farther observed by Johnson, that the task of the novel writer “ requires, together with that learning whicn is to be gained from books, that experience which can never be attained by solitary diligence, but must aiise from general converse and accurate observation of ^ living world. Their performances have, as Horace ex presses it, plus oneris quantum variai minus, little in 11 gence, and therefore more difficulty. They are engage in portraits of which every one knows the orlgina ’ can detect any deviation from exactness of resem • Other writings are safe, except from the malice of ea ing, but these are in danger from every common rea ’ tho slinner ill executed was censured by a shoe as the slipper ill executed was censured by - - who happened to stop in his way at the Venus of AP ^ « But the fear of not being approved as a just c i ^ human manners, is not the most important conceri ^ an author of this class ought to have before him. * e> are written chiefly to the young, the ignorant, an 1 ... to whom they serve as lectures of conduct an N O V ’• tion into life. In every such work, it should therefore he ^carefully inculcated, that virtue is the highest proof of un¬ derstanding, and the only solid basis of greatness ; and that vice is the natural consequence of narrow thoughts; that it begins in mistake, and ends in ignominy ; and since love must be introduced, it should be represented as lead¬ ing to wretchedness whenever it is separated from duty or from prudence.’’ For some striking and profound observations on the effects of novel-reading, the reader is referred to what Mr Stewart has written upon that subject in his Elements of the Philosophy of the Mind. See the article Romances. Novel, in the civil law, a term applied to the constitu¬ tions of several emperors (novella; constitutiones), more par¬ ticularly those of Justinian. See Civil Law. NOVEL fY, or Newness. Of all the circumstances which raise emotions, not excepting beauty, nor even great¬ ness, says Lord Karnes, novelty has the most powerful in¬ fluence. A new object produces instantaneously an emo¬ tion termed wonder, which totally occupies the mind, and for a time excludes all other objects. Conversation amoncst the vulgar never is more interesting than when it turns upon strange objects and extraordinary events. Men tear themselves from their native country in search of tilings rare and new ; and novelty converts into a pleasure the fatigues and even perils of travelling. To what cause shall we ascribe these singular appearances ? To curiosity, undoubtedly ; a principle implanted in human nature for a purpose extremely beneficial, that of acquiring know- ledge; and the emotion of wonder raised by new and strange objects inflames our curiosity to know more of such objects. This emotion is different from admiration. Novelty, wherever found, whether in a quality or action, is the cause of wonder; admiration is directed to the per¬ son who performs any thing wonderful. The pleasure of novelty is easily distinguishable from that of variety. To produce the latter, a plurality of ob¬ jects is necessary; the former arises from a circumstance found in a single object. Again, where objects, whether co-existent or successive, are sufficiently diversified, the pleasure of variety is complete, though every single object of the train be familiar; but the pleasure of novelty, direct¬ ly opposite to familiarity, requires no diversification. However natural novelty may be, it is matter of expe¬ rience, that those who relish it the most are careful to concea its influence. Love of novelty, it is true, prevails c icren, in idlers, and in men of shallow understand¬ ing ; and yet, after all, why should one be ashamed of in¬ dulging a natural propensity ? A distinction will afford a ausfactory answer. No man is- ashamed of curiosity when t is indulged to acquire knowledge. But to prefer any mg merely because it is new, shows a mean taste, which bottom^1 u°,befsh,amed of- Vanity is commonly at the f . ’ and eads tllose wh° are deficient in taste to pre- er t mgs odd, rare, or singular, in the hope of distinguish- in| themselves from others. In fact, this appetite reigns of re^edmXCr;ie0Lurr” taste’who are ign0rant Wf ^av,e some mem°rable instances in men of Pfnipg an,d.tbe best education. Lucian tells a story nourate u h 38 disgraceful to as it is ho^ world for t 118 SubJec.ts- rhls prince had ransacked the black all ov° cur'osltles 5 °ne was a camel from Bactria, These ji n ’ he, other a man halr black half white, blinking pe°P,e in a.Public theatre, N 0 W 291 Nowogo- rod. tli nkino. fiA ,, . in a puunc meatre, didhimg bu/thih d L1Ve them a- mUCh satisf'action as they affrighted tlm b ^ ™onster, instead of delighting them, contSofso 5 ^ ^ P^oloured man rais'd the hnding the p°me..and the abhorrence of others. Ptolemy, the most astn!FT-IanS PrefeiTed symmetry and beauty to nishing productions of art or nature without them, wisely removed his two anomalous trifles out ofNovemviri sight; the neglected camel died in a little time, and the 11 maa be gave for a song to the musician Thespis. JNO VEMVTRI, nine magistrates of Athens, whose go¬ vernment lasted but for one year. The first of them was called archo?i, or prince ; the second basileus, or king ; the third polemarchus, or general of the army; the other six were called thesmotheUe, or lawgivers. They took an oath ^observe the laws, and, in case of failure, obliged them¬ selves to bestow upon the commonwealth a statue of cmld as large as themselves. Those who discharged their office with honour were received into the number of the sena¬ tors of Areopagus. NOVI, a city of the duchy of Genoa, in Italy, now be¬ longing to Sardinia. It is situated on the great road to 1 ledmont, has a strong castle, several churches, and 5572 inhabitants, who prepare some of the best silk in the dis¬ trict, in w hich they have a brisk trade, as well as in colo¬ nial productions. NO\IGE, a person not yet skilled or experienced in an art or profession. In the ancient Roman militia, novicii or novitn xveve the young raw soldiers, distinguished by this appellation from the veterans. In the ancient orders of knighthood, there were novices or clerks in arms, who went through a kind of apprenticeship ere they were ad¬ mitted knights. Novice is more particularly used in monasteries for a religious person still in his or her year of probation, and who has not made the vows. In some convents the sub- prior has the direction of the novices. In nunneries the no¬ vices wear a vyhite veil, the rest a black one. t NOViCIATE, a year of probation appointed for the trial of religious, whether or not they have a vocation, and the necessary qualities for living up to the rule, the obser¬ vance of which they are to bind themselves to by vow. The noviciate lasts a year at least, in some houses more. It is esteemed the bed of civil death to a novice, who expires to the world by profession. NOYOGOROD. See Nowogorod. NOWADAH, a town of Hindustan, in the province of Bahar, fifty-four miles south-south-east from Patna. Near it there is a pass through the mountains. Loner. 85. 40 E Lat. 24. 54. N. _ NOWAGUR, a town of Hindustan, in tne province of Gundwana, situated on the north-west bank of the Maha- nuddy River. It belongs to the Nagpore Mahrattas, and is thirty miles south-south-east from Ruttunpoor. Lon°- 55. E. Lat. 21.55. N. ° NOYVED, in Heraldry, signifies knotted, from the La¬ tin nodatus ; being applied to the tails of such creatures as are very long, and sometimes represented in coat-armour as tied up in a knot. NOWOGOROD, a province of Great Russia, which takes its name from the city which is now its capital, but was formerly that of the whole of Russia. The governments of Olonez, Pf kow, Twer, and a part of that of St Peters- buig, were included in it, till the recent divisions of the empire were established. It now extends between 57. 18. and 61. 8. north latitude, and between 20. 4. and y9 41 east longitude, over 56,616 square miles. It contains’ ten cities, and 7932 villages, which are formed into 690 pa¬ rishes, having each a church. The inhabitants are 964,500, and almost exclusively adhere to the Greek worship. The face of the country is level, though it includes the Waldai Hills; but none of these is more than 300 feet above the level of the sea. Ihe soil in the northern part is marshy, and chiefly covered with moss; but in the south there is some dry and good land, the cultivation of which rewards the labourer, and the province produces more corn, chiefly rye, than it consumes. It also yields flax, hemp, and muen w ood. Jhe climate is severe, being nearly similar to that 292 N U A Nowogo. of St Petersburg. The fisheries on the rivers and lakes rod yield much subsistence. There is but little commerce, and II none but domestic manufactures. Nuayhas., NoWOGOROd, a city of Russia, the capital of a pro¬ vince, and of one of the thirteen circles of the same name into which that province is divided. It is situated in lati¬ tude 58. 32. 31. north, and longitude 31. 14. 16. east. It n .1 * 1 * a ^ ^ ^ T\*ror QC WPll NUB its flowers only once in its life ; that it lives sixty years be¬ fore the flowers make their appearance ; and that, when they begin to show themselves, it withers away in about av month afterwards, that is, as soon as it has ripened the seed. There appears to be something of fiction in the account given of this tree in the Hortus Malabaricus ; but it seems certain, that the length of the stalk, or trunk, must be tude OO. 3*. or. noun, t».u ^“5— n n vprv „reat in tiie eallerv of Leyden there is preserved a is the seat of the military government of Twer, as we ,, nuayhas twenty-eight feet long ; and another not both the military and civil governments of t e provin j shorter and more than eight inches in diameter, which it stands. The site is on^e backs „ the^ ^ow, Ashtcolean ^useutn a, Oxford. , . where the water of the Ilmen is received into that stream, forming a river of more than a mile in breadth. 1 he an¬ tiquities of the city are more striking than its beauties. I e cathedral, with its brazen gates, is an object of curiosity tor its venerable age, as is the tomb of St John of Isowogo- rod, a saint to whose shrine numerous pilgrims resort. It contains fifty-eight stone and four wiooci1eni thr monasteries, and 1550 houses, with 10,100 inhabitants. may be seen in the Ashmolean Museum at Oxford. NUBA, a race of black Pagans, in the neighbourhood of Sennaar, of whom we know nothing, except what has been stated by Bruce. That traveller passed a day or two amongst them in his way from Abyssinia; and he tells us that they are all soldiers of the Tnslsk or king of Stnnaar, cantoned in villages, which surround the capital to the dis¬ tance of four or five miles. Phey are not the aboiigines monasteries, and 1550 houses, with 10, /TT, 'jfw of that part of Africa; but are either purchased or taken Though ill built, and with irref “ ” f t’he l u. by forcePfrom Fazuclo, and the provinces to the south upon an imposing appearance at “ d‘s sX’ed The cMef the mountains Dyre and Tegla. merous spires and cupolas which are displayed. 1 he c xhe ido)atry i the Nuba is ’ - merous spues uuu occupations of the people are making sail-cloth and tanning leather. . , ^ , t. • Nowogorod Sewersk, a circle of the Russian pro¬ vince Tschernigow, extending in north latitude from 51. 51. to 52. 24. and in east longitude from 31. 51. to 84i. lit. The caoital is a city of the same name, situated on the river Desna,* 751 miles from St Petersburg. It is surrounded U 111UUI1LU111S The idolatry of the Nuba is described as a mixture of Tsabaism and statue worship ; but what is very uncom¬ mon, their worship is chiefly addressed to the moon, whilst they pay no attention to the sun either using or setting, advancing to the meridian or receding from it. _ It is an old observation, that the worship of every people is tinctured by their natural dispositions; and this is veiified in the Desna, 751 miles from St Petersburg. 1 1S SU7°!!.?pCnf case of the Nuba. “ That their worship is performed with with^ walls, and has a castle but nc.t mr ,n a goodw.;^^ ^ satirfaction, is obvious,” says Bruce, “ every repair. It contains 1600 ill-built houses, with 8300 inha¬ bitants, who carry on no manufactures, and subsist by trad¬ ing in the productions of the surrounding soil. Long. 48. E. Lat. 52. 50. N. . NO WOS1LL, a circle of the Russian province ot 1 ula, extending from north latitude 52. 53. to 53. 36. and from east longitude 37. 10. to 37. 25. and containing 94,600 in¬ habitants. The capital is a town of the same name, si¬ tuated on the river Narutsha, 736 miles from St Petersburg, and containing 200 houses, with 1560 inhabitants. Long. 36. 55. E. Lat. 52. 55. N. NOWPOORAH, a town of Hindustan, in the Malirat- ta territories of the province of Khandesh, forty-six miles east from Surat. Long. 73. 45. E. Lat. 21. 6. N. NOX, in fabulous history, one of the most ancient dei¬ ties amongst the heathens. She w^as daughter of Chaos, and from her union with her brother Erebus she gave birth to the Day and the Light. She was also the mother of the Parcae, Hesperides, Dreams; ot Discord, Deatii, Momus, Fraud, &c. Nox is called by some of the poets pleasure and satisfaction, is obvious, says Bruce, every night that the moon shines. Coming out trom the dark¬ ness of their huts, they say a few words upon seeing her brightness, and testify great joy, by motions ot their feet and hands, at the first appearance of the new moon. Ihis is just what we should have expected from their gentle¬ ness and hospitality. They likewise worship a tree and a stone, but our author could never discover what tree or what stone; he only learned that neither of them exists in Sennaar, but in the country where the Nuba are born. Such of them as are natives of the villages where he saw them, become, like their masters, nominal Mahommedans. NUBIA, an extensive country of Africa, bounded on^' the north by Egypt, on the south by Abyssinia, on theeast^ by the Red Sea, and on the west by the great Libyan de¬ sert. It is difficult to fix the precise limits and extent ot this vast region, which will be variously estimated, accord¬ ing as we confine Nubia to the mere valley of the Nile between the first cataract and Meroe, or take into the ac¬ count, as ought certainly to be done, the adjacent desert. There is, in fact, no principle of unity according to which •11 1. VQt-hPr tO t ie the mother of all things, of gods as well as of men l she tuete—^“^7 bi'Cloo'king rather to the was worshipped with great solemnity by the ancients, a lt [f than t0 any arbitrary definition or limitation, had a famous statue in the temple of Diana at Ephesus “^;eVa5yinclude/between the thirteenth It was usual to offer her a black sheep, as she was the "“‘ba t^e„tv.f0urth degrees of north latitude, and the thirty- of the Furies; and a cock was also presented to her, as that and wenty tounn a l0„gitude, and con- bird proclaims the approach of day during the darkness of thlrd “f ff^Tcial area of not less than thp nifrht She is represented as mounted on a chariot, sequentiy as uaving a ^ and covered with a veil bespangled with stars. The con- 360,000 square miles^ ^ ^ immediate banks of the Nile, Gem stellations generally went before her as her constant mes" " } rendered partially productive by laborious sengers. Sometimes she is seen holding under her arms which a^e iefer^ ^rt ^oystPe°tirel of /ocky and sandy twtf children, one of which is black, representing Death N“h "soutem boSy of Eg/pt to Dett,'1 and the other white, representing bleep, kmne of thp ranital of Lower Nubia, the mountains press so closely moderns have described her as a woman veiled in mourn- , I that there is but litt]e groUnd upon either ing, crowned with poppies, and carried upon a c ano | ^ ^ ^ ^ of agriculture ; and the small por- drawn by owls and bats. . . T ,. of t- n which -S caDable of being cultivated appears to be NUAYHAS, or Ague Tbee, a name given bythelndians tion which s c p „radual encroachment of the sands, to a sort of bamboo cane, the leaves of which falling into: the stream, the water, are said to impregnate it with such virtue t at w i structure of the valley through which the NUBIA. . parallel of Wady Haifa, there is ample space for the power- -^ful nations which are said to have flourished here in ancient times. At the second cataract immense plains stretch out from either margin of the stream, exhibiting, it is said, even in their present neglected condition, unequivocal indications of fertility ; and as there seems to be little doubt that, in former ages, the annual inundation extended considerably beyond the limits of modern cultivation, so it may reason¬ ably be presumed that, anciently, the country was much more productive and populous than in modern times, when the decrease of the inundation, and the continual encroachment of the moving sands on the side both of the Nubian and the Libyan deserts, have combined to produce the desolation which now prevails. At present the Nile seldom or never overflows its banks in this part of Nubia; and the portion of the soil cultivated is irrigated by means of sakkeas or Persian wheels, constructed for raising the water of the river to the level of the adjacent ground. The eastern bank of the Nile is much better adapted for culti¬ vation than the western, being more easily irrigated by ar¬ tificial means. But it is not a little remarkable, that all the splendid ruins for which this region is distinguished, and which exhibit so great labour, ingenuity, and skill, are found upon the opposite bank; a circumstance which seems to strengthen the presumption that Nubia was formerly much more fertile and populous than in the present day. of The country on the banks of the Nile is divided into a number of little independent principalities, each governed by its own melek or chief. But, taken as a whole, it is com¬ posed of two parts ; Wady Kenous, and Wady Nouba. The former extends from the confines of Egypt on the south to Wady Seboua; and the latter, from which the general name ol the country appears to have been derived, stretches as far as the frontier of Dongola. The chief distinction between these two parts consists in the circumstance, that the languages spoken in each are entirely different. The governors of the various districts are described as ferocious and arbitrary in their proceedings ; rude in their treatment of strangers, whom they regard with suspicion; and ad¬ dicted to most of the vices which are common amongst bar¬ barians. They acknowledge a nominal subjection to the viceroy of Egypt, but seldom neglect any opportunity that offers of setting his authority at nought. Still, under the safeguard of his firman, Europeans may travel as far as Ibrim (the ancient Primmis) in perfect safety ; but, beyond that point, they must lay their account with being exposed to the vexations and dangers usually incurred in visiting bar¬ barous countries, especially in Africa. In the marauding, slave-hunting expedition of Ismael Pasha in 1821, the treat- ment which the natives everywhere experienced has had the effect of exasperating and confirming the hostility of all he tnbes who iqhabit the upper parts of Nubia ; nor is it 1 e y that the remembrance of the wanton aggression which was then made upon them will soon be effaced from their niemones. Each of the Nubian sheicks pays an annual tri- t e ,°t le vlceroy of Egypt; or rather a certain sum is ex¬ ported as an acknowledgment of subjection, and the price n unmunity from a visit by the viceroy’s troops. Brai? ^!lich forms the principal object of Nubian tani !atl°T 1.S dhourra, the holcus arundinacem of the bo- meanfnf ft18 Up°n th? Patches of soil irrigated by fmm • 16 sakkeas or Persian wheels, of which there are tarao^sf to ,sev . rchants are allowed to take after having passed through the deserts of Sue* and Sum,, manuf^ carry to Kor- did not consider this tract as quite so dreary, althoug am^Sennaar • and even the wild animals of the de¬ aspect is much more rugged, being m general hi ly. At t ie ‘ K ff ’ government monopoly. The pa- southern extremity of this desert through which roam the orSproprietor of this immense re- Bishareen tribes, is the district of Berber, consisting of four shaus-also the iandiora or^p ^ revenues are de- large villages, the inhabitants of which are chiefly emp oy- g » c .1 reo-ular tax^s but likewise from his edgin carrying on the trade of Egypt and Arab,a w,th the nved nc,, ^ ‘^ou , owing to the low interior of Africa. The people are a very handsome race, Prohts a« a .Tuf ""l km “asants for their produce, com- of a reddish-brown colour ; which, if the mother be a slave which he afterwards sells it to from Abyssinia, becomes a light brown but if from the however, is greatly di; negro countries, extremely dark, indeed almost black. 1 ie P , . , erv of the different officers through men are somewhat taller than the Egyptians, and also better m n,she^ ^st f h - J commodities pass. From the limbed,and more muscular. Their features bear no resem- in this respect; blance to those of the negro; the face being oval, the nose highest to the lowest there 1 ^ raalluras 0r often perfectly Grecian, and the cheek-bones by no means malimours, nayrs, kiac . , . hi th am0Unt, rominent They consider themselves as Arabs, not ne- Coptic accountants, a 1 concur in diminishing tne The groes, and are very careful in maintaining the purity of their sharmgAhe ? \"{0lnl cheJt the ig- race. A free-born Meyrefab never marries a slave, whe- Copts employe rannnt read their accounts, ther Abyssinianor negro, but always an Arab girl belonging m0^ey of the treasury, and some- to his own or to some neighbouring tribe. Few men have but often tiaue \ moi-.u p00d • on which more than one wife; but every one who can afford it keeps time. .be ,*• a female slave or mistress, either in his own or in a sepa- account numbers ot the } ^ rate house; and traders passing through Berber usually sons of the viceroy ^ ^ free from these^J take a mistress during the period of their stay in the dis- But the peasants in ujp , . DV> It is no lej p- trict. Drunkenness is the constant companion of this de- exactions, and there ote c01nP^ ;/money, two pieceSper.' bauchery • and these dissolute habits produce the most per- doubt true, that, mstead of one dollar m mone), NUBIA. r of linen cloth, and a sheep, which was all they paid their r*1 ancient meleks, they are now obliged to pay fifteen dollars in cash and five in grain, being in all three hundred pias¬ tres, or ten times the amount of their former contributions ; and they are likewise obliged to work instead of sleeping during the greater part of the day, as was formerly their custom when under their own chiefs. But the man who is at all industrious may nevertheless earn what is amply sufficient to afford him food, and such dress as he has been accustomed to. Each sakkea or Persian wheel is sufficient to water three quarters of a feddan of land, planted with indigo; and each feddan, when carefully irrigated, produces a hundred cantars of the herb, and sometimes more, being about seventy-five cantars for the extent of land which one wheel will wrater. The government pay the peasant 12| Egyptian piastres for each quintal, or 937 piastres for the whole ; which, at the current rate of the dollar in this country (fifteen piastres), is equal to 62^ dollars. If from this we deduct twenty dollars for the duty, there remains for the persons to whom the wheel belongs 42i dollars, or 637 piastres ; but as the calculation here made is at the lowest rate, two piastres a day may fairly be estimated as the clear gain of the peasantry by each water-wheel. This sum, small as it may appear, is sufficient for the support of one family, provided it contain five persons capable of put¬ ting their shoulders to the wheel; if it do not, however, two families must unite to make up this number. The im¬ mense expense of the wrater-wheel forms a great deduction from the gain of the peasant in Egypt; but in Nubia they are so much more simple that they cost only a trifling sum, as oxen may be obtained for thirty piastres each, whilst their “ keep” is next to nothing. Two piastres, or seven- pence sterling, may appear a very small sum to a Euro¬ pean ; but in this country, where every necessary is so cheap, it is amply sufficient for the support of a family. In both divisions of Egypt, where bread is much dearer, and meat and milk are double the price, the fixed remu¬ neration of a labourer amounts to only half a piastre per day, with which he has to sustain himself and perhaps a family. But in Nubia most of the peasants have slips of land watered by the partial inundation of the river, and gain considerably by their date trees, although they pay a tax of a piastre for each. They also rear flocks; cul¬ tivate vegetables, particularly bamia-and malakhia; and make linen, spirit, bouza, and other articles. The con¬ dition of the peasants of Upper Nubia is therefore happy, compared with that of the Fellaheen of Egypt, the most oppressed and degraded population in the world. The Arabs of the desert have still more reason to be satisfied with the government. They pay tribute only for the land they cultivate, which is in general very little, and in many cases none at all; and otherwise they gain a sufficient livelihood by transporting to Egypt on their ca¬ mels the grain collected as revenue, or purchased by the government, and by aiding the passage of troops and mer¬ chants, which is now unintermitted. As far as regards taxes, and the means of subsistence, therefore, the Arabs ^ ^esert Upper Nubia, as well as the peasants on ie Nile, are in a much better condition than the Fella- men of Egypt. But in all other respects they are equally ga led and insulted by their Turkish rulers. In Egypt, je officers only are oppressive, and the soldiers, who I °\t . e resource but to complete the labour with their own or even of Nubia. The temple of Girshe also be ongs to had no resource ^ P^. ^ ^ and with a scanty the more simple order of structures, and mdica supply of necessaries, they worked day by day in the sand, state of the arts connected with architecture. 1 hepotc P ^ at ]engtb, after more than three consists of five square columns on each side, cut out of continued exertion, each performing the labour rock, with a row of circular pillars m front, constructed of ^eek* ot comma ^ the door_ffay be- several blocks, and originally surmounted with an entabla- visibie. and an entrance having been effected, the ture, though only two of them now remain. Before every j j explored, probably for the first time during of the square columns stands a colossal statue of sandstone, ”* eighteen feet in height holding a lash or flail m one hand themsand^ . ^ ^ ^ convinced Belzoni and anmak! whh the hi^ ^ hSCl dn botfd": ponico one of the most magnificent of temple^nche^ This is the same place which by other travellers is called Guerfeh Hassan, or Gwersh Hassan, and is . * . i / ci n : E .w. "VT /-vMr n tv I :i A. ) described with much mi¬ nuteness in several of their works.' (See Henniker, N°^s’ 1 eh^near Thebes ; the two statues in advance of the propyk® are corruptions of Abou-Sambul, which appears to be the genuine name. < 5. NUBIA. beautiful intaglios, paintings, and colossal figures. The ^pronaos, fifty-seven feet in length, and fifty in breadth, is supported by two rows of square pillars in a straight line from the front door to that of the sekos; and each pillar has attached to it a figure finely executed, and very little injur¬ ed by time, the top of the head-dress reaching the ceiling, which is about thirty feet in height. Both the pillars and the walls are covered with representations of battles, storm¬ ing of castles, triumphs, and sacrifices, in a style, if not su¬ perior to, at least bolder than, that of almost any in Egypt, both in regard to the design and the workmanship. The se¬ cond hall, which is of less dimensions, contains four pillars about four feet square, and the walls are covered with hie¬ roglyphics in tolerable preservation. Beyond this there is a chamber of the same width, but shorter, in which is the entrance to the sanctuary; and at each end is a door lead¬ ing into smaller apartments in the same direction with the adytum. The sanctuary itself is twenty-three feet in length by twelve in breadth, and contains a pedestal in the centre, with four colossal figures in a sitting posture at the end, all in good order, and uninjured. On the right side of the great hall there are two doors at a short distance from each other, and which lead into two separate apartments of considerable dimensions, at the end of which are several unfinished hieroglyphics, sketched so as to give an idea of the manner of drawing. At the lateral corners of the en¬ trance from the first into the second chamber are doors, each of which leads into a chamber twenty feet by ten ; and these again open into other apartments, forty-three feet in length by eleven in breadth. The most remark¬ able subjects in this temple are a group of captive Ethio¬ pians in the western corner; a hero killing a man with his spear, and another lying dead at his feet; and the storm¬ ing of a castle, which forms part of the representation. The outside or external front of this temple is truly mag¬ nificent, being a hundred and seventeen feet in width, and eighty-six feet in height, whilst the space from the top of the cornice to that of the door is sixty-six feet and a half, ■ and the height of the door itself twenty feet. There are four enormous sitting figures, the largest in Nubia, or even in Egypt, excepting only the great sphinx at the Pyra¬ mids, to which they approach in the proportion of nearly two thirds. On the top of the door 1s a statue of Osiris, twenty feet in height, with a colossal figure on each side ! looking towards it. The cornice of the temple is adorn¬ ed with hieroglyphics, and under it are a torus and frize, the one six and the other four feet in breadth. Above the cornice is a row of squatted monkeys, twenty in number, and each eight feet and a half across the shoulders. This temple was nearly two thirds buried in the sand, of which thirty-one feet were removed before reaching the upper part of the door. It is excavated in the solid rock, which here rises about a hundred feet above the Nile, and, ex¬ cepting one of the tombs at Biban-el-Molouk, is the largest of the kind either in Egypt or Nubia.1 At a subsequent period, Mr Bankes visited Ebsamboul, and succeeded in uncovering down to the feet one of the our colossal sitting figures, upon the limbs of which he dis¬ covered and copied an inscription in Greek relating to | ”S£™meticus. He next cleared the head of the fourth co- , ossal figure, which had not before emerged above the sur- ace, so as to be able to make a drawing of the whole; an t ie approach being thus disencumbered, the interior of >e temple was lighted up with wax candles fixed on up- rih11 poles, to enable Mr Bankes and bis assistant draughts- “en to copy all the paintings in detail. It is much to be 297 regretted that the labour in opening this temple has not Nubia, been attended with any permanent effect; the winds of the s ■*** v~—^ desert and the natural lubricity of the sand having soon rendered the approach nearly as difficult as before. In about two years the door-way was again covered up, and by this time the interior must be quite as inaccessible as ever. All travellers agree in the accounts they give of Ebsam¬ boul, which is described as the ne plus ultra of Egyptian labour. According to Sir Frederick Henniker, there is no temple at Denderah, Thebes, or Philae, that can be put in comparison with it; and the traveller just named re¬ joices in “having seen the noblest monument of antiquity that is to be found on the banks of the Nile.” This is not the place to enter into details respecting the hieroglyphi- cal emblems and inscriptions with which different parts of this wonderful structure are covered. The larger chamber i^distinguished as the temple of Osiris, and the smaller as that of Isis, to whom it is dedicated. The former is re¬ presented in a sitting posture, attended by the hawk-headed deity ; whilst the latter holds in her hand the lotus-headed sceptre, surrounded with numerous inscriptions and em¬ blems. Much interesting sculpture is also lavished upon the second and third apartments; and in a niche at the up¬ per end of the latter is a small statue of Nephthe, the wife of Typhon, seated. In several places of the square border which encircles the front of the temple, and also on the but¬ tresses between the colossal figures, are a number of ovals or rings, containing the name and praenomen of Harnesses the Great, the same Pharaoh whom the Greeks indicate by the name of Sesostris or Sethosis. We may here add, that a striking resemblance has been observed between the rock temples oflndia, particularly that in the island of Ele- phanta, and those of Nubia, especially that of Ebsamboul; indeed the similarity is so great as to have suggested the notion of a common origin, as well in regard to the mytho¬ logy as the architecture of both countries.2 The temple of Samneh, situated on the western bank of'Temples the river, between the twenty-first and twenty-second de-of Samneh, gree of north latitude, affords a specimen of a more per- Donilour- feet class of structures ; intermediate, it would seem, be-&c* tween such excavations as that of Ebsamboul and the magnificent edifices of Karnak and Luxor. It is built of sandstone, and differs in shape from other edifices of a si¬ milar kmd, though in its plan it somewhat resembles the small chapel at Elephantina in Egypt. The principal build¬ ing is about thirty-six feet in length and nine in breadth. On either hand there stood originally four small pillars, of which two remain on the one side, and three on the other, all covered with sculptures. The inner walls are adorned with hieroglyphics and mystic representations, amongst which may be mentioned the ship of Osiris; and upon the outer wall Burckhardt’s distinguished figures of Mendes. The sculptures are rather coarsely executed, and the lines dividing the columns of hieroglyphics, some of which have been left unfinished, are not straight. The temple of Dondour or Tangour is likewise deserving of attention, from the peculiarities of its style, having been classed by Gau amongst those structures which belong to the last of the epochs of Nubian art already mentioned. It is in form a parallelogram, having the proportions observed in some Grecian structures; and in the pillars may be recognised the mixed Greek and Egyptian style. Between the second and third cataract, in latitude twenty-one degrees north, is the temple of Soleb or Solib. An elevated stone foundation extends in front of the temple, and the remains of two sphinxes are seen at either side of the approach. The first perspiration fru!'aS so Kieat in the interior of the temple,” says Belzoni, “ that it scarcely permitted us to take any drawings, as the may set ahmit i,1 iaiu 3 soon rendered the paper quite wet. Accordingly, we left this operation to succeeding travellers, who 2 See Er l-' C,Wlt l more convenience than we could, as the place will become cooler.” (Narrative, p. 214.) 210, 249. 111 e s Account ol the Lave-leinple of Elephanta, in the Transactions of the Literary Society of Bombay, vol. i. pp. VOL. xvi. 2 p 298 NUB N U E Nubia, chamber is more than a hundred feet in breadth, and about ninety feet in depth, having round three of its sides a single row of pillars, and on the fourth indications oi a double row. They have all been executed from the same model, and are inscribed with hieroglyphics. In the second cham¬ ber may be traced a row of pillars, resembling those of the first; but they are all broken, and the fragments scattered about in every direction. The dimensions ot the adytum cannot now be ascertained, the side walls having been com¬ pletely destroyed. The temple of Soleb affords the lightest specimen anywhere to be seen of Ethiopian architecture, and, for elegance of proportion, has been compared to that of Minerva Sunias at Cape Colonna. At Gibel-el-Birkel there are the remains of two temples, partly excavated in the rock, and partly constructed, like those of Girshe and Seboua. The principal temple is of vast dimensions, and contains no less than six chambers. It is supposed to have been the work of different and distant periods; and, even in the construction of those parts which belonged to the original building, many stones were employed which had formed parts of some more ancient edifice. I be vicinity of Gibel-el-Birkel is remarkable for pyramids, which, though much inferior to those of Egypt, probably originated in the same views of vanity or superstition, not to say tyianny. For further information on the subject of Nubian rock ex¬ cavations and architecture, the reader is referred to the works of Burckhardt, Light, Legh, Richardson, Henniker, Caillaud, Waddington, and Hoskins, in which will be tound ample descriptions of the remains on either side ot the Nile, from Assouan to Meroe, accompanied occasionally with drawings and plans. The reader is also referred to the articles Ethiopia, Ethiopian Nations, and Meroe. General On the whole, it appears that, by a more accurate clas- deductions. sjficat;on 0f the monuments, and the aid of inscriptions, which to former travellers were altogether unintelligible, we are now enabled to rectify misconceptions, correct mis¬ takes, discard mere conjectures, and, in tact, make a real and valuable addition to the history of civilized Egypt. Between the temples excavated in the rock, such as those of Derr and Ebsamboul, and the buildings of a later date, there was an intermediate stage in the art, which it is im¬ portant to distinguish. The first architectural attempt in Nubia probably consisted in the improvement of some hole or cave in the rock; or, even if the country possessed no natural caves for imitation by a people possessing the tro¬ glodyte habits natural to the inhabitants of a burning cli¬ mate, the mountains themselves would afford facilities tor constructing durable habitations. After having got pos session of a hole or cave, the next step of these primitive architects would probably be to extend the excavation, to form several chambers separated by the native rock, and when a compartment of larger dimensions was designed, to have square pillars for the support of the roof. In the course of time the outer front, with the inner walls and pillars, would receive decorations derived from imitations of the natural forms of the country, and subjects connected with the historical remembrances or religious creed of the nation. We see abundant evidence in the rock temples ot Nubia to convince us, that the order of progression and improvement here indicated was that actually followed in their gradual enlargement and decoration ; yet a prodigi¬ ous period must have elapsed between the rudest excava¬ tion in the rock, such as Derr appears to have been in its primitive state, and the highly-finished sculptures ot the great temple of Ebsamboul. In fact, “ antiquity appears to have begun” long after these primeval architects had commenced their troglodyte labours. But, in surveying the wonders which crowd the banks of the Nile from Me¬ roe to Memphis, our minds become insensibly impressed with the reflection, that the wealth, power, and genius which produced them have entirely passed away ; that, if the new worlds have risen, and new races been discovered, Ni << vyg have lost old nations and that, in the lapse of ages, h empires themselves vanish, like the baseless fabric of a vision, leaving scarcely a wreck or trace behind them. Sel Throughout many parts of this extensive tract, a race little de superior to savages pass a rude and precarious life, igno-'w rant of the arts which once flourished in their country, and insensible to the beauty and magnificence of the ruins which they desecrate. They have long ceased to claim any connection with the people who constructed the mo¬ numents of Ebsamboul, Karnak, Luxor, and Gourneh; and having relapsed into that low condition where cuiiositybe- comesTdormant or extinct, they are only moved with won- der when they observe the natives of civilized regions ex- ploring their temples, or taking the dimensions of their obelisks and pyramids. The contrast between what now is, and what once must have been in Ethiopia and in Egypt, is indeed most striking; nor is it easy to pass, even in thought, through the various scenes of conquest and desolation which must have conspired to produce the ef¬ fects we contemplate. History sheds no light on events and characters which the lapse of three thousand years has covered with impenetrable obscurity ; and whilst grop- iniT our way amidst temples dedicated to gods, and struc¬ tures raised in honour of heroes, whose very names sound like voices from the dead, we content ourselves with the conclusion, which all the monuments impress on us, that, long before the dawn of history, there had existed in that singular region a great people, whose architectuial monu¬ ments have outlasted their learning, their philosophy, and almost even their very name. (See Buckhardt’s Travel sin Nubia; Waddington your- nal of a Visit to some parts of Ethiopia; Richardson’s Tra¬ vels in the East; Henniker’s Notes of a Visit to Egypt and Nubia; Hoskins’ Travels in Ethiopia ; Belzoni’s JSarratm of Operations and Discoveries in Egypt and Nubia ; Gau s Nubia ; Life and Adventures of Giovanni Finuti; Russell s Nubia and Abyssinia; the work entitled British Museum; and Heeren’s Historical Researches) 0-) NUBIAN Desert, a vast tract of barren rocks and burning sands, extending from Syene in Upper Egypt, to Geon, the capital of Berber in Nubia. As Syene is in latitude 24. 0. 45. north, and Geon in latitude 17. 57. the length of this desert from north to south is b. o. is., or upwards of 420 English miles. Its breadth from east to west has not, as far as we know, been precisely ascertained. NUCKERGAUT, a town of Northern Hindustan, in the province of Serinagur. Long. 78. 5. E. Lat. 31U. i • NUCLEUS, in general, denotes the kernel ot a nut, or any seed enclosed within a husk. The term nucleus is also used for the body of a comet, otherwise called ns head. NUCTA, a dew, which, falling in Egypt about St Jolins day, is, by the superstitious natives of the country, con sidered as miraculous, and the peculiar gift of t]iat sallV NUDDEA, a town of Bengal, and capital of a chstr of the same name. It is situated on an island at t e co fluence of the Jelinghy and Cossimbazar Rivers wi Hooghly, sixty miles north from Calcutta. Itw&s t ie • pital of a Hindu principality anterior to the M^ul d quest of Hindustan, and was taken and entirely destro) in the year 1204. In modern times it has ten of a Brahmin seminary of learning ; anterior, howe > that in Benares. Long. 88. 24. E. Lat. 23. 2o. N district is situated between the twenty-second an fourth degrees of north latitude. It is of a sandy > is considered as the healthiest and driest par jt jg though it is not equally productive with some ot • of computed to contain 704,000 inhabitants, about a tm whom are Mahommedans. The principal towns nagur, Nuddea, and Santipore. . Pacific NUESTRA Senhora de Luz, an island in the N U M h Ocean, discovered by Quiros in 1506. It appears to be the same island which was called Pic de 1’Etoile by Bougain- u ville. Lat. 14 30. S. ^ NULDINGAH, a town of Hindustan, in the province of Bengal, seventy-four miles north east by north from Calcutta. Long. 89. 7. E. Eat. 23. 25. N. NUJENGODE, a town of Hindustan, in the province of Mysore, which stands on the south bank of the Cubany River, and is inhabited by Brahmins, who derive their support from a celebrated pagoda or temple, to which im¬ mense numbers of Hindus resort. Long. 76. 50. E. Lat. 12. l.N. NUMA PoMPiLius, tbe fourth son of Pompilius Pompo, an illustrious Sabine. Having married Tatia, the daugh¬ ter of King Tatius, he remained with her in his native country, preferring the tranquillity of a private life to the splendour of a court. Upon the death of his wife, with whom he had lived thirteen years, he gave himself up en¬ tirely to the study of wisdom ; and, leaving the city of Cu¬ res, confined himself to the country, wandering from soli¬ tude to solitude, in search only of those woods and foun¬ tains which religion had consecrated. His recluse life gave rise to the fable, which was very early received amongst the Sabines, that Numa lived in familiarity with the nymph Egeria. Upon the death of Romulus, both the senate and people strongly solicited him to become their king. They despatched Julius Proculus and Valerius Volesus, two se¬ nators of distinction, to acquaint Numa with their resolu¬ tion, and make him an offer of the kingdom. The Sabine philosopher at first rejected their proposal; but being at last prevailed upon by the arguments and entreaties of the deputies, joined with those of his father, and of Martins his near relation, he at length yielded, and having offered sa¬ crifices to the gods, set out for Rome, where he was re¬ ceived by all ranks of people with loud shouts of joy. After a reign of forty-two years, during which he had given every possible encouragement to the useful arts, and in which he had cultivated peace, Numa died in the year of Rome 82. Not only the Romans, but also the neighbour¬ ing nations, were eager to pay respect to the memory of a monarch whom they revered for his abilities, moderation, and humanity. He forbade his body to be burned, accord¬ ing to the custom of the Romans, and ordered it to be bu¬ ried near Mount Janiculum, along with many of the books which he had written. These books were accidentally found by one of the Romans, about four hundred years after his death ; and as they contained nothing new or in¬ teresting, but merely the reasons why he had made inno¬ vations in the form of worship and in the religion of the Romans, they were burned by order of the senate. NUMAN 1IA, a very noble city, the ornament of the ither Spain, and celebrated for the long war of twenty yeais which it maintained against the Romans. The base¬ ness and injustice of the Romans during this war were tru y disgraceful to them, and altogether unworthy of a great and powerful people. The inhabitants obtained some advantages over the Roman forces, till Scipio Africanus was empowered to finish the war, and to effect the destruc- lon of Numantia. He began the siege with an army of y jbousand men, and was bravely opposed by the be- legec, who were no more than four thousand men able to ear arms. Both armies behaved with uncommon valour, to tl ^ courage the Numantines was soon changed in- tlip 'r iU1^ 0i c*esPa'r> Their provisions began to fail, and tint ^ l^)l?n ^le flesh of their horses, and afterw’ards upon )• ,0(t th.eir dead companions; but at last they were ob- i mP\Vl , W lotS t0 kil1 and devour one another. The rendoiM10 J S1ltuat'0n their affairs obliged them to sur- liver t'h ° .1Ci ^oman general. Scipio required them to de- whpn ves. UP on the morrow; but they refused, and onger time had been granted to their petitions, N U M 299 they retired, and having set fire to their houses, destroyed Number, themselves, so that not even one remained to adorn the ti uimph of the conqueror. Some historians, however, deny this, asserting that a number of Numantinesdelivered them¬ selves into Scipio s hands, and that fifty of them were diawn in triumph at Rome, the rest being sold as slaves. The fall of Numantia was more glorious than that of Car¬ thage or Corinth, though the place was much inferior to either. It wms taken by the Romans 629 a. u. c. ; and the conqueror obtained the surname oi Numanticus. ’ NUMBER, an assemblage of several units, or things of the same kind. Number is either abstract or applicate ; abstract, when referred to things in general, without at¬ tending to their particular properties ; and applicate, when considered as the number of a particular sort of things, as yards, trees, or the like. When particular things are men¬ tioned, there is alwmys something more considered than barely their numbers; so that what is true of numbers in the abstract, or when nothing but the number of things is considered, will not be true when the question is limited to particular things. lor instance, the number two is less than three, yet two yards is a greater quantity than three inches; and the reason is, because regard must be had to their different natures as well as number, whenever things of a different species are considered; for although we can compare the number of such things abstractedly, yet we cannot compare them in any applicate sense. And this dif¬ ference is necessary to be considered, because upon it the true sense, and the possibility or impossibility, of some questions depend. Number is unlimited in respect of in¬ crease ; because we can never conceive a number so great but there is still a greater. However, in respect of de- ciease, it is limited ; unity being the first and least num¬ ber, below which, therefore, it cannot descend. Mathematicians, considering number under a great many relations, have established the following distinctions. Bro¬ ken numbeis are the same with fractions. Cardinal num¬ bers are those which express the quantity of units, as 1, 2, 3, 4, &c.; whereas ordinal numbers are those which ex¬ press order, as 1st, 2d, 3d, &c. Compound number is one divisible by some other number besides unity; as 12, which is divisible by 2, 3, 4, and 6. Numbers, as 12 and 15, which have some common measure besides unity, are said to be compound numbers amongst themselves. Cubic number is the product of a square number by its root; as 27, which is the product of the square number 9 by its root 3. All cubic numbers, the root of which is less than 6, being divided by 6, the remainder is the root itself. Thus 27 -L- 6 leaves the remainders, its root; 216, the cube of 6, being divided by 6, leaves no remainder; 343, the cube of 7, leaves a remainder 1, which, added to 6, is the cube root: and 512, the cube of 8, divided by 6, leaves a remainder 2, which, added to 6, is the cube root. Hence the remainders of the divisions of the cubes above 216, divided by 6, being added to 6, always give the root of the cube so divided till that remainder be 5, and con¬ sequently 11, the cube root of the number divided. But the cubic numbers above this being divided by 6, there remains nothing, the cube root being 12. Thus the re¬ mainders of the higher cubes are to be added to 12, and not to 6, till you come to 18, when the remainder of the division^ must be added to 18 ; and so on in infinitum. Determinate number is that referred to some given unit, as a ternary or three; whereas an indeterminate one is that referred to unity in general, and is called quantity. Homogeneal numbers are those referred to the same unit; as those referred to different units are termed heterogeneal. \\ hole numbers are otherwise called integers. Rational number is one commensurable with unity; as a number incommensurable with unity is termed irrational, ox & surd. In the same manner, a rational whole number is that of 1 300 N U M N U M Number, which unity is an aliquot part; a rational broken number, that equal to some aliquot part of unity; and a rational mixed number, that consisting of a whole number and a broken one. Even number is that which may be divided into two equal parts without any fraction, as 6, 12, &c. The sum, difference, and product, of any number of even numbers, is always an even number. An evenly even number is that which may be measured, or divided, with¬ out any remainder, by another even number, as 4 by 2 , an unevenly even number, when a number may be equally divided by an uneven number, as 20 by 5 ; uneven num¬ ber, that which exceeds an even number, at least by unity, or which cannot be divided into two equal parts, as 3, o, &c. The sum or difference of two uneven numbers makes an even number ; but the factum of two uneven ones makes an uneven number. If an even number be added to an un¬ even one, or if the one be subtracted from the other, in the former case the sum, in the latter the difference, is an uneven number; but the factum of an even and uneven number is even. The sum of any even number of uneven numbers is an even number ; and the sum of any uneven number of uneven numbers is an uneven number. Primitive or prime numbers are those divisible only by unity, as 5, 7, &c.; and prime numbers amongst them¬ selves are those which have no common measure besides unity, as 12 and 19. Perfect number is that the aliquot parts of which added together make the whole number, as 6, 28; the aliquot parts of 6 being 3, 2, and 1, _ 6 ; and those of 28, being 14, 7, 4, 2, 1, = 28. Imperfect num¬ bers are those the aliquot parts of which added together make either more or less than the whole, and these are distinguished into abundant and defective. An instance in the former case is 12, the aliquot parts of which, 6, , 3, 2, 1, make 16; and in the latter case 16, the aliquot parts of which 8, 4, 2, and 1, make but 15. Plane num¬ ber is that arising from the multiplication of two numbers, as 6, which is the product of 3 by 2; and these numbers are called the sides of the plane. Square number is the product of any number multiplied by itself; thus 4, which is the factum of 2 by 2, is a square number. An even square number added to its root makes an even number. Figurate numbers are such as represent some geome¬ trical figure, in relation to which they are always consi¬ dered ; as triangular, pentagonal, and pyramidal numbeis. Figurate numbers are distinguished into orders, according to their place in the scale of their generation, being all , produced one from another, viz. by adding continually the terms of any one, the successive sums are the terms of the next order, beginning from the first order, which is that ot equal units, 1, 1,1,1, &c.; then the second order consists ot the successive sums of those of the first order, forming the arithmetical progression 1, 2, 3, 4, &c. ; those of the third order are the successive sums of those of the second, and are the triangular numbers 1, 3, 6, 10, 15, &c.; those of the fourth order are the successive sums of those ot the third, and are the pyramidal numbers 1, 4, 10, 20, 35, &c.; and so on, as below : gular numbers, being formed from an arithmetical progres- Nun^ sion the common difference of which is 1. But if thatv>“,Y common difference be 2, the successive sums will be the series of square numbers ; if it be 3, the sei ies will be pen¬ tagonal numbers, or pentagons; if it be 4, the series will be^hexagonal numbers, or hexagons ; and so on. Thus: | „ -r, , Second Sums, or Arithmetical, h irst Sums, or Fo1ygons- jsecon(] Polygons. 1,2,3, 4 1,3,5, 7 1, 4, 7, 10 1, 5, 9, 13 &c. Tri. 1, 3, 6, 10 Sqrs. 1,4, 9, 16 Pent. 1, 5, 12, 22 Hex. 1, 6, 15, 28 1, 4, 10, 20 1, 5, 14, 30 1, 6, 18, 40 1, 7, 22, 50 The reason of the names, triangles, squares, pentagons, hexagons, and the like, is, that those numbers may be placed in the form of these regular figures or polygons. But the figurate numbers of any order may also be found without computing those of the preceding orders; which is done by taking the successive products of as many of the terms of the arithmeticals, 1, 2, 3, 4, 5, drc. in their natural order, as there are units in the number which de¬ nominates the order of figurates required, and dividing these products always by the first product. Ihus trie tri¬ angular numbers are found by dividing the products 1X2, 2 X 3, 3 X 4, 4 X 5, &c. each by the first product 1 X 2; the first pyramids by dividing the products 1 X 2 X 3, 2X3 X 4, 3 X 4 X 5, &c. by the first 1X2X3. And, in ge¬ neral, the figurate numbers of any order rc, are found by substituting successively 1, 2, 3, 4, 5, &c. instead of x x' x + 1 • a: + 2 • a- + 3 • &c. in this general expression y-;—^ &c.’ where the factors in the numerator and denominator are supposed to be multiplied together, and to be continued till the number in each be less by 1 than that which expresses the order of the figurates required.1 . Polygonal or polygonous numbers are the sumsot arith¬ metical progressions beginning with unity, and these, where the common difference is 1, are called triangular numbers; where it is 2, square numbers ; where it is 3, pentagona numbers ; where it is 4, hexagonal numbers ; where it is 5, heptaqonal numbers, &c. Pyramidal numbers, the sums of polygonous numbers, collected after the same manner as the polygons themselves, and not gathered out of arithme¬ tical progressions, are called/rvrtpyramidal numbers; and the sums of the first pyramidals are called secondpyrami- dais, &c. If they arise out of triangular numbers, they are called triangular pyramidal numbers; and if out of penta¬ gons, first pentagonal pyramidals. From the manner ot summing up polygonal numbers, it is easy to conceive iovv the prime pyramidal numbers are found, ihe tormina (a — 2) rc3 + 3 n3 — (a — 5^ expresses an the prime Order. 1. 2. 3. 4. 5. 6. 7. Names. Equals, Arithmeticals, Triangulars, Pyramidals, Second Pyramidals, Third Pyramidals, Fourth Pyramidals, Numbers. 1, 1, 1, 1, 1,2, 3, 4, 1, 3, 6, 10, 1, 4, 10, 20, 1, 5, 15, 35, 1, 6, 21, 56, 126, &c. 1, 7, 28, 84, 210, &c. 1, &c. 5, &c. 15, &c. 35, &c. 70, &c. The above are all considered as different sorts ot trian- pyramidals. . , " The number 9 has a very curious property, its proctuc always composing either 9 or some lesser producttheiet’' If our limits permitted us, we could instance in a va . ^ of other numbers properties both curious and sVrPris, ^ Such speculations are indeed by some men consider trifling and useless. But perhaps they judge too hast for few employments are more innocent, none more g ous, nor, to those who have a taste for them, more am g Numbers were by the Jews, as well as the ancient b fen r « • onfi where J See Maclaurin’s Fluxions, art. 351, in the notes ; also Simpson’s Algebra, “ also be con- subject of figurates is treated in a very extensive and perspicuous manner. Hutton s iMatliemaucai ^ suited. N U M N U M 301 mltrs I! m tt and Romans, expressed by means of letters of the alphabet. Hence we may conceive how imperfect and limited their arithmetic was ; because the letters could not be arranged in a series, or in different lines, conveniently enough for the purposes of ready calculation. The invention of the ciphers, or arithmetical figures, which we now make use of, has given us in this respect a very great advantage over the ancients ; to say nothing of that which is derived from these figures having a value in position. See Arithmetic. The letters chiefly employed by the Romans to express numbers were, M for 1000, D for 500, C for 100, L for 50, V for 5, X for 10, and I for one. M probably signi¬ fies 1000, because it is the initial of milk; D stands for 500, because it is dimidium milk ; C signifies 100, as be¬ ing the first letter of the word centum; L stands for 50, because it is the half of C, having formerly been written thus, L ; V signifies 5, because V is the half of X, which stands for 10 ; I stands for one, because it is the first let¬ ter of initium. These, however, are fanciful derivations, and an explanation more accordant with philosophical prin¬ ciples has been given in the article Arithmetic. See also Numeral Letters. The Jewish cabbalists, the Grecian conjurors, and the Roman augurs, had a great veneration for particular num¬ bers, and the result of particular combinations of numbers. Thus three, four, six, seven, nine, ten, were full of divine mysteries, and of great efficacy. Numbers, \n Poetry and Oratory, are certain measures, proportions, or cadences, which render a verse, period, or song agreeable to the ear. Poetical numbers consist in a certain harmony in the or¬ der, quantities, and adjustment of the feet and syllables which render the piece musical to the ear, and capable of being sung, for which all the verses of the ancients were intended. It is of these numbers Virgil speaks in his ninth Eclogue, when he makes Lycidas say, Numeros memini, si verba tenerem ; meaning, that although he had forgotten the words of the verses, yet he remembered the feet and measure of which they were composed. Rhetorical or prosaic numbers are a sort of simple unaf¬ fected harmony, less glaring than that of verse, but such as is perceived and affects the mind with pleasure. Booh of Numbers, the fourth book of the Pentateuch, taking its denomination from the numbering of the fami¬ lies ot Israel. A part of this book is historical, relating to several remarkable passages in the march of the Israelites through the wilderness. It contains a distinct relation of their several movements from one place to another, or their forty-two stages through the wilderness, and many other things, by which we are instructed and confirmed in some of the most weighty truths which have immediate refer¬ ence to God and his providence in the vcorld. But the greater part of this book is occupied in enumerating those laws and ordinances, w’hether civil or ceremonial, which were given by God, but not mentioned before in the pre¬ ceding books. NUMERAL Letters are those letters of the alpha¬ bet which are generally used for figures, as I, one ; V, five ; V, ten; L, fifty; C, a hundred; D, five hundred ; M, a thousand; and soon. It is not agreed how the Roman nu¬ merals originally received their value. It has been sup- Flo’ 38 We ^ave ^served in the article Number, that tie Romans used M to denote 1000, because it is the first tetter of milk, which is the Latin word for 1000 ; and C o t enote 100, because it is the first letter of centum, which m atm means 100. It has also been supposed that D, emg ormed by dividing the old M in the middle, was asT M aPPointed t0 stand for 500, that is, half as much h ifp1 s^°od for when it was whole ; and that L being to F ’ ?n£PnaPy written C, was for the same reason used enommate fifty. But what reason is there to suppose that 1000 and 100 were the numbers which letters were first Numera- used to express ? And what reason can be assigned why D, Boo¬ the first letter in the Latin word decern, ten, should not ra-s^~v-^' ther have been chosen to stand for that number than for 500, because it had a rude resemblance to half an M ? But if these questions could be satisfactorily answered, there are other numeral letters which have never yet been ac¬ counted for at all. Ihese considerations render it proba¬ ble that the Romans did not, in their original intention, employ letters to express numbers at all. The most natu¬ ral account of the matter seems to be this: The Romans probably put down a single stroke, I, for one, as is still the practice of those who score upon a slate or with chalk. This stroke, I, they doubled, trebled, and quadrupled, to express 2, 3, and 4; thus, II., III., IIII. So far they could easily number the strokes with a glance of the eye. But they presently found that if more were added it would soon be necessary to tell the strokes one by one. For this reason, then, when they came to 5, they expressed it by joining two strokes together in an acute angle, thus, V ; which will appear the more probable, if it be considered that the pro¬ gression of the Roman numbers is from 5 to 5, that is, from the fingers on one hand to the fingers on the other. Ovid has touched upon the original of this in his Fasti (lib. iii.), and Vitruvius has made a similar remark. After they had made this acute angle V for five, they added the single strokes to it to the number of four, thus VI., V1L, VIII., VIIIL, and then, as the strokes could not be further multiplied without confusion, they doubled their acute angle by prolonging the two lines beyond their in¬ tersection, thus, X, to denote two fives, or ten. After this they doubled, trebled, and quadrupled this double acute angle thus, XX., XXX., XXXX.; they then, for the same reason which induced them first to make a single and then to double it, joined two single strokes in another form, and instead of an acute angle, made a right angle, L, to de¬ note fifty. When this fifty was doubled, they then dou¬ bled the right angle thus, E, to denote 100; and having numbered this double right angle four times, thus, CC, LLL, CCCC, when they came to the fifth number, as before, they reverted it, and put a single stroke before it thus ID, to denote 500; and when this 500 was doubled, then they also doubled their double right angle, setting two double right angles opposite to each other, with a single stroke between them, thus, r.n, to denote 1000. When this note for 1000 had been four times repeated, then they put down IDD for 5000, CCIdd for 10,000, and ODD for 50,000, and CCLIDDD for 100,000, IDDDD for 500,000, and CCCOdddd for one million. That the Romans did not originally write M for 1000, and C for 100, but square characters, as they are repre¬ sented above, we are expressly informed by Paulus Ma- nutius ; but the corners of the angles being cut off by the transcribers for despatch, these figures were gradually brought into what are now numeral letters. When the corners of Eli were made round, it stood thus CI3, which is so near the Gothic at, that it soon deviated into that letter; so ID having the corners rounded, stood thus, ID, and then easily deviated into D. L also became a plain C by the same means ; the single rectangle which denot¬ ed fifty was, without alteration, a capital L; the double acute angle was an X ; the single acute angle a V conso¬ nant ; and a plain single stroke the letter I; and thus these seven letters, M, D, C, L, X, V, I, became numerals. Numeral Characters of the Arabs are those figures which are now used in all the operations of arithmetic in every nation in Europe. See the article Arithmetic. NUMERAllON, or Notation, in Arithmetic, the art of expressing in characters any number proposed in words, or of expressing in words any number proposed in charac¬ ters. See Arithmetic. 302 N U M Numerical NUMERICAL, Numerous, or Numeral, somethingre- II lating to numbers ; thus Numerical Algebra is that which Unild 1 *1 * * 1 - 4. „ ^ £ 1 /-i♦ rw+c* r~\U O 1 tl Mp* t". latino lu iiuiuucio 9 o- iiii. makes use of numbers instead of letters of the alphabet. Numerical difference is also that by which one man is dis¬ tinguished from another. Hence a thing is said to be nu¬ merically the same, when it is so in the strictest sense ot the word. „ . „. , . . NUMIDIA, an ancient kingdom of Africa, bounded on the north by the Mediterranean Sea; on the south by Gse- tulia, or part of Libya Interior; on the west by the Mu- lucha, a river which separated it from Mauritania ; and on the east by the Tusca, another river which formed its con¬ terminous boundary with Africa Propria. . This country included two divisions, one inhabited by the Massuli, and the other by the Masseesyli; the country of the latter being also called in after times Mauritania Cce- sariensis, and that of the former Numidia Propria. The country of the Massyli, or, as some call it, 7erra Metago¬ nitis, was separated from the territory of Carthage by its eastern boundary the river Tusca, and from the kingdom of the Masssesyli, or Mauritania Csesanensis, by the river Amnsaga; and it seems to have corresponded with that part of the province of Constantina lying between the Za.ne and the Wed al Kebeer, which is above 130 miles in length, and more than 100 in breadth. The sea-coast of this pio- vince is for the most part mountainous and rocky, answer¬ ing to the appellation given to it by Abulfeda, who calls it El Edwaa, the high or lofty. It is far from being equa in extent to the ancient country of the Massaesyh, which, however, Strabo informs us, was inferior to the country o the Massyli. Its capital was Cirta, a place of very consi¬ derable note amongst the ancients. , Several learned writers have supposed that the tract ex¬ tending from the isthmus of Suez to the lake Tntonis was chiefly peopled by the descendants ot Mizraim, and that the posterity of his brother Put, or Phut, spread them¬ selves all over the country between that lake and the Atlantic Ocean. And to this notion Herodotus gives some countenance ; for he tells us that the pbyan Nomades, whose territories to the west were bounded by the 1 nton, agreed in their customs and manners with the Egyptia is, but that the Africans, from that river to the Atlantic Ocean, differed from them in almost all points. It0 fcmy mentions a city called Putea, near Adrametum, and Pliny a river of Mauritania Tingitana, known by the name ot Put, or Phut; and the district adjacent to this river was called Regio Phutensis, which plainly involves in it the name of Phut. That word signifies scattered or dispersed , a this agrees very well with what Mela and Strabo iclate of the ancient Numidians; so that we may, without any scruple, admit the aborigines of this country to have been the descendants of Phut. The history of Numidia, during many of the early ages, is buried in oblivion. It is probable, however, that as the Phoenicians were masters of a great part of the country, their transactions had been recorded and were generally known to the Carthaginians. King Jarbas probably reignt here as well as in Africa Propria, it not in Mauritania and other parts of Libya, when Dido began to build Byrsa It appears from Justin, that about the age of Herodotus the people of this country were called both Africans or Lib¬ yans, and Numidians. Justin likewise intimates, that about this time the Carthaginians vanquished both the Moors or Mauritanians and the Numidians; in consequence of which they were excused from paying the tribute which had hi¬ therto been demanded of them. , . „. After the conclusion of the first Punic war, the African troops carried on a sanguinary contest against their mas¬ ters the Carthaginians ; and the most active in this rebel¬ lion, according to Diodorus Siculus, were a part of the Numidian nation named Micatanians. ibis so incensed N U M the Carthaginians, that after Hamilcar had either killed or Numi; taken prisoners all the mercenaries, he sent a large de- tachment to ravage the country of those Numidians; and the commandant of that detachment executed his orders with the utmost cruelty, plundering the district in a ter¬ rible manner, and crucifying, without distinction, all the prisoners who fell into his hands. This filled the rest with such indignation and resentment, that both they and their posterity ever afterwards cherished an implacable hatred to the Carthaginians. In the time of the second Punic war, Syphax, king of the Masssesyli, having entered into an alliance with the Romans, gave the Carthaginians a considerable defeat. This induced Gala, king of the Massyli, to conclude a treaty with the Carthaginians, in consequence ot which his son Masinissa marched at the head of a powerful army to give Syphax battle. The contest ended in favour of Mask nissa; thirty thousand of the Massaesyli were put to the sword, and Syphax driven into Mauritania; and a similar reverse attended Syphax in another engagement, where his troops were entirely defeated and dispersed. Gala having died whilst his son Masinissa was acting at the head of the Numidian troops sent to the assistance of the Carthaginians in Spain, his brother Desalces, accord¬ ing to the established rules of succession in Numidia, took possession of the Massylian throne. That prince, however, died soon after his succession, and Capusa his eldest son succeeded him. But he did not long enjoy his high dig¬ nity ; for one Mezetulus, a person of the royal blood, but an enemy to the family of Gala, found means to excite a great part of his subjects to revolt. A battle soon took place between him and Capusa, in which the latter was slain with many of the nobility, and his army entirely de¬ feated. But though Mezetulus thus became possessed ot the sovereignty, he did not think proper to assume the title of kino-, and only styled himself guardian to Lacumaces, the surviving son of Desalces, whom he graced with the royal title. To support himself in his usurpation, he mar¬ ried the widow of Desalces, who was Hannibal’s niece, and consequently of the most powerful family in Carthage; and in order to attain the same end, he sent ambassadors to Syphax, to conclude a treaty of alliance with him In the mean time, Masinissa, having received advice of his uncle’s death, of his cousin’s slaughter, and of Mezetuluss usurpation, immediately passed over to Africa, and went to the court of Bocchar king of Mauritania to sohat suc¬ cours. Bocchar, sensible of the great injustice which had been done Masinissa, gave him a body of four thousand Moors to escort him to his dominions; and his subjects, being apprised of his approach, joined him upon the fron¬ tiers with a party of five hundred men. I he Moors, n pursuance of their orders, returned home as soon as Mas - Lsa reached the contiaes of his kingdom; notmths. n - ing winch, and the small body that declared for him, ini accidentally met Lacumaces at Thapsus, with an escort going to implore the assistance of Syphax he ^ hm into the town, which he carried by assault after fa« resistance. Lacumaces, however, with many of his mm found means to escape to Syphax. _ 1 he fame <5 ploit gained Masinissa great credit, insomuch that the - midians flocked to him from all parts, and among ^ rest many of his father Gala’s veterans, who Pie * to make a speedy and vigorous effort to .^cover lus^ ditary dominions. Lacumaces having jm x hadcre* with a reinforcement of Massaesylians, which he 1 vailed upon Syphax to send to the assistance o s ^ the usurper advanced at the head of a numero offer Masinissa battle, which that pm.ce, a‘t''° / tac. inferior in numbers, did not decline. Arieng^el^|| J'f cordingly ensued, and, notwithstanding the ine(l numbers, it ended in the defeat of Lacumaces. ^ N U M I D I A. 303 Nu ilia. mediate consequence of this victory of Masinissa was the quiet and peaceable possession of his kingdom ; Mezetulus and Lacumaces, with a few that attended them, having fled into the territories of Carthage. However, being ap¬ prehensive that he should be obliged to sustain a war against Syphax, he offered to treat Lacumaces with as many marks of distinction as his father Galahad Desalces, provided that prince would put himself under his protec¬ tion. He also promised Mezetulus pardon, and the restitu¬ tion of all the property forfeited by his treasonable con¬ duct, if he would make his submission to him. Both of them readily complied with the proposal, and immedi¬ ately returned home; so that the tranquillity and repose of Numidia would have been settled upon a solid and lasting foundation, had not this been prevented by Asdru- bal, who was then at the court of Syphax. He insinuated to that prince, who was disposed to live amicably with his neighbours, “ that he was greatly mistaken if he imagined Masinissa would be satisfied with his hereditary dominions ; that he was a prince of much greater capacity and ambi¬ tion than either his father Gala, his uncle Desalces, or any of his family ; that he had discovered in Spain marks of rare and uncommon merit; and that, in fine, unless this rising flame was extinguished before it came to too great a head, both the Massaesylian and Carthaginian states would infallibly be consumed by it.” Syphax, alarmed by these suggestions, advanced with a numerous body offerees into a district which had long been a subject of dispute be¬ tween him and Gala, but was then in possession of Masi¬ nissa. Ihis brought on a general action between these two princes, wherein the latter was totally defeated, his army dispersed, and he himself obliged to fly to the top of Mount Balbus, attended by only a few of his horse. Such a decisive battle, before Masinissa had been firmly seated on his throne, could not fail to put Syphax into posses¬ sion of the kingdom of the Massyli. Masinissa, in the mean time, made nocturnal incursions from his post upon Mount Balbus, and plundered all the adjacent country, particularly that part of the Carthaginian territory conti¬ guous to Numidia. This district he not only thoroughly pillaged, but likewise laid waste with fire and sword, car¬ rying off from thence an immense booty', which was pur¬ chased of him by some merchants, who had put into one of the Carthaginian ports for that purpose. In fine, he did the Carthaginians more damage, not only by committing such dreadful devastations, but by massacring and carry¬ ing into captivity vast numbers of their subjects on this occasion, than they could have sustained in a* pitched bat¬ tle, or a whole campaign of a regular war. Syphax, at the pressing and reiterated instances of the Carthaginians, sent Bocchar, one of his most active commanders, with a de¬ tachment of four thousand foot and two thousand horse, to reduce this pestilent gang of robbers; promising him a great reward if he would bring Masinissa either alive or dead. Bocchar, having watched an opportunity, surprised theMas- syhans as they were straggling about the country without any order or discipline ; so that he took many prisoners, dispersed the rest, and pursued Masinissa himself, with a ew o his men, to the top of the mountain where he had before taken post. Considering the expedition as ended, If n°t ®n}y sent many head of cattle, and the other booty iat had fallen into his hands, to Syphax, but likewise all Wr^if’ excePt five hundred foot and two hundred horse. .* } .ls detachment he drove Masinissa from the sum- 1 o tie hill, and pursued him through several narrow passes and defiles as far as the plains of Clupea, w here he o comp etely surrounded him, that all the Massylians ex- p our were put to the sword, and Masinissa himself, after a dangerous w'ound, escaped with the ut- rivpr • * was effected by crossing a rapid i in w inch attempt tw o of his four attendants perished in the sight of the detachment that pursued him, it was ru¬ moured all over Africa that Masinissa also was drowned ; news which gave inexpressible pleasure to Syphax and the Carthaginians. For some time he lived undiscovered in a cave, where he was supported by the robberies of the two horsemen who had made their escape with him. But hav¬ ing cured his wound by the application of some medicinal herbs, he began to advance boldly towards his own fron¬ tiers, giving out publicly that he intended once more to take possession of his kingdom. In his march he wasjoin- ed by about forty horse, and, soon after his arrival amongst the Massyli, so many people flocked to him from all parts, that out of them he formed an army of six thousand foot and four thousand horse. At the head of these forces he not only reinstated himself in possession of his dominions, but likewise laid waste the borders of the Massaesyli. This so irritated Syphax, that he immediately assembled a nu¬ merous body of troops, and encamped very commodiously upon a ridge of mountains between Cirta and Hippo. His army he commanded in person, and detached his son Ver- mina, with a considerable force, to make a detour, and at¬ tack the enemy in the rear. In pursuance of his orders, Vermina set out in the beginning of the night, and took post in the place appointed, without having been discovered by the enemy. In the mean time Syphax decamped, and ad¬ vanced towards the Massyli, in order to give them battle. When he had possessed himself of a rising ground which led to their camp, and concluded that his son Vermina must have formed the ambuscade behind them, he began the fight. Masinissa being advantageously posted, and his sol¬ diers distinguishing themselves in an extraordinary manner, the dispute proved long and bloody. But Vermina having unexpectedly fallen upon their rear, and by this means obliged them to divide their forces, which were scarcely able before to oppose the main body under Syphax, they were soon thrown into confusion, and forced to betake themselves to a precipitate flight. All the avenues being blocked up, partly by Syphax, and partly by his son, such a dreadful slaughter was made of the unhappy Massylians, that only Masinissa himself, and sixty horse, escaped to the Lesser Syrtis. Here he remained, between the confines of the Carthaginians and the Garamantes, till the arrival of Laelius and the Homan fleet on the coast of Africa. By the assistance of Laelius, Masinissa at last reduced Sy- phax’s kingdom. According to Zonaras, Masinissa and Sci- pio, before the memorable battle of Zama, deprived Hanni¬ bal, by a stratagem, of some advantageous posts; which, with a solar eclipse that happened during the heat of the action, and not a little intimidated the Carthaginian troops, great¬ ly contributed to the victory obtained by the Romans. At the conclusion, therefore, of the second Punic war, he was amply rewarded by the Romans for the important services he had rendered them. As for Syphax, after the loss of his dominions, he was kept in confinement for some time at Alba; but being removed thence in order to grace Sci- pio’s triumph, he died at Tibur, in his way to Rome. Zo¬ naras adds, that his corpse was decently interred; that all the Numidian prisoners were released; and that Vermina, by the assistance of the Romans, took peaceable possession of his father’s throne. However, part of the Massaesylian kingdom had before been annexed to Masinissa’s domi¬ nions, in order to reward that prince for his singular fide¬ lity and firm attachment to the Romans. Nothing further is requisite to complete the history of this famous prince, than to exhibit some points of his con¬ duct towards the decline and at the close of life; the wise dispositions made after his death by iEmilianus for the re¬ gulation of his domestic affairs; and some particulars re¬ lating to his character, genius, and habit of body, drawn from the most celebrated Greek and Roman authors. By drawing a line of circumvallation around the Cartha- Numidia. 304 N U M I D I A. i a ? i i Tirvrm an pminpiirp IVIastJinBb&U tliG younfrGstj b&d allotted him the admini- Nuwi Numidia. ginian army under Asdrubal, poste p • ’ stration Qf justice, an employment suitable to his education.''-vl v ' Masinissa cut off all manner of supplies, and thus uitro- straUon ^ duced both the plague and famine into their camp. As the body of Numidian troops employed in this blockade was not” nearly so numerous as the Carthaginian forces, it is evident, that the line here mentioned must have been extremely strong, and consequently the effect of great labour and art. The Carthaginians, finding themselves reduced to the last extremity, concluded a peace upon the terms which Masinissa himself dictated to them, viz. 1 hat they should deliver up all deserters ; that they should recall their exiles, who had taken refuge in his dominions; that they should pay him five thousand talents of silver with¬ in the space of fifty years; and that their soldiers should pass under the yoke, each of them carrying off only a single Larment. As Masinissa himself, though between eighty and ninety years of age, conducted the whole enterprise, he must have been extremely well versed in fortification, and other branches of the military art; and he must like¬ wise have retained his understanding to the last, llns happened a short time before the commencement of the third Punic war. . AJ7. Soon afterwards, the consuls landed an army in Africa, in order to lay siege to Carthage, without imparting their design to Masinissa. This not a little chagrined him, as it was "contrary to the former practice of the Romans, who, in the preceding war, had communicated their intentions to him, and consulted him on all occasions. When, there¬ fore, the consuls applied to him for a body of his troops to act in concert with their forces, he answered, “ That they should have a reinforcement from him when they stood in need of it.” The reflection, that after he had extremely weakened the Carthaginians, and even brought them to the brink of ruin, his pretended friends should come to leap the fruits of his victory, without giving him the least in¬ telligence of their design, must have been sufficiently gall¬ ing to an old and faithful ally, who had done and suffered so much in their cause. . , i u- However, his mind soon returned to its natural bias, which was in favour of the Romans. Finding his end ap¬ proaching, he sent to fEmilianus, then a tribune m the Roman army, to desire a visit from him. VV hat he pro¬ posed by this visit, was to invest him with full powers to dispose of his kingdom and estate as he should think pro¬ per, for the benefit of his children. The high idea he had entertained of that young hero’s abilities and integrity, to¬ gether with his gratitude and affection for the family into which he was adopted, induced him to take this step. But believing that death would not permit him to have a per¬ sonal conference with Aimilianus upon this subject, he in¬ formed his wife and children, in his last moments, that he had empowered him to dispose, in an absolute manner, of all his possessions, and divide his kingdom amongst his sons; to which he subjoined, “ I require, that whatever Mm\- lianus may decree, shall be executed as punctually as i myself had appointed it by my will.” Having uttered these words, he expired, at a very advanced age. Masinissa, before his death, gave his ring to his eldest son Micipsa, but left the distribution of all his other effects and possessions amongst his children entirely to Ahnihanus. Of fifty-four sons who survived him, only three were legi¬ timate, to wit, Micipsa, Gulussa, and Mastanabal. ^.mi- lianus arrived at Cirta after he had expired, and divided his kingdom, or rather the government of it, amongst these three though to the others he gave considerable posses¬ sions.’ To Micipsa, who was a prince of a pacific disposi¬ tion, and the eldest son, he assigned Cirta, the metropolis, for the place of his residence, in exclusion of the others. Gulussa, the next to him, being a prince of military genius, had the command of the army, and the transacting of all affairs relating to peace or war, committed to his care. And sirauuu ui y' at • • They enjoyed in common the immense treasures Masinissa had amassed, and were all of them dignified by fEmilianus with the royal title. After he had made these various dis¬ positions, he departed from Cirta, taking with him a body of Numidian troops, under the conduct of Gulussa, to re¬ inforce the Roman army which was then acting against the Carthaginians. , . . . Mastanabal and Gulussa died soon after their father, as appears from the express testimony of Sallust; and we find nothing remarkable of these princes, besides what has been already related, except that the latter continued to assist the Romans in the third Punic war, and that the former was pretty well versed in the Gieek language. Mi¬ cipsa, therefore, became sole possessor of the kingdom of Numidia. In his reign, and under the consulate of M. piatius Hypsseus and M. fulvius Flaccus, according to Orosius, a great part of Africa was covered with locusts, which destroyed all the produce of the earth, and even de¬ voured dry wood. But at last they were all carried by the wind into the African Sea, out of which being thrown in vast heaps upon the shore, a plague ensued, which swept away an infinite number of animals of all kinds. In rsu- midia alone eight hundred thousand men perished, and in Africa Propria two hundred thousand, including thirty thousand Roman soldiers quartered in and about Utica for the defence of the province. At Utica, in particular, the mortality raged to such a degree, that fifteen hundred dead bodies were carried out at one gate in a day. Mi¬ cipsa had two sons, Adherbal and Hiempsal, whom he edu¬ cated in his palace, together with his nephew Jugurtha. That young prince was the son of Mastanabal; but his mother having been only a concubine, Masinissa had taken no oreat notice of him. However, Micipsa considering him as a prince of the blood, took as much care of him as he did of his own children. . Jugurtha possessed several eminentquahties, which gain¬ ed him universal esteem. He was very handsome, endowed with great strength of body, and adorned with the finest intellectual endowments. He did not devote himself, as young men commonly do, to a life of luxury and pleasure. He used to exercise himself, with persons of his own age, m running, riding, hurling the javelin, and other manly exer¬ cises, suited to the martial genius of the Numidians; and although he surpassed all his fellow sportsmen, there was not one of them but loved him. The chase was his only delight; but it was that of lions and other savage beasts. Sallust, to finish the picture of his character, tel s us, that he excelled in all things, and spoke very little of himself. So conspicuous an assemblage of fine talents and per¬ fections at first charmed Micipsa, who thought them mi ornament to his kingdom. However, he soon began o reflect that he was considerably advanced in years, and his children in their infancy; that mankind naturally tlnnt- ed after power, and that nothing was capable of making men run greater lengths than a vicious and unlimited am¬ bition. These reflections soon excited his jealousy, determined him to expose Jugurtha to a variety of dai- gers, some of which, he hoped might prove fatal to the aspiring youth. With this view he gave J ugurtha the com mand of a body of forces which he sent to assist the mans, who were at that time besieging Numant.a in bp But Jugurtha, by his admirable conduct, not only all thos? dangers, but likewise won the esteem ol the »h* army, and the friendship of Scipio, who sent a ^‘g ‘ j racter of him to his uncle Micipsa. However, that g gave him some prudent advice in relation to his bi. duct; observing in him, no doubt, certain spar ht tion, which, if lighted into a flame, he apprehende g one day be productive of the most fatal consequen fumi W N U M I D I A. Before this last expedition, Micipsa had endeavoured to ’'find out some method of taking him off privately ; but the popularity of Jugurtha amongst the Numidians obliged that prince to lay aside all thoughts of this kind. After his re¬ turn from Spain the whole nation almost adored him. The heroic bravery he had shown there; his undaunted courage, joined to the utmost calmness of mind, which enabled him to preserve a just medium between a timorous foresight and an impetuous rashness, a circumstance rarely to be met with in persons of his age ; and, above all, the advantage¬ ous testimonials of his conduct given by Scipio, attracted universal esteem. Nay, Micipsa himself, charmed with the high opinion which the Roman general had entertained of his merit, changed his behaviour towards him ; resolving, if possible, to win his affection by kindness. He therefore adopted him, and declared him joint heir with his two sons to the crown. Some few years afterwards, finding that his end approached, he sent for all the three to his bed side, where, in the presence of the whole court, he desired Jugurtha to recollect with what extreme tender¬ ness he had treated him, and consequently to consider how well he had deserved at his hands. He then entreat¬ ed him to protect on all occasions his children, who, being before related to him by the ties of blood, were now by their father’s bounty become his brethren. In order to fix him the more firmly in their interest, he likewise com¬ plimented him upon his bravery, address, and consummate prudence. He further insinuated, that neither arms nor treasures constitute the strength of a kingdom ; but friends, who are neither won by arms nor gold, but by real ser¬ vices and an inviolable fidelity. “ Now,” continued he, “ where can we find better friends than in brothers ? And how can that man who becomes an enemy to his relations repose any confidence in or place dependence on strangers?” Then addressing himself to Adherbal and Hiempsal, “ And you,’ said he, “ I enjoin to pay always the highest reve¬ rence to Jugurtha. Endeavour to imitate, and if possible surpass, his exalted merit, that the world may not here¬ after observe Micipsa s adopted son to have reflected greater glory upon his memory than his own children.” boon afterwards, Micipsa, who, according to Diodorus, was a prince of an amiable character, expired. Though Jugur- I tha did not believe that the king spoke his real sentiments in regard to him, yet he seemed extremely pleased with so gracious a speech, and made him an answer suitable to the occasion. However, that prince at the same time deter¬ mined within himself to put in execution the scheme he ad formed at the siege of Numantia, and which had been suggested to him by some factious and abandoned Roman omcers, with whom he there contracted an acquaintance, ine purport of this scheme was, that he should extort the crown by force from his two cousins, as soon as their fa¬ ther s eyes were closed; which, they insinuated, might easi- y be effected by means of his own valour, and the venality ot the Romans. Accordingly, a short time after the old "ig» death, he found means to assassinate Hiempsal in e city of Ihirmida, where his treasures were deposited, • 0 nve-^herbal out of his dominions. That unhappy P ce ound himself obliged to fly to Rome, where he en- nn!rlTe u t0 enga?e the conscriPt fathers to espouse his notwithstanding the evident justice of his i. not virtue enough effectually to support him. ipv Q aS airi^assa^ors> by distributing vast sums of mo- i n-le senators> brought them so far over that ^ ri y palliated his inhuman proceedings. This en- agcd the usurper’s ministers to declare that Hiempsal neen ki pf hv rlio . /-i • r 305 nr) 1 :11 , . ^ uuuisiers ro cieciare tnat liiempsaf live ‘ by the Numidians on account of his exces- rouhlp-6. ^ ’i i at Adherbal was the aggressor in the late mt mnU3,? i 1 ^e,'vas only chagrined because he could voulrl wiir ^ lavock amongst his countrymen which he vol. xv? ^ 13Ve done’ -^ey therefore entreated the senate to form a judgment of Jugurtha’s behaviour in Af- Numidia. rica from his conduct at Numantia, rather than from the sug?estions of his enemies; upon which, by far the greater part of the senate discovered that they were prejudiced in his favour. A few, however, who were not lost to honour nor abandoned to corruption, insisted upon bringing him to condign punishment. But as they could not prevail, Ju¬ gurtha had the best part of Numidia allotted him, and Ad¬ herbal was forced to rest satisfied with the other. Jugurtha, finding now by experience that every thing was venal at Rome, as his friends at Numantia had before informed him, thought he might pursue his towering pro¬ jects without meeting any obstruction from that quarter. He, therefore, immediately after the final division of Mi- cipsa’s dominions, threw off the mask, and attacked his cousin by open force. As Adherbal was a prince of a pa¬ cific disposition, and almost in all respects the reverse of Jugurtha, he was by no means a match for him. The latter therefore pillaged the territories of the former, stormed se¬ veral of his fortresses, and overran a good part of his king¬ dom, without opposition. Adherbal, depending upon the friendship of the Romans, which his father in his last mo¬ ments had assured him would be a stronger support to him than all the troops and treasures in the universe, despatched deputies to Rome to complain of these hostilities. But whilst he lost valuable time in sending thither fruitless de¬ putations, Jugurtha overthrew him in a pitched battle, and soon afterwards shut him up in Cirta. During the siege of this city, a Roman commission arrived there, in order to per¬ suade both parties to come to an accommodation; but find¬ ing Jugurtha untractable, the commissioners returned home without so much as conferring with Adherbal. A second deputation, composed of senators of the highest distinc¬ tion, with iEmilius Scaurus, president of the senate, at their head, landed some time afterwards at Utica, and summoned Jugurtha to appear before them. That prince at first seemed to be under dreadful apprehensions, espe¬ cially as Scaurus reproached him with his enormous crimes, and threatened him with the resentment of the Romans if he did not immediately raise the siege of Cirta. However, the Numidian, by his address, and the irresistible power of gold, as was afterwards suspected at Rome, so mollified Scaurus that he left Adherbal at his mercy. In fine, Ju¬ gurtha had Cirta at last surrendered to him, upon the con¬ dition only that he should spare the life of Adherbal. But the merciless tyrant, in violation of the laws of nature and humanity as well as the capitulation, when he had got pos¬ session of the town, ordered him to be put to a most cruel death. The merchants, likewise, and all the Numidians in the place capable of bearing arms, he caused to be put to the sword without distinction. Every person at Rome inspired with any sentiment of humanity was stricken with horror at the news of this tra¬ gical event. However, all the venal senators still concur¬ red with Jugurtha’s ministers in palliating his enormous crimes ; notwithstanding which, the people, excited there¬ to by Caius Memmius their tribune, who bitterly inveigh¬ ed against the venality of the senate, resolved not to let so flagrant an instance of villany go unpunished. This dis¬ position in them induced the conscript fathers likewise to declare their intention to chastise Jugurtha. For this pur¬ pose, an army was levied to invade Numidia, and the com¬ mand of it given to the consul Calpurnius Bestia, a person of good abilities, but rendered unfit for the expedition he was to be employed on by his insatiable avarice. Jugurtha being informed of the great preparations making at Rome to attack his dominions, sent his son thither in hopes of averting the impending storm. The young prince was plen¬ tifully supplied with money, which he had orders to distri¬ bute liberally amongst the leading men. But Bestia, pro¬ posing to himself great advantages from an invasion of Nu- 2 Q 306 N U M I D I A. and occasioned a prosecution of the gudty senators, which was carried on, for some time, with the utmost heat and violence. Lucius Metellus, the consul, during these trans¬ actions, had Numidia assigned him as his province, and consequently was appointed general of the army des¬ tined to act against Jugurtha. As he perfectly disregard¬ ed wealth, the Numidian found him superior to all his temptations; and to this contempt of money he joined all the other virtues which constitute the great captain, so that Jugurtha found him in all respects inaccessible. That prince, therefore, was now forced to regulate his conduct with the greatest caution, according to the mo- tions of Metellus ; and to exert his utmost bravery, in order to compensate for that expedient, hitherto so fa¬ vourable, which now began to fail him. Marius, Metellus s lieutenant, being likewise a person of uncommon merit, the 'ordering him and his attendants to leave Italy in ten days, unless they were come to deliver up the king himself, and all his territories, to the republic, by way of surrender ; which decree being notified to them, they returned without so much as having entered the gates of Rome, and the con¬ sul soon afterwards landed with a powerful army in Africa. For some time he carried on the war there very briskly, and having reduced several strongholds, took many Numidians prisoners. But upon the arrival of Scaurus, a peace was granted to Jugurtha upon advantageous terms. I hat prince having come from Vacca, the place of his residence, to the Roman camp, in order to confer with Bestia and Scaurus, the preliminaries of the treaty were immediately after set¬ tled between them in private conferences ; and every bo y at Rome was convinced that the prince of the senate and the consul had sacriliced the republic to their avarice. V&i'.na opulent city, ud d» The indignation of the people, therefore, displayed itself ”rC“ Nu” lidia. ^hey also defeated in the strongest manner. Memnnus also Bred them wuh . overthrew Bomilcar, one of his speeches ; and it was oonsoquentij ieso-.e ^ sp ^ ^ era|Sj u‘ ,|ie ban|iS 0f the Mutlmllus; and, in the praetor Cassius, a person they cou ’ , fine forced the Nuinidian monarch to take shelter in a midia, to prevail upon Jugurtha 10 “ "" ’ , ’ rendered almost inaccessible by the rocks and woods they might learn from the king himself which ot tlieir gene piace reuucicci a j IT ^ raL and senators had been seduced by the pestilent influ¬ ence of corruption. Upon his arrival there, Jugurtha found means to bribe one Baebius Salca, a man of great authority amongst the plebeians, but of insatiable avarice, by whose assistance he escaped with impunity. Nay, by the em- cacy of gold, he not only eluded all the endeavours oi the people of Rome to bring him to justice, but likewise en¬ abled Bomilcar, one of his attendants, to get Massiva an u- ^-‘-“‘^“Xhismost opulent cities plunder- illegitimate son of Micipsa, assassinated in les r s ^ }i fortresses reduced, his towns burned, and vast num- Rome. That young prince was advised by many Romans Ins fortiesses^e ^ ^ ^ ^ taken pri80ner8( of probity, wellwishers to the family of Masimssa, PP y j . k e fousiy 0f coming to an accommodation for the kingdom of Numidia; winch having come to the began to ^^f ni/faveurife, Bomilcar, in whom he concluded with him by Bestia and Scaurus. Soon after¬ wards, the consul Albinus transported a Roman army into Numidia, flattering himself with the hopes of reducing Ju- gurtha to reason before the evpirationoflns consulate. In .dqraftW this, however, he found himself deceived, for that c y g ^ receive farther directions, Jugurtha refused to prince, by various artifices, so amused and impose up mnlv with that order and hostilities were renewed with Sinus, that nothing of moment happened in that campaign comp y with that order, ami flosfl ^ ^ This rendered him strongly suspected of having betrayed p J t tj ho ret00k Vacca, and massacred his country, after the example of his predecessors, His brother Aulns, who succeeded him in the command of ^ the army, was still more unsuccessful; for after raising t ’ . the inhabitants with the utmost severity. siege of Suthul, where the king’s treasures were deposited, and treated the intiauitanis wu -. he marched his forces into a defile, out of which he found it impossible to extricate himself. He was therefore ob¬ liged to submit to the ignominious ceremony ot passing under the yoke, with all his men, and to quit Numidia en¬ tirely in ten days’ time, in order to deliver his troops from immediate destruction. The avaricious disposition ot the Roman commander had prompted him to besiege Suthul, the possession of which place, he imagined, would make with which it was covered. However, Jugurtha signalized himself in a surprising manner, exhibiting all that could be expected from the courage, abilities, and attention ot a consummate general, to whom despair administers, fresh Strength, and suggests new resources. But his troops could not make head against the Romans, and were again worsted by Marius, though they obliged Metellus to raise the siege of Zama. Jugurtha, therefore, finding his conn- nis eiepnanis, niuney, anno, ~ — > the main strength of his army consisted, into the hands of the Romans. Some of these last, in order to avoid the punishment due to their crime, retired to Bocchus, king of Mauritania, and enlisted into his service. But Metellus, ana ireaieu the inhabitants with the utmost seventy. About this time, one of Mastanabal’s sons, named Lauda, whom Micipsa in his will had appointed to succeed t the crown in case his two legitimate sons and Jugurt a died without issue, wrote to the senate in [avour ot j ' rius, who was then endeavouring to supplant Meteuus. That prince having his understanding impaired y dining state of health, fell a mote easy prey to e b and infamous adulation of Marius, i he Roman, soothing the possession of which place, he imagined, would make ana imamous ;as the next heirto him master of all the wealth of Jugurtha, and consequent- his vanity, assured ’ ‘ . fi d pon the ly paved the way to the scandalous convention just men- the crown he Sr killed or tioned. However, this was declared void as soon as known Numidian tin one a . f5 , t t- happen, when at Rome, from being concluded without the authority of taken ; and with an the people. The Roman troops retired into Africa 1 ropna, once he apptare f . Bomilcar and Nab" lcPh they hat, now reduced Lo the forut of a Routan pro- " s"a”e Ju^ha! at the »; "rt^t^^S&s.a tribune ^il°n ot^etellu?; hut this heutg Bet-d^ - of [he people, excited the plebeians to inquire Into the and most ot Ins accomplices suffered cleath; ^ ^ conduct of those persons by whose assistance Jugurtha however, had such an e e^ P ° He had found means to elude all the decrees of the senate, terwards enjoyed no tranquillity o. tepose. He r S'umii N U M I D I A. persons of all denominations, Numidians as well as fo¬ reigners, of some black designs against him ; and perpetual terror sat brooding over his mind, insomuch that he ne¬ ver slept except by stealth, and often changed his bed in a low plebeian manner. Starting from his sleep, he would frequently snatch his sword, and break out into the most doleful cries; so strongly was he haunted by a spirit of fear, jealousy, and distraction. Jugurtha having destroyed great numbers of his friends on suspicion of their having been concerned in this con¬ spiracy, and many more of them having deserted to the Romans and Bocchus king of Mauritania, he found himself, in a manner, destitute of counsellors, generals, and all per¬ sons capable of assisting him in carrying on the war. This threw him into a deep melancholy, which rendered him dissatisfied with every thing, and made him fatigue his troops with a variety of contradictory movements. Some¬ times he would advance with great rapidity against the ene¬ my, and at others retreat from them with no small celerity. Then he resumed his former courage, but soon afterwards despaired either of the valour or fidelity of the forces under his command. All his movements, therefore, proved un¬ successful, and at last he was forced by Metellus to accept battle. That part of the Numidian army which Jugurtha commanded behaved with some resolution, but the other fled at the first onset. The Romans, therefore, entirely defeated them, took all their standards, and made some prisoners. But few of them were slain in the action, since, as Sallust observes, the Numidians trusted more to their heels than to their arms for safety in this engagement. Metellus pursued Jugurtha and his fugitives to Thala. His march to this place being through vast deserts, was extremely tedious and difficult; but being supplied with leathern bottles and wooden vessels of all sizes taken from the huts of the Numidians, which were filled with water brought by the natives who had submitted to him, he ad¬ vanced towards the city. He had no sooner begun his march, than a most copious shower of rain, a thing very uncommon in these deserts, proved a great and seasonable refreshment to his troops ; and this so animated them, that upon their arrival before Thala, they attacked the town with such vigour, that Jugurtha, with his family, and the treasures deposited therein, thought proper to abandon the place. After a brave defence, it was reduced ; the gar¬ rison, consisting of Roman deserters, setting fire to the king’s palace, and consuming themselves, together with every thing valuable to them, in the flames. Jugurtha, being now reduced to great extremities, retired into Gae- tulia, whence, having formed a considerable corps, he advanced to the confines of Mauritania, and engaged Boc¬ chus, king of that country, w'ho had married his daugh- tei, to enter into an alliance with him; and having rein-- forced his Gaetulian troops with a powerful body of Mau¬ ritanians, he turned the tables upon Metellus, and obliged mm to keep close within his intrenchments. Sallust in- orms us, that Jugurtha bribed Bocchus’s ministers, in order to influence that prince in his favour; and having obtained an audience, he insinuated that, should Numidia e subdued, Mauritania must be involved in its ruin, espe- fia y as fke Romans seemed to have vowed the destruc- um o all the thrones in the universe. In support of what o advanced, he produced several instances very apposite o e point in view. However, the same author seems intimate, that Bocchus was determined to assist Jugur- laagamst his enemies by the slight which the Romans i °™f.r y s*lown him. That prince, at the first break- 11 0 the war, had sent ambassadors to Rome, to pro- L- ian. a7’“ f “Th iln. which he soon forced, ed they could either drive the Romans out of Africa, or ot battle ; anu, , • which he soon forced, ge, all the Numidian domt^ns confirmed to him by treaty “fhemitius to the »JU tookHiarbas 0tU.»- hrmed to him by treaty, pursueu u.c iugitivv.c cw r, , json. S-o considerah.e a cession coufd —- ffuish the Roman name in Numidia. But their want of Hiempsal and one Masmtha, anoble iNunoiu ’ ^ when caution and too great security, enabled Marius to inflict on probable, he bad in some respect inJ ’ , 1(1. The “totol detlatt which was followed four days after- words bv so complete an overthrow', that their numerous same author adds, that Laesar w.a J f , Hieinpsals armv consistingofninety thousand men, by the accession of of Masintha, and even gross y _ his father’s conduct a powerful corps of Moors, commanded by Bocchus’s son son, when ^ ^ by the beard, than which Volux, was entirely ruined. Sylla, the lieutenant of Manus, °n not be offered t. Vlarius, on this occasion. iae puucu mut u, — — ed tQ an mo*st’’eminenUy distinguished himself - the last a^ ^X"e s^eenedMasimha from the ** musi DU which laid the foundation of his future greatness. Bocchus, N U M NUN 309 i. and violence of his enemies; and from this cause a reason may be assigned for Juba’s adhering so closely afterwards to the Pompeian faction. In consequence of the indignity Caesar had offered Juba, and the disposition it had occasioned, that prince did Caesar great damage in the civil wars between him and Pompey. By a stratagem he drew Curio, one of his lieutenants, into a general action, which it was his interest at that time to have avoided. He caused it to be given out over all Africa Propria and Numidia, that he had retired into some re¬ mote country at a great distance from the Roman territo¬ ries. This coming to Curio’s ears, who was then besieg¬ ing Utica, hindered him from taking the necessary precau¬ tions against a surprise. Soon afterwards, the Roman gene¬ ral receiving intelligence that a small body of Numidians was approaching his camp, put himself at the head of his forces in order to attack them, and, for fear they should es¬ cape, began his march in the night, looking upon himself as certain of victory. Some of their advanced posts he surprised asleep, and cut them to pieces, which still farther animated him. In short, about daybreak he came up with the Numidians, whom he attacked with great bravery, though his men were then fasting, and greatly fatigued by their forced and precipitate march. In the mean time, Juba, who immediately after the propagation of the rumour above mentioned had taken care to march privately, with the main body of the Numidian army, to support the de¬ tachment sent before to decoy Curio, advanced to the re¬ lief of his men. The Romans had met with a vigorous re¬ sistance before he appeared, so that he easily broke them ; killed Curio, with a great part of his troops, upon the spot; pursued the rest to their camp, which he plundered; and took many of them prisoners. Most of the fugitives, who endeavoured to make their escape on board the ships in the port of Utica, were either slain by the pursuers, or drowned in the attempt. The remainder fell into the hands of Varus, who would have saved them ; but Juba, who ar¬ rogated to himself the honour of this victory, ordered most of them to be put to the sword. This victory infused new life and vigour into the Pom¬ peian faction, who thereupon conferred great honours upon Juba, and gave him the title of king of all Numidia. But Caesar and his adherents declared him an enemy tu the state of Rome, adjudging to Bocchus and Bogud, two African princes entirely in their interest, the sovereignty of his dominions. Juba afterwards, uniting his forces with those of Scipio, reduced Caesar to great extremities, and would, in all probability, have totally ruined him, had he not been relieved by Publius Sittius. That general, having formed a considerable corps, consisting of Roman exiles, and Mauritanian troops sent him by Bocchus, according to Dio, or, as Caesar will have it, Bogud, made an irruption into Gaetulia and Numidia, whilst Juba was employed in Africa Propria. As he ravaged these countries in a dread¬ ful manner, Juba immediately returned with the best part of his army, in order to preserve them from utter destruc¬ tion. However, Caesar knowing that his horse were afraid of the enemy’s elephants, did not think proper to attack Scipio in the absence of the Numidian, till his own ele¬ phants, and a fresh reinforcement of troops, hourly expect¬ ed, arrived from Italy. With this accession of strength, he imagined himself able to give a good account, both of the oman forces with which he was to cope, and of the barba¬ rians. In the mean time Scipio despatched reiterated ex- ]n esses to Juba to hasten to his assistance, but could not pre- y?1 uPon him to move out of Numidia, till he had promised im t e possession of all the Roman dominions in Africa if ley could expel Caesar from thence. This immediately put 11m in motion ; so that, having sent a large detachment to . a e lead against Sittius, he marched with the rest of his roops to assist Scipio. However, Caesar at last overthrew Scipio, Juba, and Labienus, near the town of Thapsus, and Numisma- forced all their camps. As Scipio was the first surprised tographia and defeated, Juba fled into Numidia without waiting for N Caesar’s approach ; but the body of the Numidians detach- , _ ed against Sittius having been broken and dispersed by that general, none of his subjects there would receive him. Abandoned to despair, he sought death in a single combat with Petreius, and having killed him, caused himself to be despatched by one of his slaves. After this decisive action, and the reduction of all Africa Propria, Caesar made himself master of Numidia, which he reduced to a Roman province, appointing Crispus Sallus- tius to govern it in quality of proconsul, with private in¬ structions to pillage and plunder the inhabitants, and by these means put it out of their power ever to shake off the Roman yoke. However, Bocchus and Bogud still preserved a sort of sovereignty in the country of the Massaesyli and Mauritania; since the former of these princes, having de¬ serted Caesar, sent an army into Spain to assist the Pom¬ peians ; and the latter, with his forces, determined victory in favour of Caesar at the memorable battle of Munda. Bo¬ gud, afterwards siding with Antony against Octavius, sent a body of forces to assist him in Spain; but at this time the Tingitanians having revolted from him, Bocchus, with an army composed of Romans in the interest of Octavius, who passed over from Spain into Africa, and his own sub¬ jects, possessed himself of Mauritania Tingitana. Bogud fled to Antony ; and Octavius, after the conclusion of the war, honoured the inhabitants of Tingi with all the privi¬ leges of Roman citizens. He likewise confirmed Bocchus king of Mauritania Caesariensis, or the country of the Mas¬ saesyli, in the possession of Tingitana, which he had con¬ quered, as a reward for his important services. In this he imitated the example of his great predecessor Julius Ctesar, who divided some of the fruitful plains of Numidia amongst the soldiers of Sittius, who had conquered the greater part of that country, and appointed Sittius himself sovereign of that district. Sittius, as has been intimated above, hav¬ ing taken Cirta, killed Sabura, Juba’s general, entirely dis¬ persed his forces, and either cut off’ or taken prisoners most of the Pompeian fugitives who escaped from the battle of Thapsus, highly deserved to be distinguished in so emi¬ nent a manner. After the death of Bocchus, Mauritania and the Massaesylian Numidia were in all respects consi¬ dered as Roman provinces. NUMISMATOGRAPHIA, a term applied to the de¬ scription and knowledge of ancient coins and medals, whe¬ ther of gold, silver, or brass. NUN, the son of Elishamah, and father of Joshua, of the tribe of Ephraim. The Greeks gave him the name of Nane instead of Nun. This person is only known in sacred history by having been the father of Joshua. Nun, a woman, in several Christian countries, who de¬ votes herself, in a cloister or nunnery, to a religious life. There were women, in the ancient Christian church, who made public profession of virginity, before the monastic life was known in the world, as appears from the writings of Cyprian and lertullian. These, for distinction’s sake, are sometimes called “ ecclesiastical virgins,” and were commonly enrolled in the canon or matricula of the church. They differed from the monastic virgins chiefly in this, that they lived privately in their fathers’ houses, whereas the others lived in communities; but their profession of virginity was not so strict as to make it criminal for them afterwards to marry, if they thought fit. As to the con¬ secration of virgins, it had some things peculiar in it, and was usually performed publicly in the church by the bishop. I he virgin made a public profession of her resolution, and then the bishop put upon her the accustomed habit of sa¬ cred virgins. One part of this habit was a veil called the sacrum velamen; and another was a kind of mitre or coronet 310 NUN N U R Nuncio worn upon the head. At present, when a woman is to be II made a nun, the habit, veil, and ring of the candidate are Nunia‘ carried to the altar; and she herself, accompanied by her nearest relations, is conducted to the bishop, who, after mass and an anthem, pronounces the benediction ; upon which she rises up, and the bishop consecrates the new habit, sprinkling it with holy water. When the candidate has put on her religious habit, she presents herseli before the bishop, and sings, on her knees, Ancilla Christi sum ; then she receives the veil, and afterwards the ring, by which she is married to Christ; and, lastly, the crown of virginity. When she is crowned, an anathema is denoun¬ ced against all who shall attempt to induce her to break her vows. NUNCIO, or Nuntio, an ambassador from the pope to some Catholic prince or state, or a person who attends on behalf of the pope at a congress, or an assembly of several ambassadors. . NUNCUPATIVE, in the schools, means something that is only nominal, or has no existence but in name. Nuncupative Will or Icstumcnt^ a will made vcibally, and not put in writing. . „ NUNDAB All, a town of Hindustan, in the province ot Khandesh, belonging to the Mahrattas, seventy-six miles east from Surat. Long. 74. 15. E. Lat. 21. 17. N. NUNDAPOIIAM, a town of Hindustan, in the North¬ ern Circars, and district of Cicacole, eighty-two miles west from Cicacole. Long. 82. 40. E. Lat. 18. 23. N. N UNDIN A, a goddess amongst the ancient heathens, supposed to have had the care of the purification of infants. Because male infants were purified nine days after their birth, her name is derived from norms, or the ninth; al¬ though female infants were also purified on the eighth day, which purification was by the Romans called lustration. NUNDINAL, Nundinalis, a name which the Romans gave to the first eight letters of the alphabet, which were used in their calendar. This series ofletters, A, B, C, D, E, F, G, H, is placed and repeated successively from the first to the last day of the year ; and one of these always expressed the market-days or the assemblies called nundinrz (quasi novendinae), because they returned every nine days. The country people, after working eight days successively, re- paired to town on the ninth to sell their several commodi¬ ties, and to inform themselves ot all that related to religion and government. T bus the nundinal day being under A^ on the first, ninth, seventeenth, and twenty-fifth days of January, &c. the letter D will be the nundinal letter ot the year following. These nundinals bear a very great resemblance to the dominical letters, which return every eight days, as the nundinals did every nine. NUNDYDROOG, a celebrated and strong hill fortress of Hindustan, in the province of Mysore. Ihe mountain on which it is built is 1700 feet high, and it is inaccessible on three sides. This fortress, always considered as impreg¬ nable, was stormed by the British in 1791, after a siege of three weeks. 1 he neighbouring country is fertile, being studded with hills, in which there is much fertile land. It was long ruled by one of those independent chiefs called poligars in Southern India. He was compelled to pay tribute to Hyder Aly, who ravaged his territories and laid waste the country. Long. /7. 53. L. Lat. 13. 22. N. NUNEATON, a town of the county of Warwick, in the hundred of Hemlingford, ninety-nine miles from London, and eight from Coventry. It stands on the river Anker, and had formerly a nunnery, to which it owes its name. It partakes of the trade of Coventry, like that place making many ribbons, and, besides, some woollen goods. There is a market on Saturday. The population amounted in 1801 to 4796, in 1811 to 4947, in 1821 to 6610, and in 1831 to 7799. . , NUNIA, a village of Irak Arabi, about three quarters of a mile from the Tigris, opposite to Mosul. It is sup- Nu posed to be the site of the ancient Nineveh. The history It;, of this metropolis is lost in succeeding ages, and it ap-l ot tins meirujnma ... °7. ~ , ‘ i pears to have fallen into decay after the building of Baby-: Ion ; indeed in the reign of Hadrian it was so completely _ destroyed, that even the place where it stood was unknown. A city erected afterwards near the spot was called Ninus; and Mr Kinneir is of opinion that it is the ruins of the latter, and not those of old Nineveh, that are still visible. He mentions that he examined these remains in IblO, and that they consisted of a rampart and fosse, forming an oblong square four miles in compass. The wall is on an average twenty feet in height, and is coveied with grass, like the Roman intrenchments in England. NUPTIAL Rites, the ceremonies attending the solem¬ nization of marriage, which are different in different ages and countries. We cannot omit here a custom which was practised by the Romans on these occasions. Immediately after the principal ceremonies were ended, the new mar¬ ried man threw nuts about the room for the boys to scram¬ ble for. Various reasons have been assigned for this; but that which most generally prevails, and seems to be the most probable, is, that by this act the bridegroom signified his resolution to abandon trifles, and commence a serious course of life. Hence nucibus relictis became in this sense a proverb. The nuts might also be an emblem of fertility. The ancient Greeks had a person to conduct the bride from her own to the bridegroom s house, and hence he was called by the Greeks Nymphagogus, which term was afterwards used both by the Romans and the Jews. NUREMBURG, or Nurnberg, a city of Bavaria, in the circle of the Rezat, and the bailiwick of the same name, of which it is the capital. It is situated on the river Peg- nitz, which divides it into two parts. The walls are now kept in a state which renders them indefensible. It is an extensive but thinly peopled city, having much declined from the prosperity it enjoyed in the middle ages, when it was a free imperial city, and the place where the emperors occasionally resided. The city now contains 4500 houses, and 28,200 inhabitants, with eight Lutheran churches, one for the Catholics, and a chapel for the Calvinists. It has also many Jews. It is still a place of considerable manu¬ factures, but they are chiefly on a small scale, furnishing the turnery wares called by its name, cutlery, brazierj, looking-glasses, spectacles, needles, mathematical, musi¬ cal, and surgical instruments, watches, leaf goM and sil¬ ver, paper, maps, and other articles. It is celebrated as the birthplace of Albert Durer the painter, and the resi¬ dence of Rudolph the inventor of wire, ot Peter Plele the inventor of watches, of Denner the inventor of the cla¬ rionet, of Ebner the first cutler, and of Behairn who first constructed globes. Long. 11. 1. 4. E. Lat. 4J. 8- • NURPOOR, a town of Hindustan, in the province ot La¬ hore, and capital of a district of the same name. It is situ¬ ated on the top of a hill, which is ascended by stone steps, and has all the appearance of opulence and industry, it is the residence of a Sikh chief, whose revenue amounts to L.50,000 a year. The district is situated between t thirty-second and thirty-third degrees of north latitude, it belongs to the Sikhs. The city is seventy-five miles east- north-east from the city of Lahore. # NURRAH, a town of Hindustan, in the Province , Gundwana, tributary to the Nagpoor rajah, and possesseu by native Goand chiefs. It is seventy-eight mdes south y east from Ruttunpoor. Long. 82. 45. E. Lat. 21-• NURSERY, in Gardening, is a piece of land set ap for raising and propagating all sorts of trees and plants supply the garden and other plantations. _ NURSING of Children. The following o^serva and directions were published in the Annual 1 e§T, (vol. vi. p. 130), as the results of long experience. Nusi N U S child should be laid, the first month, upon a thin mattress, 'rather longer than itself, which the nurse should keep upon her lap, that the child may always lie straight, and only sit up as the nurse slants the mattress. To set a child quite upright before the end of the first month, would hurt the eyes, by making the white part of the eye appear below the upper eyelid. Afterwards the nurse will begin to set it up and dance it by degrees. The child must be kept as dry as possible. The clothing should be very light, and not much longer than the child, that the legs may be got at with ease, in order to have them often rubbed in the day with a warm hand or flannel, and in particular the inside of them. Rubbing a child all over takes off scurf, and causes the blood to circulate. The one breast should be rubbed with the hands one way, and the other the other way, night and morning at least. The ankle bones and the inside of the knees should be rubbed twice a day ; this will strengthen those parts, and make the child stretch its knees and keep them flat, which is the foundation of an erect and graceful person. A nurse ought to keep a child as little in her arms as possible, lest the legs should be cramped, and the toes turn¬ ed inwards. Further, she should always keep the child’s legs loose. The oftener the posture is changed the better. Tossing a child about, and exercising it in the open air in fine weather, is of the greatest service. In cities, children are not to be kept in hot rooms, but to have as much air as possible. Want of exercise is the cause oflarge heads, weak and knotted joints, a contracted breast, which occa¬ sions coughs and stuffed lungs, an ill-shaped person, and waddling gait, besides a numerous train of other ills. The child s flesh is to be kept perfectly clean, by con¬ stantly washing its limbs, and likewise its neck and ears, beginning with warm water, till by degrees it will not only bear, but like to be washed with cold water. Rising early in the morning is good for all children, pro¬ vided they awake of themselves, which they generally do; but they are never to be waked out of their sleep, and as soon as possible to be brought to regular sleeps in the day. When laid in bed or in cradle, their legs are always to be laid straight. Children, till they are two or three years old, must ngver be suffered to walk long enough at a time to be weary. Girls might easily be trained to the proper management of children, if a premium were given in free schools, work- houses, and other places, to those that brought up the nnest child to one year old. If the mother cannot suckle the child, get a wholesome cheerful woman with young milk, who has been used to attend young children. After the first six months, small roths, and innocent foods of any kind, may do as well as living wholly upon milk. A principal thing to be always attended to is, to give young children constant exercise, ajJ-0 ^lem *n a Proper posture. With regard to the child’s dress in the day, let it be a Pe^,c^at ^ne flarmel two or three inches longer an the child s feet, with a dimity top, commonly called J? coat’ t0 tie behind ; and over that a surcingle sat- 6 ° c ne ^uc^ram> two inches broad, covered over with in or fme ticken, with a ribbon fastened to it to tie it , wtuch answers every purpose of stays, and has none and f" uOCOnveLniences. Over this put a robe, or a slip tennd S’ °ir whftever y°u Ake best, provided it is fas- tlnt fh • lnd’ an(1 not 11111011 longer than the child’s feet, are tn niotlonf may be strictly observed. Two caps teeth TkUt T-i j»ie llea(1,1:111 tlle child has got most of its blanket chlld s *essufor the night may be a shirt, a Nils 4 Mpt?011’ avtd a thin S?1™ to tie over the blanket, annovanpo pP 0ri Nuis^n?e> in Law, a thing done to the y f another. Nuisances are either public or pri- N U T 311 yate. A public nuisance is an offence against the public Nussera- in general, either by doing what tends to the annoyance bad of all the king s subjects, or by neglecting to do what the ^ i . common good requires ; in which case, all annoyances and 1 ulrillon* injuries to streets, highways, bridges, and large rivers, as also disorderly ale-houses, gaming-houses, and the like, are held to be common nuisances. A private nuisance is, when only one person or family is annoyed by the doing of any thing; as where a person stops up the light of another s house, or builds in such a manner that the rain falls from his house upon his neighbour’s. NUSSERABAD, a town of Hindustan, in the Mahratta dominions, and province of Berar, forty-two miles south¬ west from Burhampoor. Long. 75. 51. E. Lat. 20. 56. N. NUSSERITABAD, or Sackur, a town of Hindustan, in the province of Bejapore, belonging to the nizam. NUSSERPOOR, a town of Hindustan, in the province of Sinde, and the capital of a district of the same name, si" tuated near the banks of the Indus. Long. 69. 10. E. Lat. 25. 28. N. I he district is situated principally between the twenty-sixth and twenty-seventh degrees of north latitude, and is intersected by the river Indus. N U 1, among botanists, denotes a pericarpium of an ex¬ traordinary hardness, enclosing a kernel or seed. NU1AIION, in Astronomy, a kind of tremulous mo¬ tion of the axis of the earth, by which, in each annual re¬ volution, it is twice inclined to the ecliptic, and as often returns to its former position. NUTHUIRS, a village of Persia, in the province of Irak, situated on a small plain surrounded with mountains, on the road from Ispahan to Sultania, and sixty-three miles north from Ispahan. NUTMEG, the fruit of a tree, and a well-known spice. See Myristica. NU 1 RITION, in the animal economy, is the repairing the continual loss which the different parts of the body un¬ dergo. The motion of the parts of the body, the friction of these parts against each other, and especially the action of the air, would destroy the body entirely, if the loss was not repaired by a proper diet containing nutritive juices, which being digested in the stomach, and afterwards con¬ verted into chyle, mix with the blood, and are distributed throughout the whole body for its nutrition. Butfon, in order to account for nutrition, supposes the body of an animal or vegetable to be a kind of mould, in which the matter necessary to its nutrition is modelled and assimilated to the whole. But of what nature is this mat¬ ter which an animal or a vegetable assimilates to its own substance ? What power is it that communicates to this matter the activity and motion necessary to penetrate this mould ? and, if such a force exist, would it not be by a si¬ milar force that the internal mould itself might be repro¬ duced ? As to the first question, he supposes that there exists in nature an infinite number of living organical parts, and that all organized bodies consist of such organical parts ; that their production costs nature nothing, since their ex¬ istence is constant and invariable; so that the matter which the animal or vegetable assimilates to its substance is an organical matter of the same nature with that of the animal or vegetable, which consequently may augment its volume without changing its form or altering the quality of the substance in the mould. As to the second, there exist in nature certain powers, as that of gravity, which have no affinity with the external qualities of the body, but act upon the most intimate parts, and penetrate them throughout, and which can never fall under the observation of our senses. And as to the third, he conceives that the internal mould itself is reproduced, not only by a similar power, but by the very same power which causes the unfolding and reproduc- 312 Nux Vomica II Nuyts. N U Y tion thereof. For it is sufficient, he thinks, that, in an or¬ ganized body which unfolds itself, there should be some part similar to the whole, in order that this part may one day become itself an organized body, altogether like that of which it is actually a part. NUX Vomica, a flat, compressed, round fruit, about the breadth of a shilling, brought from the East Indies. It is found to be a certain poison for dogs, cats, and other ani¬ mals, and it is not to be doubted that it would also prove fatal to man. Its surface is not much corrugated, and its texture is firm like horn, and of a pale grayish-brown co ^ i i i _ :c. „ ~ *■ o m f a n N Y K death, where he was, rather than to be sent to Japan. Nu?r Thither, however, he was sent in 1634, when he was sub- Ref; mitted to the mercy or discretion of the emperor ; and the | consequence was, that, though imprisoned, he was well Nyko- used, and could go anywhere, provided his guards were ^ with him, which was more than he could possibly have expected. He now looked for nothing but the continuance of his confinement for life. On a particular occasion, how¬ ever, namely, the funeral of the emperor’s father, he was, at the request of the Dutch, set free, and returned again to Batavia, to the surprise of the people of that settle- of Cape Nuyts, 132. 18. E. Eat. 32. 2. S. NUZZER, or Muzzeranah, a present or ottering from an inferior to a superior. In Hindustan no man ever ap¬ proaches his superior for the first time on business with¬ out an offering of at least a gold or silver rupee in his right hand; and if this be not taken, it is a mark of disfavour. Nuzzeranah is also used to signify the sum paid to the a specific ^nsfthe bite of ^ent, ^ a species of water-snake. It is considerably bitter and de- ^Tlarge ’reefs of rocks which lie leterious ; but has been used in doses of from five to ten . U ^ of New Hollandj at Cape Nuyts. These grains twice a day or so, in intermittents, par ^u ar y - ^ about eight miies distant from the coast, and are stinate quartans, and in contagious dysente y. X, • , t m;ies ;n length. In some places the rocks rise above tta’water^and irTothers they are^wholly concealed. Loa, tius’s beans. These, as also the woods or roots of some such trees, called lignum colubrinum, or snakewood, are very narcotic bitters, like the nux vomica. NUYTS, Peter, a native of Holland, and a leading character in that extraordinary transaction which happen¬ ed between the Japanese and the Dutch about the year LTwa/fn g=t as ^c^gSnt tbr a grant ofland. or hTipiSothare^prst^ ZNSibRd^;grnd*dih^^^ haughty disposition, and extremely vain, he believed it pra t f h s or fwenty-fo^ir equal parts. This way ticable to pass upon the natives for an ambassador from the ^ dav was particularly adopted by the king of Holland. Upon his assuming this tit e an ran , ems to have owed its origin to the expression to'return to had introduced “the Greek ^g-ge into then discos, Batavia with all the circumstances of disgrace imaginable ; notwithstanding which, his interest was so great, that, in¬ stead of being punished as he deserved, he was imme¬ diately afterwards promoted to the government of the island of Formosa, of which he took possession in the fol¬ lowing year. He entered upon the administration of affairs in that island with the same disposition that he had shown whilst ambassador, and with the most implacable resent¬ ment against the Japanese; neither was it long before an opportunity offered, as he thought, of revenging himself on them to the full. Two large Japanese ships, with upwards of five hundred men on board, came into the port, upon which he took it into his head to disarm and unrig them, in the same manner as the Dutch vessels are treated at Japan. The Japanese did all they could to defend them¬ selves from this ill usage ; but at last, for want of water, they were forced to submit. Governor Nuyts went still farther. When they had finished their affairs at Formosa, and were desirous of proceeding, according to their in¬ structions, to China, he put them off with fair words and fine promises, till the monsoon was over. They then be- san to be very impatient, and desired to have their can- Son and sails Ltored, that they might return home, but a and 8066 the governor had recourse to new artifices, and, by a se- church, a public grammar sc 1 ’ . . thevine,an(l ries of false promises, endeavoured to prevent them from inhabitants, w o are emP Lat 47 56.45.N. making use of the season most proper for that voyage. The m several trades. ^ wf/st of Svveden, which Japanese, however, soon perceived his design, and at length, by a bold attempt, accomplished what, by fair means and humble entreaty, they could not obtain ; for, by a daring and well concerted effort, they took him prisoner, and com¬ pelled him and one of the council to sign a treaty for se¬ curing their liberty, free departure, and indemnity, which was afterwards ratified by the whole council. Nuyts was first confined in Batavia, and afterwards delivered up to scanty popu.at,on. sue "X™"'“'fhe"capital is » ,h™ t° ' „c notwithstanding the most earnest entrea- per and iron mines, and in the fishery, li e cap Ues o„Tu ^t to be tried, anl even to suffer any kind of city of the same name, situated on a bay in the Haiti had mirouuceu me vjicctv ~ , ■ they were accustomed to indicate this space ot time by the simple expression of a night and a day. It is proper here to observe, that in all the eastern countries any part of a day of twenty-four hours was reck¬ oned for a whole day ; and that a thing which was done on the third or seventh day from that last mentioned, was said to be done after three or seven days. The Hebrews, hav- ing no word which exactly answered to the Greek Nu^wi* fiioov, signifying a natural day of twenty-four hours, used night and day, or day and night, instead of it; so that to say a thing happened after three days and three nights, was, with them, the same as to say that it happened alter three days, or on the third day. This being remembered, will explain what is meant by “ the Son of Mans being three days and three nights in the heart of the earth. NYCTASTRATEGI, amongst the ancients, were of¬ ficers appointed to prevent fires in the night, or to give alarm and call assistance when a fire broke out. At Rome they had the command of the watch, and were called noc- turni triumviri, from their office and number. . NYIREGYHAZA, a town of the circle ot Szaboles, m the province of Farther Theiss, in Hungary. It contains a Catholic, a Lutheran, a Calvinist, and an Unitar _ 1 several traaes. Long. a*, jo. w. --- - - - ,. , NYKOPING, a province of the west of Sweden, wi extends in north latitude from 58. 36. to 59. 30., an east longitude from 15. 28. to 17. 33., and contains square miles. It comprises seven cities or towns, 3327 detached settlements, with 98,500 inhabitant is a district of mountains and lakes, intermingled vn ^ tensive woods, but barely produces corn sufficien scanty population. The chief occupationconsists m ^ Nylac II Nym] N Y L It is a well-built town, and has a market-place, surrounded with houses of stone, but most of the others are of wood. It contains two churches, and 520 dwellings, witli 2490 inhabitants, who make cutlery and bar iron, and export large quantities of deals and other wood. Long. 16. 57. 10. E. Lat. 58. 45. 30. N. NYLACKY, one of the Banda Islands, in the Eastern Seas. Long. 130. 33. E. Lat. 4. 11. S. NYMPH, in Mythology, an appellation given to certain inferior goddesses, inhabiting the mountains, woods, and waters, and said to have been the daughters of Oceanus and Tethys. All the universe was represented as full of these nymphs, who were distinguished into several ranks or classes. The general division of them was into celes¬ tial and terrestrial. The former were called Uranite, and were supposed to be intelligences which governed the heavenly bodies or spheres. The terrestrial nymphs, call¬ ed EpigeicB, were believed to preside over the several parts of the inferior world, and were divided into those of the water and those of the earth. The nymphs of the water were the Oceanitides, or nymphs of the ocean ; the Nereids, or the nymphs of the sea; the Naiads and Ephy- driades, or the nymphs of the fountains; and the Lim- niades, or the nymphs of the lakes. The nymphs of the earth were the Oreades, or nymphs of the mountains; the Napaxe, or nymphs of the meadows; and the Dryads and Hamadryads, who were nymphs of the forests and groves. Besides these, we meet with nymphs who took their names from particular countries, rivers, and places. “ The nymphs,” says Dr Chandler, “ were supposed to enjoy longevity, but not to be immortal. They were be¬ lieved to delight in springs and fountains. They are de¬ scribed as sleepless, and as dreaded by the country people. They were susceptible of passion. The Argonauts, it is related, landing on the shore of the Propontis to dine, in their way to Colchis, sent Hylas, a boy, for water, who discovered a lonely fountain, in which the nymphs Eunica, Malis, and Nycheia, were preparing to dance; and these seeing him were enamoured, and, seizing him by the hand as he was filling his vase, pulled him in. The deities, their copartners in the cave, are such as presided with them over rural and pastoral affairs. “ The old Athenians were ever ready to cry out, a god, or a goddess. I he tyrant Pisistratus entered the city in a chariot with a tall woman dressed in armour to resemble ihnerva, and regained the Acropolis, which he had been forced to abandon, by this stratagem ; the people worship¬ ping, and believing her to be the deity whom she repre- sente . The nymphs, it was the popular persuasion, oc¬ casionally appeared; and nympholepsy is characterised as a frenzy which arose from having beheld them. Super¬ stition disposed the mind to adopt delusion for reality, and gave to a fancied vision the efficacy of full conviction. The oundation was perhaps no more than an indirect, partial, ar obscure view of some harmless girl, who had approach- tlie fountain on a like errand with Hylas, or was retir- ng a ter she had filled her earthen pitcher. Me, • n°ngSt the sacred caves on record, one on Mount JL!n- o 6 Was the ProPerty of Jupiter, and one by Le- . j f,ln. ceotla’°f Hophonius. Both these were oracular, iG U-uer, b rre sonie resemblance to that which we described, It was formed by art, and the mouth sur- ounded «,,, a wall. The descent to the landing place emn/ i 1 anC^ ”arrow ladder, occasionally applied and md iff f ^ WaS s*tuated on a mountain above a grove ; lercnr,6! ^ 01,y S°?s’ ^lat a swarm of bees conducted the >wner< J-Whom 11 Was first discovered. But the common imes lnpl|CaVAS Tvrf the n.ymPhs> and these were some- int8 Wprp.°n C;t)l*eron>111 Eceotia, many of the inhabit- vol. xvi)ossessed by nymphs vaMod Sphragitides, whose N Y S 313 cave, once also oracular, was upon a summit of the moun- Nymph tain. 1 heir dwellings had generally a well or spring of II water, the former being often a collection of moisture con- Nysa. densed or exuding from the roof and sides; and this,in'“^“ many instances, being pregnant with stony particles, con¬ creted and marked its passage by incrustation, the ground¬ work, in all ages and countries, of idle tales framed or adopted by superstitious and credulous people. . “ 4 cave in Papblagonia was sacred to the nymphs who inhabited the mountains about Heraclea. It was long and wide, and pervaded by cold water clear as crystal. There also were seen bowls of stone, and nymphs and their webs and distaffs, and curious work, exciting admiration. The poet who has described this grotto does not deserve to be legaided as servilely copying Homer; he may justly lay claim to rank as an original topographer. I he piety of Archidamus furnished a retreat for the nymphs, where they might find shelter and provision, if distressed ; whether the sun parched up their trees, or Ju¬ piter, enthroned in clouds upon the mountain top, scared them with his red lightning and terrible thunder, pouring down a deluge of rain, or brightening the summits with his snow.” Nymph, amongst naturalists, that state of winged in¬ sects betw’een their living in the form of a worm and their appearing in the winged or more perfect state. See En¬ tomology. NYMPHJHA, amongst the ancients, certain structures, although it is doubtful of what kind they were. Some take them to have been grottoes, deriving their name from the statues of the nymphs with which they were adorned ; but that they were considerable works, appears from their having been executed by the emperors, or by the city pre¬ fects. In an inscription, the term is written nymftum. None of all these nymphcea has remained till our time. A number of years ago, indeed, a square building of marble was discovered between Naples and Vesuvius, with only one entrance, and some steps leading down to it. On the right hand as you enter, towards the head, there is a foun¬ tain of the purest water, along which, by way of guardian, is placed a naked Arethusa of the whitest marble. The bottom or ground is of variegated marble, and encompass¬ ed with a canal fed by the water from the fountain. The walls are set round with shells and pebbles of various co¬ lours, by which are expressed the twelve months of the year, and the four political virtues, as also the rape of Pror serpine; Pan playing on his reed, and soothing his flock ; and the representations of nymphs swimming, sailing, and wantoning on fishes. It seems pretty evident that the mjmphcea were public baths; for at the same time that they were furnished with pleasing grottoes, they were also sup¬ plied with cooling streams, by which they were rendered exceedingly delightful, and drew great numbers of people to frequent them. Silence seems to have been a particu- lai lequisite in these retreats, as appears by this inscrip¬ tion, Nymphis loci, bibe, lava, tace. The building between Naples and Vesuvius, mentioned above, was certainly one of these nymphcea. NYSA, or Nyssa, in Ancient Geography, a town of Ethiopia, to the south of Egypt. Some place it in Arabia. This city, with another of the same name in India, was sacred to the god Bacchus, who was supposed to have been educated there by the nymphs of the place, and who received the name of Dionysus, w'hich seems to be com¬ pounded of A/of and Nuffa, the name of his father, and that of the place of his education. The god is believed to have made this place the seat of his empire, and the capital of the conquered nations of the East. According to some geographers, there were no less than ten places of this name. 2 R 314 Oak. OAK OAK THE fourteenth letter and fourth vowel of our al¬ phabet, being pronounced as in the words nose, rose, hose. The sound of this letter is often so soft as to ' require it double, and that chiefly in the middle of vvords, as goose, reproof, woof; and in some words this double oo is pronounced like u short, as in blood, flood. As a nu¬ meral, O was sometimes used for 11 amongst the ancients, and with a dash over it, thus, O, it stood tor 11,000. in the notes of the ancients, O. CON. is read opus conductum ; O. C. Q,. opera consilioque ; O. D. M. operce donum munus ; and O. LO. opus locatum. The Greeks bad two O s, name¬ ly, the omikron, o, and the omega, w; the one being pio- nounced on the tip of the lips with a sharper sound, and the other in the middle of the mouth, with a fuller sound, equal to oo in our language. The long and short pronun¬ ciations of our O are equivalent to the two Greek ones. O is usually denoted as long by a servile a subjoined, as moan ; or by e at the end of the syllable, as bone; but when these vowels are not used it is generally shor . Amongst the Irish, the letter O, at the beginning of the name of a family, is a character of dignity annexed to great houses. Thus, in the history of Ireland, we frequently meet with the O'Neals, O'Carrols, and O Connells, con¬ siderable personages in that island. Indeed Campden ob¬ serves, that it is the custom of the lords of Ireland to pre¬ fix an O to their names, to distinguish them from the com¬ monalty. The ancients used O as a mark of triple time, from a notion that the ternary, or number 3, was the most perfect of numbers, and therefore properly expressed by a circle, which is the most perfect of figures. It is not, strictly speaking, the letter O, but the figure of a circle O, or double C3, by which the early moderns used to ex¬ press in music what they called tempo perfecto, or triple time; and hence the Italians call it circolo. I he seven antiphones, or alternate hymns of seven verses, sung by the choir in the time of Advent, were formerly called O, from their beginning with such an exclamation. O, or Oh, is an adverb of calling, or interjection of sor¬ row or wishing. . f OAK. The oak has long been known by the title ot “monarch of the woods,” and, we may add, justly. The ancient Druids had a profound veneration for oak trees. Pliny says that “ the Druids, as the Gauls call their magicians or wise men, held nothing so sacred as the misletoe, and the tree on which it grows, provided it bean oak. They make choice of oak groves in preference to all others, and perform no rites without oak leaves; so that they seem to have the name of Druids from thence, it we derive their name from the Greek.” This useful tree grows to such surprising magnitude, that were there not many well-authenticated instances in our own country, it would certainly appear difficult to be¬ lieve that it could attain such size. In the eighteenth volume of the Gentleman’s Magazine we have the di¬ mensions of a leaf twelve inches in length and seven m breadth ; and all the leaves of the same tree were equally jar ginning with the middle row first, and filling up the P between the pots with tan. In this manner wearewp^ ceed to the next row, till the whole be finished, ^ operation is performed in the same manner as only is used. The leaves require no further trouble th g the whole season, as they will retain a constant and 0 OAK Jar heat during twelve months without stirring or turning ; and Mr Speechly informs us, that if he might judge from their appearances when taken out, being always entire and ■ perfect, it was probable they would continue their heat through a second year; but, as an annual supply of leaves is easily obtained, the experiment is hardly worth making. .After this, the pines will have no occasion to be moved except at stated times of their management, as at the ■shifting them in their pots, when at each time a little fresh I itan should be added to make up the deficiency arising from I ithe settling of the beds ; but this will be inconsiderable, as the leaves do not settle much after their long couching. During the first two years of our author’s practice he did not use any tan, but plunged the pine pots into the leaves, and merely covered the surface of the beds, when finished, with a little saw-dust, to give it a neatness. This method, however, was attended with one inconvenience; for, by the caking of the leaves, they shrunk from the sides of the pots, by which they became exposed to the air, and at the same time the heat of the beds was permitted to escape. See Planting. 1 OAK-Leaf Galls. These are of several kinds. The re¬ markable species called the mushroom gall is never found on any other vegetable substance than these leaves ; and, besides this, there is a great number of other kinds. The double gall of these leaves is very singular, because the generality of productions of this kind affect only one side of a leaf or branch, and grow all one way ; whereas this kind of gall extends itself both ways, and is seen upon sach side of the leaf, in the form of two protuberances, the me opposite to the other. Ihese are of differently irre¬ gular shapes ; but their natural figure seems that of two :ones, with broad bases and very obtuse points, though hey are sometimes round, or very nearly so. Ihese make their first appearance on the leaf in April, , remain on it till June, or even longer. They are at ist gieen, but afterwards yellowish, and are softer to the ouch than many other of the productions of this kind. ; lef are usually about the size of a large pea, but some- imes they grow to the size of a nut. When opened, they re found to be of that kind which is inhabited each by ne insect only, and contains but one cavity. The cavi- y in this, however, is larger than in any other gall of the ize, or even in many others of three times its size ; the ides of it being very little thicker than the substance of He leaf. OAKA, a town of Hindustan, in the province of Guierat, !• capital of a district of the same name. It was long the psidence of a gang of pirates, who preyed upon the trade nd shipping that frequented those seas. They at length iceived a severe chastisement from the East India Com- ny s marine, and afterwards agreed to respect the Bri- r . a?’ yhese rude people were accustomed to rely for A" their l)iratical adventures upon an idol at the ip id i Dwaraca’ to.which they vowed a large share of e plunder provided they were successful; and they were ■cordingly instigated to piracy by the priests of the tem- sirltnf n eiIarge "h1arers in the bo°ty acquired. The t of Oaka or Oakamundal is situated on the Gulf of tn, and separated from the mainland by the swamp it Krp *1 ^Unn; ^,le quiet inhabitants who reside owincp6 3 nu.mber camels, which browse on the shrubs onlol • the iWamp 5 but tbe grater number of the Pt are pirates. Long, of the town 69. 36. E. Eat. 22. OAT . N. untA^onV^'1'0'^’ f borougb an(* market town in the wdon amft00’ anC buncire a recorder, and eight aldqrmen. It re- turned two members to parliament till 1832, but it is now disfranchised. Ihe population amounted in 1801 to 1430, 111 A a 1440, in 1821 to 1907, and in 1831 to 2055. OAKINGHAM, or W okingham, a market-town of the, hundred of Sonning, in the county of Berks, but with the singularity, that a part of the town, including tbe church, is in the hundred of Amesbury, and the county of Wilts. It is thirty-two miles from London, and seven from Read¬ ing, and is situated on the border, within tbe boundary of the royal forest of W indsor. It consists of four streets meeting in the market-place, where is the town-hall. The church is an extensive structure, supported by handsome pillars, and adorned by many monuments. It has a good free school, and some charities, particularly one endowed by Archbishop Laud for female servants. A well-furnish¬ ed market is held every Tuesday. The number of inha¬ bitants, including tbe parts of both counties, amounted in 1831 fo 2M2 ^ 18U t0 2°85’ in 1821 t0 249°’ and b CANNES, a being in Chaldaic mythology, represented as half a man and half a fish. According to Berosus and other fabulous writers, this monster was the civilizer of the Ghaldaeans, to whom he is said to have taught a system of jurisprudence so perfect as to be incapable of further im¬ provement. In discharging the duties of his office, he is said to have spent the day on dry land, but to have retired every night into the ocean or the river. OAR, a long piece of timber, flat at one end and round or square at the other, and which being applied to the side of a floating vessel, serves to propel, or cause it to advance upon the water. That part of the oar which is out of the vessel, and which enters into the water, is called the blade or wash- p at; and that which is within board is termed the loom, the extremity of which, being small enough to be grasped lihndle r°HerS °r Persons managing the oars, is called the OARISTUS, or Oaristys, a term in Greek poetry, signifying a dialogue between a husband and his wife • as that in the sixth book of the Iliad, between Hector and Andromache. Scaliger observes, that the oaristus is not properly any particular little poem, or entire piece of poe¬ try, but always a part of a great one ; and that the passage in Homer here referred to is the only proper oaristus ex¬ tant in ancient poetry. OASIS, the name of a fertile spot in the midst of a sandy desert. Many of these spots, or oases, in the Afri¬ can deserts, are remarkable for their fertility. OAIH, an affirmation or promise, accompanied with an invocation of God to witness what we say, and with an imprecation of his vengeance, or a renunciation of his grace, if what we affirm be false, or what we promise be not per¬ formed I he word is a corruption of the Saxon eoth , and in England it is often called a corporal oath, because, in the days of Catholicism, the person was sworn upon the host or corpus Chmsti. 1 The laws of all civilized states have required the secu¬ rity of an oath for evidence given in a court of justice, and on other occasions of high importance; but the Quakers andesome other sects refuse to swear on any occasion, even at the requisition of a magistrate, and in a court of justice. Ihe text of Scripture upon which the Quakers principally rest their argument for the unlawfulness of all swearing, is our Saviour’s prohibition, “ I say unto you, swear not at all.” But it is only in ordinary conversation and by no means in courts of justice, that Christ prohibits his followers from swearing at all. There is no evidence whatever, that swearing by heaven, by the earth, by Jeru¬ salem, or by their own heads, was the form of a judicial toatt!\m Auf. amongst the Jews. On the contrary, we are told by Maimomdes, that “ if any man swear by heaven or 315 Oaking- ham Oath. 316 Oath. OAT OAT bv earth, yet this is not an oath which, surely, he could not have said had such been the forms of judicial swear- Indeed the Jews could not have admitted such forms into their courts without expressly violating the law of Moses, who commands them to “ Fear Jehovah their God, to serve him, and to swear by his name.” But the Jews, as every one knows, had such a reverence for the name ot Jehovah, that they would not pronounce it on slight occa¬ sions, and therefore could not swear by that name in com¬ mon conversation. Hence, to gratify their propensity to common swearing, they invented such oaths as, by heaven, by earth, by Jerusalem, by the life of thy head, and sue i like, and by this contrivance they thought to avoid the guilt of profaning the name of Jehovah. These, however, being appeals to insensible objects, either had no meaning, or were in fact, as our Saviour justly argues, oaths by that God whose creatures they were; so that the Jew w 10 swore them was still guilty of profaneness towards the very Jehovah whose name his superstition would not permit him to pronounce. But what puts it beyond all doubt that the use of judicial oaths is not wholly prohibited in the gospel, is the conduct of our Saviour himself, as well as that of his apostle St Paul. When Jesus was simply asked by the high priests, what it was which certain false witnesses testified against him, we are told by the evangelists, that “ he held his peace but being adjured by the living God to declare whether he was the Christ, the Son of God, or not, he immediately answered the high priest, without ob¬ jecting to the oath (for such it was) upon which he was examined. St Paul, in his Epistle to the Romans, says, « God is my witness, that, without ceasing, I make mention of you in my prayers and to the Corinthians, still moie strongly, “ I call God for a record vpon my soul, that, to spare you, I came not as yet to Corinth.” Both these ex¬ pressions are of the nature of oaths ; and the author ot the Epistle to the Hebrews speaks ot the custom of swearing judicially without any mark of censure or disapprobation : “ Men verily swear by the greater ; and an oath, for con¬ firmation, is to them an end of all strife. But although a nation has an undoubted right to require the security of an oath upon occasions of real importance, it is something worse than bad policy to multiply oaths, and to hold out to the people temptations to perjure themselves. The security which an oath affords depends entirely upon the reverence which attaches to it in the mind of him by whom it is given ; but that reverence is much weakened by the frequency of oaths, and by the careless manner in which they are too often administered. Paley observes, with truth, that “the levity and frequency with which oaths are administered, has brought about a general inad¬ vertency to the obligation of them, which, both in a leli- gious and political view, is much to be lamented; and it merits,” continues he, “ public consideration, whether the requiring of oaths on so many frivolous occasions, especi¬ ally in the customs, and in the qualification tor petty of¬ fices, has any other effect than to make them cheap in the minds of the people. A pound of tea cannot travel larly from the ship to the consumer without costing halt a dozen oaths at least; and the same security for the due discharge of his office, namely, that of an oath, is requuted from a churchwarden and an archbishop, from a petty constable and the chief justice of England. Let the law continue its own sanctions if they be thought requisite, but let it spare the solemnity of an oath; and where it is necessary, from the want of something better to depend upon, to accept a mans bwn word or own account, let it annex to prevarication penalties proportioned to the pub¬ lic consequence of the offence. Besides the frequency of oaths, we have mentioned the irreverent manner in which they are too often administered as one of the causes which make them cheap in the esti¬ mation of the people. In this view, the form of the oath, ! and the ceremonies with which it is required to be taken, are of considerable importance. “ The forms of oaths in Chris- ^' tian countries,” says Paley, “ are very different; but in none, v I believe, worse contrived, either to convey the meaning or to impress the obligation of an oath, than in England. Oaths are either assertory or promissory. Assertory oaths are required both to confirm our veracity in evidence, and to give security to the public, that we believe certain propositions conceived to be of public importance. An oath in evidence binds the juror to declare what he knows to be true, and nothing but what he knows to be true. An oath required to assure the public of our belief in the truth of any proposition cannot, without the guilt of perjury, be taken by any man, who, at the time of swearing, has the slightest doubt in his mind whether the proposition be really true. Such an oath, however, though it unques¬ tionably requires the sincerity ot the juror s belief at the time when it is given, cannot oblige him to continue in that belief as long as he may live ; for belief is not in any man’s power, being the necessary consequence of evidence, which compels the assent of the mind, according as it ap¬ pears to preponderate on the one side or on the other. No man, therefore, can be justly accused of peijury for hold¬ ing opinions contrary to those which he may formerly have sworn to believe; because his belief at the time of emit¬ ting his oath may have been the necessary result of the evidence which then appeared before him, and his change of opinion may have resulted with the same necessity from superior evidence which had been since then thrown into the opposite scale, and made it preponderate. On this ac¬ count we cannot help thinking that all assertory oaths, ex- ceptino- Such as are necessary to confirm testimony respect¬ ing facts, ought either to be abolished, or expressed with great caution. Of truths intuitively certain, or capable of rigid demonstration, no man of common sense can enter¬ tain a doubt; and therefore the public never requires from individuals the solemnity of an oath as an assurance of their believing such truths. But with respect to the truth of propositions which admit of nothing superior to moral evidence upon either side, a man of the most steady virtue may think differently at different periods of his life; and in such cases, the effect of an oath, if it have any effect, can only be either to shut the man’s eyes against the light, or to make his integrity be causelessly questioned by those who may observe his change of belief. . Promissory oaths cannot, without the guilt of perjury be given by him who, at the time of swearing, knows that it will not be in his power to fulfil the promise, or who does not seriously intend to fulfil it. A promissory oa i cannot, without great guilt, be given by any man, who a the time of swearing believes the object oi the ■ be in itself unlawful; for if he seriously mean ni oath, he calls upon Almighty God to witness his mten i to commit a crime. Promissory oaths give to the puoi p or w LU — j , - greater security than a simple promise ; because the jur ? . .i a \ ry~A .a rwl ✓vT t’olinrirm mnrfi UDOn fllo having the thoughts of God and of religion more upon mind at the one time than .at the other, offends with minu at mu unc miic .livine higher hand, and in more open contempt ot the a power, knowledge, and justice, when he violates an than when he breaks a simple promise, let it is ce that promissory oaths, though more solemn and sac ' cannot be binding when the promise without an oath w not be so, though in an inferior degree. , OAXACA, one of the states of the republican c deracy of Mexico. See the article Mexico. Oaxaca, the capital city of a state of the same « the republic of Mexico. It is built on the site of the cient Huaxyacac, and bore the name of An^e<}ue,raful val- time of the conquest. Its situation is in a de ig ^ ley, forty miles in length by twenty in breadth, an O B A O B E 317 , 230 miles south of the city of Mexico. Oaxaca is built in the form of an oblong square, being nearly two miles by one and a quarter in extent, including the suburbs, which ' are principally occupied by gardens. It is one of the neat¬ est, cleanest, and most regularly built towns in Mexico. The streets are wide and well paved ; and there are a num¬ ber of squares, the beauty of which is enhanced by the presence in all of them of handsome public fountains. The edifices are constructed of a green stone, which, preserv¬ ing its colour to perpetuity, gives the city a singular ap¬ pearance of freshness. The convent of San Francisco, si¬ tuated in the great square, was erected above two hun¬ dred years ago, yet it still retains the appearance of a new building. There are a number of public edifices in Oaxaca, including several churches, which are solidly built, and richly decorated. The climate is considered as unsur¬ passed for salubrity and equability by any in the republic, the thermometer rarely tailing below 63°, nor ranging higher than 78°. The markets are supplied with fruits both of the temperate and torrid zones, raised in the vici¬ nity ; and it is no uncommon thing to see trees loaded with oranges on one side of the road, and fields of wheat ex¬ tending on the other. Oaxaca was formerly more popu¬ lous than it is at present, having suffered a good deal du¬ ring the revolutionary struggle; but the inhabitants still amount to about 20,000. OBA, a town of Persia, in the province of Azerbijan, at the head of a small gulf on the western coast of the Cas¬ pian, and on one of the mouths of the Kur, about 150 miles north-east of Tabreez. OBADIAH, or the Prophecy of Obadiah, a canonical book of the Old Testament, contained in a single chapter. It is partly an invective against the cruelty of the Edom¬ ites, who mocked and derided the children of Israel as they passed into captivity, and, with their confederates, invaded and oppressed these strangers, dividing the spoil amongst themselves; and partly a prediction of the deliverance of Israel, and of the victory and triumph which the church would gain over her enemies. OBAN, a neat and small modern town in the parish of Kilbride, lordship of Lorn, and county of Argyle, ninety- two miles from Glasgow, and 136 from Edinburgh. The situation of the town is wrell chosen, both as regards the picturesque scenery amidst which it is placed, the conve- | nient station which its bay affords for national purposes, as the depot for the trade of the Hebrides and the western coast of the Highlands, and as being admirably designed for a fishing station. The bay of Oban, at the head of which the town lies, is semicircular, being formed by the island ot Kerrera in front, and, backed by the huge ranges of the Argyllshire mountains ; it is well sheltered from the west¬ ern winds by the island of Kerrera, varies from twelve to twenty-four fathoms in depth, and is capable of contain¬ ing from three to five hundred sail of merchantmen. The steamers from Glasgow and Liverpool, which visit the west¬ ern coast and Inverness by the Crinan and Caledonian Ca¬ nals, generally stop at Oban ; and, from the salubrity of the air, and moderate rate of the markets, it is much resorted to as bathing quarters duringthe summermonths, and many ^ respectable families have now made it their permanent place o lesidence. I he territory of the burgh consists of the ands of Oban and Glenshellich, with the ferry-house, nail¬ ers croft, and loch, and the lands of Glencrutten. This territory, however, extends considerably beyond the par- jamentary bounds assigned to the town by the burgh re- orm act. I he town is divided by a small river into two ivisions, called the eastern and western. In the eastern a andsome church was erected in the year 1821 as a cha- pe o ease to the parish church, which is at a distance of our miles from the town. It was constituted a port of cus- 0ms year 1763 j and the custom-house is pleasantly placed upon a rising situation, so as to command a view of Obdorsk the bay. I he superiors and proprietors of the burgh are II the Duke of Argyll and Mr Campbell of Combie. These v ^erna^‘ proprietors and their predecessors, as soon as they observed v ~1'—' that some trade had begun to be carried on, granted build¬ ing leases of portions of their lands upon the most libe¬ ral terms, and under this system it rapidly increased. Oban was first erected into a burgh of barony in 1811 by the Duke of Argyll, with the consent of Mr Campbell. This charter was, however, laid aside, on grounds arising out of the titles of the Argyll estates; and Mr Campbell having in the mean time acquired the superiority of his lands, a new charter was granted in the year 1820. There are no public buildings belonging to the burgh, nor public insti¬ tutions of any kind ; neither is it possessed of any property or annual revenue, nor encumbered with any amount of debt. The magistrates and council have no power to tax or assess the inhabitants, and no taxes have been imposed ; neither have they the right of appointment to any office, civil or ecclesiastical. The exports to Glasgow and Liver¬ pool are cattle, wool, fish, pig iron, and slates brought from the district of Easdale. A weekly market is held in the town, and two annual fairs. The municipal government of the burgh is vested in two bailies and four councillors; and by its charter the burgesses annually elect a dean of guild, a nominal treasurer, and the different officers con¬ nected with a burgh court. The burgh returns, with Ayr, Irvine, Campbelton, and Inverary, a member to parlia¬ ment. The population of Oban amounted in 1831 to 1480. OBDORSK, a name which is given to that part of Asi¬ atic Russia which extends along the northern part of the course of the Obi to the Frozen Ocean. It is also the name of a small palisadoed fort, the most northerly of any maintained by Russia, being garrisoned by an officer, with twenty-five Cossacks, w ho exercise a species of sovereign control over the scattered tribes of Ostiaks and Samoyedes. OBELISK, in Architecture, a truncated, quadrangular, and slender pyramid, raised as an ornament, and frequent¬ ly charged with inscriptions or hieroglyphics. Obelisks appear to have been of very great antiquity, and first raised to transmit to posterity certain precepts, which were cut in hieroglyphical characters ; but they were afterwards used to immortalize the great actions of heroes, and the memory of persons who were beloved. The first obelisk mentioned in history was that of Harnesses king of Egypt, which was forty cubits high. Phius, another king of Egypt, raised one of fifty-five cubits; and Ptolemy Phila- delphus, another of eighty-eight cubits, in memory of Ar- sinoe. Augustus erected one at Rome in the Campus Mar- tius, which served to mark the hours on a horizontal dial, drawn upon the pavement. They were called by the Egyp¬ tian priests the “ fingers of the sun,” because they were made in Egypt to serve also as styles or gnomons for mark¬ ing the hours on the ground. The Arabs still call them “ Pharaoh’s needles.” All the learning on the subject of obeliks will be found accumulated in the elaborate work of Zoega (Zte Origine et Usu Oheliscorum) printed at Rome, and illustrated with very beautiful and accurate plates, in which the hieroglyphics are represented with great dis¬ tinctness and accuracy. OBERGLEICHEN, a city of the grand duchy of Saxe- Gotha, in Germany, in the circle of Volkerode, the capital of a bailiwick of the same name. It is situated on the river Ohre, in the Thuringen Forest, and is the property of Prince Hohenlohe of Neuenstein, now mediatized. It contains four churches, two hospitals, 860 houses, and 3640 inhabitants, who carry on various manufactures, especially those of woollen, iron, and copper. Lat. 50. 50. 33. N. OBERNAl, or Oberehinheim, a town of the depart¬ ment of the Lower Rhine, and the arrondissement of Schlet- 318 O B L Oblati. Obernik stadt, in France. It stands on the river Ergers, upon the 11 side of the mountain Odilienberg, and contains 4480 inha¬ bitants, who carry on a great trade as coppersmiths and bell-founders. OBERNIK, a town of the Prussian government of Po¬ sen, the capital of a circle of the same name, which con¬ tains four towns and 109 villages, with 32,200 inhabitants. It stands on the river Wartlie, at its junction with the Welna, and contains 1200 inhabitants, of whom more than one third are Jews. It has some linen weaving. OBERZO, a city of Austrian Italy, in the province of Milan and delegation of Treviso. It was the Opitergum of Strabo, and formerly stood on the sea, but is now some miles from it. It is fortified, and contains 730 houses, with 4560 inhabitants. Long. 12. 24. 49. E. Lat. 45. 46. 23. N. OBI, a great river of Asiatic Russia, which is said to rise in fifty-two degrees of north latitude, on the southern side of the Altai Mountains, from a lake called by the Tar¬ tars Altyn Noor. It is now denominated By, and was for¬ merly known by the name of the Great River, as being the longest which flows through Asiatic Russia. It receives the waters of the Irtysch, after which it becomes very broad, and sometimes extends several miles across. It also spreads out into branches, which again re-unite and form numerous islands. It flows through the governments of Kolivan, Tobolsk, Tomsk, and Narym. The entire length of its stream is two thousand miles ; yet, from the northerly course which it takes into the barren and inhos¬ pitable regions of Northern Asia, it is comparatively of much less benefit in facilitating the internal communica¬ tions of the country than if it flowed east and west, as it only gives access to countries cold, unproductive, and barbarous, which mankind would rather desire to fly from than to visit. It abounds, however, in fish, which might become a lucrative object of trade, as during the sum¬ mer season they might be sent along the Northern Ocean to Archangel. , . , . . OBIDOS, a town of Portugal, in the province of Lstre- madura, and the corregimento of Alenquer. It is situated near the sea coast, on an inlet which forms a small lake call¬ ed the Lago de Obidos, and contains 1090 houses, but not much more than 3500 inhabitants. On a hill adjoining are the ruins of an ancient castle. A battle was fought at this place by a part of the Duke of Wellington s army, pre¬ vious to the conflict of Vimiera, in August 1808. It is about forty-five miles north of Lisbon. OBJECT, in Philosophy, is something apprehended or presented to the mind by sensation or imagination. See Metaphysics. OBJECTIVE, is a term used in the schools, in speak¬ ing of a thing which exists no otherwise than as an object known. The existence of such a thing is said to be ob¬ jective. OBIT signifies a funeral solemnity, or office for the dead, most commonly performed when the corpse lies in the church uninterred; and also the anniversary office. The anniversary of any person’s death was called the obit; and to observe such day with prayers and alms, or other com¬ memoration, was the keeping of the obit. In religious houses they had a register, in which they entered the obits or obitual days of their founders and benefactors, and which was thence termed the obituary. The tenure of obit or chantry lands was taken away and extinguished by 1 Edw. VI. c. 14, and 15 Car. II. c. 9. OBLATE, flattened or shortened, as an oblate spheroid, having its axis shorter than its middle diameter, and be¬ ing formed by the rotation of an ellipse about its shorter axis. The earth, the polar diameter of which is shorter than the equatorial, is an oblate spheroid. OBLATI, in church history, were secular persons, who O B S devoted themselves and their estates to some monastery, Obi into which they were admitted as a kind of lay-brothers. The form of their admission was putting the bell-ropes Ub: of the church round their necks, as a mark of servitude. They wore a religious habit, which, however, was different from that of the monks. OBLIGATION, in general, denotes any act by which a person becomes bound to another to do something, as to pay a sum of money, be surety, or the like. Obligations are of three kinds ; natural, civil, and mixed. Natural ob¬ ligations are entirely founded on natural equity ; civil obli¬ gations rest on civil authority alone, without any necessary foundation in natural equity; and mixed obligations are those which, being founded on natural equity, are besides enforced by civil authority. In a legal sense, obligation signifies a bond, in which is contained a penalty, with a condition annexed, for the pay¬ ment of money, or the performance of some act. The dif¬ ference between it and a bill is, that the latter is generally without a penalty or condition, though it may be made ob¬ ligatory ; and obligations are sometimes incurred by mat¬ ter of record, as statutes and recognizances. OBLIQUE, in Geometry, something aslant, or which deviates from the perpendicular. Thus an oblique angle is either an acute or obtuse one, that is, any angle except a right one. Oblique Cases, in Grammar, are all the cases of nouns except the nominative. Oblique Ascension is that point of the equinoctial which rises with the centre of the sun, or star, or any other point of the heavens, in an oblique sphere. Oblique Circle, in the stereographic projection, is any circle which is oblique to the plane of projection. Oblique Descension, that point of the equinoctial which sets with the centre of the sun, or star, or any other point of the heavens, in an oblique sphere. Oblique Line, that which, falling on another line, makes oblique angles with it; that is, the one acute, and the other obtuse. Oblique Planes, in Dialling, are those which decline from the zenith, or incline towards the horizon. Oblique Sailing, in Navigation, is when a ship sails upon some rhumb between the four cardinal points, mak¬ ing an oblique angle with the meridian ; in which case she continually changes both latitude and longitude. OBLIQUES, in Anatomy, a name given to several mus¬ cles, particularly in the head, eyes, and abdomen. OBLONG, in general, denotes a figure the length of which exceeds the breadth ; as, for example, a parallelo- gram. . . OBOLUS, an ancient silver money of Athens, the sixth part of a drachma, and worth somewhat more than a pen¬ ny farthing sterling. ‘ Obolus, in Medicine, is used to signify a weight of ten grains, or half a scruple. OBOJAN, a city of Russia, in the government of Kursk, the capital of a circle of the same name. It stands at the mouth of the Obojanta, where that river falls into the Psol, and contains 430 dwelling-houses, with 5500 inhabitants, all trading in the products of the vicinity. It is 756 miles from St Petersburg. Long. 35. 45. E. Lat. 51. 12. i • OBREPTITIOUS, an appellation given to letters pa¬ tent, or other instruments, obtained of a superior by sur prise, or by concealing from him the truth. OBSCAIA, a gulf of the Frozen Ocean, on the soutn- ern coast of Asiatic Russia, and forming the estuary o the great river Obi. It extends from lat. 66. 40. to < • 15. N. and from long. 72. to 76. E. , OBSCURE, something that is dark, and reflects utw light on material objects, or that is not clear and inte gible in the objects of the intellect. Obw ti ' Occ ij t' ti 15 ill ill 111 iti b k ! | in i! i i i it .. it # It ii i. i> it il OCC it- OBSECRATION, in Rhetoric, a figure by which the orator implores the assistance of God or man. OBSERVATION Island, a small island on the north ^ coast of New Holland, in the Gulf of Carpentaria, on the west shore, and one of Sir Edward Pellew’s group. OBSERVATORY, a place destined for observing the heavenly bodies, being generally a building erected upon some eminence, covered with a terrace for making astro¬ nomical observations. There are many such buildings ; but the more celebrated are, the Greenwich observatory, built in 1676, by order of Charles II. at the solicitation of Sir Jonas Moore and Sir Christopher Wren, and furnished with accurate instruments; the Paris observatory, built by the order of Louis XIV. in the fauxbourg St Jacques ; and Tycho Brahe’s observatory, which was situated in the little island of Ween, between the coasts of Schonen and Zea¬ land, in the Baltic. This last was erected and furnished with instruments at the expense of Tycho, and called by him Uraniburg. Here he spent twenty years in observing the stars, the result of which was his catalogue. Pekin obser¬ vatory Le Compte describes as a magnificent establishment, having been erected and furnished at the intercession of some Jesuit missionaries, principally Verbeist. Of the ob¬ servatory at Benares, Sir Robert Barker gives a very full ac¬ count in the Philosophical Transactions (vol. Ixvii. p. 598). OBSERVATORY Island, or Padevoua, a small island in the South Pacific Ocean, near the north-east coast of New Caledonia. Long. 165. 41. E. Lat. 20. 18. S. OBSIDIONALIS, an epithet applied by the Romans to a sort of crown, conferred on those who had distinguish¬ ed themselves in the attack of fortified places. OBY, or Ouby, a small island in the Eastern Seas, fifty miles long, and from twelve to twenty broad. The so¬ vereignty of this island is claimed by the sultan of Bachian, who has a pearl fishery on its coasts. On this island live many runaway slaves, wdio cultivate cloves, which they sell to the Buggesses. The Dutch have a small fort on the western side of the island. Long. 124.56. E. Lat. 1. 36. S. Little Oby is a small island near the wrest coast of the above island. Long. 127. 12. E. Lat. 1. 26. S. OCANA, a town of Spain, in the province of Toledo, the capital of a partida of the same name, about'thirty miles to the south-east of Madrid. It stands on a fertile plain, and is surrounded with an ancient and now a dilapi¬ dated wall, the buildings bearing more marks of antiquity than ot beauty. It has four churches and eleven religious houses, and is adorned with two fountains, one of them of great beauty. The actual population does not much ex¬ ceed 5000 persons, and the only occupations, besides that of cultivating the surrounding land, consist in making soap, tanning leather, and making a few silk goods. This place has been rendered remarkable by the great battle fought there in November 1809, when the Spanish army of 50,000 was defeated and dispersed by a French force of consider¬ ably less than half that number. OCCIDENT, in Geography, the westward quarter of tie horizon, or that part of the horizon where the ecliptic, or the sun therein, descends into the lower hemisphere. 1111 used in contradistinction to orient. Hence the word occidental signifies any thing belonging to the west; as oc- uuental bezoar, occidental pearl, and the like. ccident that point of the horizon where the sun sets at midwinter, when entering the sign Capricorn. Occident Equinoctial, that point of the horizon where •le su” ®ets when ile crosses the equinoctial, or enters the sign of Aries or of Libra. OCdPITAL, in Anatomy, a term applied to the parts cclPct, or posterior part of the skull, jcp H • T’ something hidden, secret, or invisible. The Opp , Sclei?c.es a.re magic, necromancy, and some others, cun qualities, in philosophy, were those qualities of bo- O C H dy or spirit which baffled the investigation of philosophers, and for which they were unable to give any reason. Un¬ willing, however, to acknowledge their ignorance, they de¬ ceived themselves and the vulgar by an empty title, call¬ ing what they did not know occult. Occult, in Geometry, is used to signify a line that'is scarcely perceptible, drawn with the point of the compasses or a leaden pencil. These lines are used in several opera¬ tions, as the raising of plans, designs of building, and pieces of perspective ; and they are to be effaced when the work is finished. OCCULTATION, \n Astronomy, the time during which a star or planet is hid from our sight, by the interposition of the body of the moon or some other planet. OCCUPANCY, in Law, is the taking possession of those things which before belonged to nobody. This, accord¬ ing to Blackstone, is the true ground and foundation of all property, or of holding those things in severalty, which by the law’ of nature, unqualified by that of society, were com¬ mon to all mankind. OCEAN, the vast mass of salt water which encompasses all pai ts of the globe, and by means of which, in the present improved state of navigation, an easy intercourse subsists between places the most distant. The ocean is distinguish¬ ed into three grand divisions; the Atlantic Ocean, which divides Europe and Africa from America, and is generally about three thousand miles wide; the Pacific Ocean, or South Sea, which divides America from Asia, and is gene¬ rally about ten thousand miles over; and the Indian Ocean, which separates the East Indies from Africa, and is three thousand miles across. The other seas wdiich are called oceans are only parts or branches of these, and usually re¬ ceive their names from the countries which they border on. See Physical Geography. OCEANIDES, in fabulous history, sea-nymphs, daugh¬ ters of Ocean us, from wdiom they received their names, and of the goddess Tethys or Thetis. OCEANUS, in pagan mythology, the son ofCcelusand Terra, the husband of Thetis, and the father of the rivers and fountains. The ancients called him the “ father of all things,” imagining that he was produced by Humidity, which, according to I hales, was the first principle whence every thing was produced. Homer describes Juno as visit¬ ing him at the remotest limits of the earth, and acknow¬ ledging him and Thetis as the parents of the gods. He was represented with a bull’s head, as an emblem of the rage and bellowing of the ocean when agitated by storms or tempests. OCELLUS the Lucanian, an ancient Greek philoso¬ pher of tlie school of Pythagoras, who lived before Plato. His work mp rou Uat/ros, or the Universe, is the only pro¬ duction of his which has come down entire to us ; it was written originally in the Doric dialect, but has been trans¬ lated by another hand into the Attic. William Christian, and after him Louis Nogarola, translated this work into Latin; and there are several editions of it, both in Greek and in Latin. OCHLOCRACY, that form of government in which the populace have the chief administration of affairs. OCHRIDA, a town of Greece, in the province of Alba¬ nia, the capital of a district of the same name, which it has derived from a lake near it, known to the ancients as the Lychnidus. It is situated on the declivity of Mount Maniana Petrin, on the great road formerly leading from Pella to Dyracchium; and near to it runs the river Drino. The inhabitants are descended from a Bulgarian colony, and they adhere to the Greek church, of which religion there is an archbishop in this place. In the vicinity there are mines of sulphur and of silver, the working of which f orms the chief occupation of the population, which amounts to about 4500 persons. 319 Occult II. Ochrida. OCT OCT OCHUS, a king of Persia, and son of Artaxerxes. He was cruel and avaricious, and, in order to strengthen him¬ self on his throne, murdered all his brothers and sisters. His subjects revolted ; but he reduced them to obedience, and added Egypt to his other dominions. Bagoas, his ta- OCTAHEDRON, or Octaedron, \n Geometry, one Oct of the five regular bodies, consisting of eight equal and dir equilateral triangles. (JJ OCTANT, the eighth part of a circle. OCTAPLA, in matters of sacred literature, denotes aw vourite Sfpoisoned him for the insults winch he had Polyglot Bible, columns, and as man, offered to Apis, the god of the Egyptians gave his flesh ^Xtion given to the first eight to be eaten by cats, and caused handles for kntves to be ^OC 8 S made with his bones. . j r nrTAVF in Music. See Interval. OCKLEY, Simon, an eminent orienta ist, an e OCTAVIA, the daughter of Cains Octavius, and sister of of Arabic in Cambridge, was born at Exetci in • Augustus Caesar. She was one of the most illustrious la- was educated at Cambridge, and distinguis ie , ^ ^ies of ancient Rome, being equally conspicuous for virtue uncommon skill in the oriental ^ and beauty> The death of Marcellus, her son by her first a degree in divinity, he was, m EOo, p ^ was husband Claudius Marcellus, constantly preyed upon her Si;lbifprofeSogreo? .heTnivSi.,. He had a large mind, and she died of grief or melancholy, about eleven ,ear, family, and his latter days were rendered unhappy by pe¬ cuniary embarrassments. He died in the year 1^-°; 1 e principal works of Ockley are, 1. Introductio ad Linguas Orientales, a small volume; 2. The History of the Jews throughout the World, from the Italian of Leo Modena; 3. The Improvement of Human Reason, from the Arabic ; 4. The History of the Saracens, in 2 vols. 8vo. This last work is justly valued for its accuracy and erudition. _ OCKZAKOFF, or Oczakow, a city, once of great im¬ portance and much historical interest, in European Rus¬ sia, belonging to the government of Cherson. It stood on the Black Sea, and, from its commanding the navigation of the rivers Bug and Dnieper, it was strongly fortified by before the Christian era. Her brother paid great ho¬ nours to her memory, and pronounced her funeral oration. The Roman people also showed their respect for her vir¬ tues, by wishing to pay her divine honours. OCTAVIANUS, or Octavius Caesar, was the nephew of Julius Caesar the dictator, being the son of Accia, his sister, by Octavius, a senator; and he afterwards became emperor of Rome. He was born in the yrear of tne city 691, during the consulship of Cicero. His uncle Julius Caesar adopted him, and left him the greater part of his fortune. When he was about twenty years of age he was raised to the consulship. His youth and inexperience were ridi¬ culed bv his enemies ; but notwithstanding this obstacle, r , • i j ii „u:— ui me uve.o - y * • v>;s nrndpnce and valour soon silenced all objections. He the Turks, and considered as an important barrier g^ ^ mJ[e war ainst his opponents on pretence of avenging the advancing progress of the Russians in that p assassination of his uncle, and engaged in five civil their territory. The citadel connected w.th the ‘'“"clas, namely,’ the wanfot Marina, Peru- of prodigious strength, and sui rounded wit . pj jj- • s;ciiy and Actium; the first and last of which ty-five i'eet in height. It was, however unable to res, , ^Fh^j.., bjet y, ^^ ^ ^ agai|)st L AnMJ, the military force w ith winch the Russians attacked . , ° f , tn |nvir ; t|le third against Brutus andCas- 1737. Th/siege was obstinate, but at length ,t was taken brother^ the tnumvir^e m of Pm. by assault, after a bloody contest, m u nc f j pey Jhe Great. He united bis forces with those of Antony Russians lost more than 18,000 men. in e » Lr the battle of Philippi; and had he not been supported year, the Turks, eager to retake the place, advanced with his colleague, he would an army of 70,000 men ; but they weie repu se wi doubtless have been totally ruined in that engagement, loss of more than 20,000 of their number. Having acco - triumvirate with Antony and Lepidus, he obtained plished and secured the conquest the Jbe^Vstern pam of the Rou'ian empire ; and, like hi. fortifications, and abandoned the sP°t* ^ ?e 1 d in. other colleagues, the more firmly to establish his power, he constructed once more the works of defence, and n a ib d ^ enemies and cut them off. The triumvirate tained a powerful garrison within it till the year 1788, C He had given his sister Octavia in when the Russians again attacked it. The latter, c marr-ia„e t0 Antony, to render their alliance more lasting; manded by Suwaroff, besieged it for a long time, a butwhen Cleopatra had charmed this unfortunate man,0c- timately carried it by storm, with a tremendous loss of Me but when Ueopa^ a Augugtus immediately took up anas to both armies. By the peace of 1/91, the v o tbe wr0ngs of his sister, but perhaps more from trict was ceded to Russia, upon which desire^to remove a man whose power and consequence were demolished. The establl*bment of Odessa w' kept him in continual fear and constant dependence. Both thirty miles of Ockzakoff has reduced the place to ins g - P Actium to decide the fate of Rome. An- ficance; though, from its position on the two navigable alVthe power of the East, and Au- rivers, it is favourably situated for commerce, having goo ^ of ItaL Cleopatra fled from the battle anchorage within the bar of the river Bug. Lo g. - y . and her flight ruined the interestof An- 39. 10. E. Eat. 46. o9. 0. In. . J' fbiiovved her into Egypt. The conqueror soon OCRA, a viscous vegetable substance well known m t0 Egypt) vvbere he besieged Alexan- the West Indies, where it is used to thicken soup, parti- ^ ^ h^noured with a magnificent funeral his unfortu- cularly pepper pot, as well as for other purposes. ’ colieague and the celebrated queen, whom the fear OCRISIA, in fabulous history, the wife of Cormculu , “fte the victor’s triumph Rome had driven to and one of the attendants of ianaqml, the wife of larqu - commif suicide> After he had established peace all over nius Priscus. „ . . . „,nrid bp shut the nates of the temple of Janus in tne OCTAETERIS, a cycle or term of eight years in the J10™’ “ SHe twice determined to lay of the wheat from Odessa is sent thence to 6ts in Malta, and the ports of Italy, trance, and ODE the Mediterranean. It is there often a substitute for wheat ^grown near them ; and when this grain is scarce in Eng¬ land, and other distant markets, the produce of their own harvests is exported. The following table will show the fluctuations in the exports. An Account of the Quantities of Wheat exported from Odessa in each Year from 1814 to 1836,/row consular returns. 1814 187,685 quarters. 1815 372,309 ... 1816 801,591 ... 1817 870,893 ... 1818 538,513 ... 1819 627,926 ... 1820 534,199 ... 1821 435,305 ... 1822 342,752 ... 1823 443,035 ... 1824 427,767 ... 1825 170,370 ... 1826 Little or no demand, freights high, and no ships to be had. 1827 No trade in corn ; all affairs suspended, from the state of public matters in Constantinople. 1828 Trade suspended by the war with Turkey. 1829 No trade in corn this year. 1830 149,209 quarters. All exported in the last three months of the year, when peace was concluded. 1831 No returns. 1832 401,981 quarters. 1833 101,000 quarters. All exported in the first three months of the year. 1834 45,000 quarters. Crops partially failed. 1835 283,575 ... 1836 452,714 ... The variations in price during this series of years were excessive. Thus the average price of the year 1825, which was the lowest, was only 13s. 6d. the English quar¬ ter; and the average price of the year 1817, which was the highest, was 49s. 1 Id., being fluctuations to the extent of 37o per cent. The excessive fluctuations in the price* as well as the quantity of the exports, have had a great in- uence on the prosperity of the city, the chief export con¬ sisting of a single article. In the year 1817, the wheat shipped at Odessa was 870,893, at an average of 50s. the quarter, and thus amounting to L.2,177,232. The quantity shipped in 1825 was 170,370, at 13s. 6d. the quarter, thus amounting to no more than L. 115,100. It is natural to sup¬ pose that a declension in the amount of a single article of exportable produce, to the extent of more than nineteen paits in twenty of its value, must have caused a great con¬ vulsion amongst the mercantile establishments at Odessa; and accordingly, in the eight years from 1817 to 1825, almost the whole of them were reduced to a state of-insol¬ vency As regards the producers of the article in ques- irAlfUfi t,°0i^ffered severely* The high prices obtained • , ,a, 1817 gave an impulse to agriculture, which TOV,UfCe tle ProPr^etors °f land to apply to its cultivation rr a-!Ver ^aPIta* they could obtain, either by their own crecut, or by mortgaging their estates. The latter was ef- vprp! ,W!t e Sref facility, and to an extent which was se- nftv,2 6 t or atong period by the larger proprietors. Many rrnwn8 1 CU t!vat°rs’ who occupied land belonging to the for tt,’ °n^ eases’ with neither rent nor taxes to pay nrinp^ ,.Ist twerAy-five years, were induced, by the low to tlio °\W 1:0 ahandon their holdings, and to repair commpC1 ,w. '^re they could obtain employment in the tivatinn^ i |mid 0CJah°u_r* with a better reward than cul- the vpru^ff . Experience has taught the inhabitants at lentriti Uctuatlng state of the commerce of wheat, and g many of them have applied their capital and O D I 323 Odin. their industry to the cultivation of other articles. The Odeum soil is found to be highly favourable to the growth of flax, but more especially to hemp ; and large quantities of both, are now raised. I he breeding of black cattle has also been much extended, and creates a large export of hides and tallow. I he tallow shipped increased between the years 1816 and 1831, from the value of 100,000 roubles to that of 2,000,000. Large flocks of sheep have also been reared, and the ancient breeds in many cases have been so effec¬ tually crossed by sheep of the Merino race, that much wool of an improved and still improving quality is despatch¬ ed to Italy, France, England, and Germany. The old commercial houses, who had been ruined by the great de¬ preciation in the price of wheat subsequently to 1817, have been replaced by new firms from Russia, Italy, Germany, France, and England, furnished with ample capital and credit. Some manufactures have been established, which yield a surplus of sail-cloth, cordage, and soap. The value of the exports, since the decline in the wheat trade, has more than doubled during the last ten years. The imports consist for the most part of coffee, sugar, olive-oil, cotton wool, wine, cotton, silk, and woollen goods, timber, coals, fruit, dye-stuffs, tea, and hardware. Odessa has also be¬ come a depot for an increasing trade with the ports of Asia on the Black Sea. The number of vessels, and the flags they bore, that en¬ tered Odessa in the course of six years, were— Austrian 953 French 17 Swedish II Spanish 8 Dutch 7 Tuscan 3 American 2 Russian 732 Sardinian 675 British 598 Greek 81 Turkish 32 Neapolitan 25 The tonnage of these is not known ; but as the Austrian and Russian vessels must have chiefly consisted of coasters from the ports of these nations within the Black Sea, it is probable they were of much lighter burden than the ves¬ sels of the other nations which had come through the Bosphorus. The vessels under the British flag belonged mostly to Malta and the Ionian Islands. The situation of Odessa is in latitude 46. 28. 54. north, and longitude 30. 43. 22. east. The climate is healthy, and the winter, though short, is severe, the sea being more or less frozen for about two months. The summer is intensely hot, but it is deemed salubrious. ODEUM, in Grecian antiquity, a theatre for music built by Pericles, the inside of which w-as filled with seats and ranges of pillars, and on the outside the roof descended shelving downwards from a point in the centre, with many bendings, in imitation of the king of Persia’s pavilion. Here the musical prizes were contended for; and here, also, according to Aristophanes, there was a tribunal. ODIIIAM, a market-town of the county of Hants, in the hundred of its own name, forty-two miles from Lon¬ don, and twenty-four from Winchester. It has a market, which is held on Saturday, and but little trade except what arises from its wharf on the Basingstoke Canal. A mile from it are the remains of an ancient castle, in which Da¬ vid king of Scotland is said to have been kept a prisoner.. The population amounted in 1801 to 1058, in 1811 to 1104, in 1821 to 2423, and in 1831 to 2647. ODIN, in Mythology, called also, in the dialect of the Anglo-Saxons, Woden or Wodan, a name given by the an¬ cient Scythians to their supreme god, and assumed, about seventy years before the Christian era, by Sigge, a Scy¬ thian prince, who conquered the northern nations, made great changes in their government, manners, religion, and had even divine honours paid him. According to the ac¬ count given of this conqueror by Snorro, the ancient his¬ torian of Norway, and his commentator Torfseus, Odin was others m ms iram, ii ui.i- & ,, . „„ „ teries, and the like, is termed cbcomowjms. QLCUMENICAL signifies the same with general or universal i as, oecumenical council, bishop, and the like. OEDENBURG, a city of the Austrian kingdom of tflS der the conduct of Pompey ; and having ofticiated as a priest in his own country, he assumed the direction of the religious worship as well as the civil government of the na¬ tions which he had conquered. Having subdued Denmark, Sweden, and Norway, he retired to Sweden, where he died. There is nothing certain in this account; but it is probable that the god whose prophet or priest this Scythian pie- tended to be, was named Odin, and that the ignorance o succeeding ages confounded the deity wit^isPr^St’^‘f ^"the “riverTkvarand' is" a well-built town, with one Lu- K'ofbef the charaeter'oT the northern conqueror. He the™ and two Catholic churches, a monastery and a ». deluded the people by his enchantments and his skill in Having cut off the head of one Mimer, who in his . • <■» • 1 1-v * 1 £3 n/-! 1 4" Hungary, in the province of the Farther Danube. It is the capital of a circle of the same name (called also Soprony- Barmegye in Hungarian), which extends over 1269 square miles, and comprehends three cities, forty-one market- towns, and 200 villages, with 185,700 inhabitants. It stands magic. Having v-at, v/.. - - , • lifetime enjoyed great reputation for wisdom, he caused it to be embalmed, and persuaded the Scandinavians that he had restored it to the use of speech, and caused it to pronounce whatever oracles he wanted, ihe Icelandic chronicles or sagas represent Odin as the most eloquent and persuasive of men ; they ascribe to him the introduc¬ tion of the art of poetry amongst the Scandinavians, and likewise the invention of the Runic characters. He had also the address to persuade his followers that he could run over the world in the twinkling of an eye; that he had the direction of the air and the tempests; that he could transform himself into all sorts of shapes, raise the dead, foretell things to come, deprive his enemies by en¬ chantment of health and vigour, and discover all the trea¬ sures which were concealed in the earth. I hey add, that bv his tender and melodious airs he could make the plains ^ . . 1 1 -4.K #1 1rrliF . onrl that the theran and two Catholic churches, a monastery and a nun¬ nery, 820 houses, and 12,650 inhabitants, of whom about 5000 are Protestants. It is an industrious place, with ma¬ nufactures of cotton, woollen, silk, and linen goods, besides glass-houses, sugar refineries, and iron forges; and the neighbourhood yields some good wine. Long. 17. 28.11. E. Lat. 47. 40. 36. N. CEDIPUS, an unfortunate king of Thebes, whose his¬ tory is partly fabulous. He flourished about 1266 before Christ. It is said he was given by his father to a shepherd, who was ordered to put him to death, in order to prevent the misfortunes with which he was threatened by an oracle. But the shepherd, being unwilling to kill him with his own hands, tied him by the feet to a tree, that he might be devoured by wild beasts. The infant was however found in this situation by another shepherd named Phorbas. who carried him to Polybus king of Corinth, whose queen, hav- in«- no children, educated him with as much care as if he had been her own son. When he had grown up, he was uy ms icuuv.1 ui.va • » .loiiaVit- • and that the informed that he was not the son of Polybus; upon which, and mountams open and exP“"f^ Jbv order of the oracle, he went to seek for his father is ghosts, thus attracted, would leave t , . p{ :s . w scarcely had he arrived in that country when and stand motionless about him., fhape of he met’ hi" Ser on tL road, and killed him withoat and furious |n battle , changing enemies knowing him. A short time afterwards, having delivered anODOACEH,e according to Ennodius, was ^i^t^^d tii^^l^lS and only a private man m he purds of die f uof ^.s me'sh ^ \ghu put out his eves. Eteocles and Pm Basilicas a^d Armatus/the barbarians chose him for their lynices, both celebrated amongst the Greeks, were then- leader. The barbarians thought that, as they often defend- sut0'!'*“'“n" Gold Coast of Africa, situated cd Italy, they had a right ^13 upo” ^^^0° emLnee, wS rises by’a gentle demanding th^ th^y were rel^ised, and - uncom- alcent to a considerable height, and is defended by rocks, rnVaTts! capaUe Se S commanding an army or of go- agai^t^^e waves bea.^A *e mrnos^lenee verning a state. Having left his own country when he was very young, to serve in Italy, he was admitted amongst the emperor’s guards, and toll the river Ohm, is the above year; when, putting hX ^So^h of diffeSnt na- residence of the prfnce, and contains, besides the palace, banans m the Roman pay, who, a ! „ houses, with 3327 inhabitants, who are occupied m r^d aiToSttand' S „beAugurs.ultrwh„ making Jewellery and goid and silver articles, also ,n the SiH reteJ to sLVe any of the lands in Italy. The Ro- cotton manufacture, and m growing wine, mans were inferior both in numbers and in valoui, and were, therefore, easily conquered. Orestes was ordered to be slain; but the Emperor Augustulus was spared, and, although stripped of bis dignity, was treated with humanity, and allowed a liberal sum for his own support and for that of his relations. Odoacer was proclaimed king of Italy, but ramst WHICH UIC wavco \ T. OEHRINGEN, a city of the kingdom of Wirtemberg, in the circle of the Jaxt, the capital of a bailiwick of the same name, in the territories of the mediatized Prince ot IsL'Uii iiic**• j »-** ^^■'7 o o i • o ort OELAND, or Oland, an island in the Baltic bea, apart of the province of Calmar, in Sweden. It is about seven¬ ty miles in length from north to south, and about seven miles in breadth from east to west. The western side is flat, and the eastern rather hilly; but the centre is a ev^ of his relation.. Odoacer was proclaimed king of Italy, but h^wAs tzzTkJ et; ^ .ha, »„ Theodoric the Ostrogoth. ODOMETER, an instrument used for measuring the distance passed over in travelling. ODOROUS, or Odoriferous, appellations given to whatever smells strongly, whether they be fetid or agree¬ able, but chiefly to things the smell of which is brisk and PleGECONOMICS, the art of managing the affairs of a It has some good pastures, which furnish dairies; a considerable fishery is carried on upon the coast, it c tains no market-town, but has eight parishes, and ^ inhabitants. ^ ■ „c tsilpsia, OELS, a circle of the Prussian province of » which has become remarkable on account of i s> , , been bestowed on the Duke of Brunswick when exp from his hereditary dominions by Bonaparte. A w OFF merly a sovereignty, but is now mediatized; and the an¬ cient race of its dukes has become extinct. It extends ^over 814 square miles, and contains nine cities and towns, 344 villages, and 164 hamlets, inhabited by about 95,000 persons. The chief place is the city of the same name situated on the river Oelse, which runs to the Weyda in its course to the Oder. It is surrounded with walls, and con¬ tains one Catholic and five Lutheran churches, 480 houses, and about 5000 inhabitants. In the ancient castle of the dukes is a numerous library and a cabinet of natural his¬ tory. The chief employment of the inhabitants is in the linen trade. CENOPTiE, in Grecian antiquity, a kind of censors at Athens, who regulated entertainments, and took care that none drank too much or too little. CEREBRO, one of the provinces of the kingdom of Sweden, being the westernmost part of Westmanland. It extends in north latitude from 58. 40. to 60. 6. and in east longitude from 14. 6. to 15. 42., and contains a super¬ ficies of 3784 square miles. It is divided into four districts or bailiwicks, viz. Osterwick, Westrericke, Nora cum Linne, and Leke cum Carlscrona, and contains 110,000 inhabi¬ tants. It is surrounded with mountains, but none of them higher than 2000 feet, and the interior is flat or undulat¬ ing. It is an internal province, but connected with Stock¬ holm by means of the river Heilmaren. It contains a great number of fresh-water lakes. The climate is raw and cold, but in the short summer vegetation is surprisingly rapid. The best agriculture is in the southern part, but there the seed rarely produces more than four-fold. The chief grains are rye, oats, and barley; and of late potatoes and turnips have been introduced. The chief production is timber, and the cutting and preparing of it for market is the princi¬ pal occupation. There are some mines of iron and of cop¬ per worked. The capital is the city of the same name, si¬ tuated at the entrance of the river Svartelf into the Heil- maren. It is chiefly built of wood, has a good market, a church, and an hospital, and contains 750 dwellings, with 3240 inhabitants, a few of whom are employed in making cloths, hosiery, and ironmongery articles. Long-. 15. 4. 5. E. Lat. 59. 15. 14. N. CETA, in Ancient Geography, a mountain of Thessaly, extending from Thermopylae westward to the Sinus Am- bracicus, and in some measure cutting at right angles the mountainous country stretching between Parnassus to the south and Pindus to the north. OETTINGEN, a city of the kingdom of Bavaria, in the circle of the Rezat, which, with a district around it of seventy square miles and 12,500 inhabitants, forms a bailiwick belonging to the mediatized Prince of Oettingen- Oettingen. The city is the residence of the prince. It stands on the river Wernitz, is well built, and contains a Lathohc and a Lutheran church, 460 houses, with 3480 in¬ habitants, who are chiefly employed in making linen and cotton goods. Long. 10. 31. 5. E. Lat. 48. 57. 27. N. OFFENBACH, a city of the grand duchy of Hesse, in Germany, in the province of Darmstadt, and the capital or a bailiwick of the same name. It stands on the river awe, and is well built, being on one side surrounded with a wall, and on the other with a ditch. It contains 530 'ouses, with 6950 inhabitants, who are chiefly occupied in tna ing hon and hardware, and a variety of ornamental ar- t‘c^s of steel, silver, and gold. r 1 Amongst the Hebrews there were seve- aunuds °f offerings, which they presented at the temple. offerings, and others were offerings of ‘on- 1 ll^ fruits, the tenths, and the sin-offerings, winp 0,°1 ’i reaC^ Sa^’ an(^ other things, which were made to ol'rlo, ^ 6 01"riM0 ^le ni‘n’sters of the Lord, were offerings o ion. ihe Hebrews called offerings in general cor- O H I ban. But the offerings of bread, salt, fruits, and liquors, as wine and oil, which were presented at the temple, they termed mincha. The sacrifices are not properly offerings, nor are they commonly included under that name. OFFICIAL, in the canon law, an ecclesiastical judge, appointed by a bishop, chapter, or abbot, with charge of the spiritual jurisdiction of the diocese. Official is also a deputy appointed by an archdeacon as his assistant, and who sits as judge in the archdeacon’s court. OFFICINAL, in Pharmacy, an appellation given to such medicines, whether simple or compound, as are re¬ quired to be constantly kept in the apothecaries’ shops. OFFING, or Offin, in nautical language, that part of the sea a good distance from shore, where there is deep water, and no need of a pilot to conduct the ship. Thus, if a ship from shore be seen sailing out to seaward, they say, “ she stands for the offingand if a ship, having the shore near her, have another a good way without or beyond her, towards the sea, they say, “ that ship is in the offing.” OGHAMS, a particular kind of stenography, or writing in cipher, which was practised by the Irish. Of these there were three kinds. The first was composed of certain lines and marks, which derived their power from their situation and position, as they stood in relation to one principal line, over or under which they were placed, or through which they were drawn. The principal line was horizontal, and served for a rule or guide, the upper part of which was called the left, and the under side the right; above, under, and through which line, the characters or marks were drawn, that stood in the place of vowels, consonants, diphthongs, and triphthongs. OGIVE, in Architecture, an arch or branch of a Gothic vault, wdnch, instead of being circular, passes diagonally from one angle to another, and forms a cross with the other arches, ihe middle, where the ogives cross each other, is called the key, being cut in the form of a rose, or a culde lampe. The members or mouldings of the ogives are call¬ ed nerves, branches, or reins; and the arches which sepa¬ rate the ogives, double arches. OGYGES, king of the Thebans, or, according to others, of Ogygia and Acta?, afterwards called Bceotiaand Attica. He is recorded to have been the first founder of Thebes and Ffieusis. The famous deluge happened in his time, in which some say he perished, along with all his subjects, 1796 before our era. OHANG Java, a cluster of islands in the Pacific Ocean, discovered by Tasman. Most of them are little better than large rocks. Lat. 4. 36. N. OHETEROA, an island about twelve miles in circum¬ ference, in the South Pacific Ocean, without either harbour or anchorage, and only a foul and rocky bay on the west coast. The inhabitants are active, well made, and of a dark complexion. They form circles round their arms and legs, but have no figures on the other parts of their body. Their clothing is made of the bark of a tree, and is curiously coloured; and some of them wear bonnets, adorned with feathers, whilst others wear white stuff in the form of a turban. Their arms are lances made of very hard wood, and long pikes. This island was first dis¬ covered by Captain Cook in the year 1769. It is well in¬ habited, though it is not twenty miles in circumference. It has not, like the Society Islands, any coral reef sur¬ rounding it. Long. 150. 47. W. Lat. 22. 27. S. OHEVAHOA, a steep and craggy island in the South¬ ern Pacific Ocean, about fifteen leagues in circumference. Its deep valleys, and the sides of its hills, are clothed with trees and with verdure. It is situated in long. 139. 2. W. and lat. 9. 42. S. OHIO, one of the principal states in the North Ameri¬ can union, is situated between 38.30. and 42.0. of north la- 325 Official U Ohio. 326 OHIO. Ohio. Rivers. titude, and between 80.28. and 84. 42. longitude west from Greenwich. On the north it is bounded by Michigan and Lake Erie; on the east by Pennsylvania and the river Ohio; on the south by the Ohio River, which separates it irom Virginia and Kentucky; and on the west by Indiana. Ohio may extend about 220 miles from north to south, and as much from east to west; but as Lake Erie projects consi¬ derably into the northern borders, and the Ohio cuts on much of its southern quarter, the area of the state cannot be computed at more than 200 miles square. Ohio occupies about one third of the plane which declines from Pennsyl¬ vania to the Mississippi, and may be considered generally as a surface of table-land, sloping in one direction towards the Ohio, and in the other towards Lake Erie. The state is di¬ vided by nature into four grand divisions, which are named after the principal waters on which they are situated. Ihese are the Miami country, the Scioto country, the Muskingum country, and the Lake country. The interior and northern parts of Ohio are generally level, but the northern belt has large tracts of wet and marshy soil. They are however placed in such positions as render them easily drained; and when they are cleared of the forests which cover them, they will form not the least valuable parts of the state, in its primitive condition, Ohio was, with the exception of some central prairies, overspread with a dense forest, to which the o-reat fertility of the soil gave a stupendous development; fndeed the size, majesty, and variety of the trees of the Ohio basin has been a theme of just admiration. There are still extensive tracts of land heavily timbered, and which are as level as prairies. The forest-trees are the same as those of Kentucky and Indiana, excepting that the peccan tree, which is common on the waters of the Wabash, is seldom found here. The forests are deep, and some of them aie in the richest soils, where, however, the trees are less re¬ markable for their size than for their straightness. On the head waters of the two Miamis, the Muskingum, and the Scioto, there are rich and extensive prairies, some of which are low and marshy, and others are elevated and dry, the latter being by no means so fertile as the former. Imme¬ diately on the borders of the Ohio, there are numerous tracts of intervale or meadow-land of exuberant fertility. In the interior parts, bordering on both sides of the Scioto, and on the two Miamis, are the most extensive tracts of rich and level land. About one quarter of the eastern and south-eastern divisions of Ohio is hilly, in some places too broken, and precipitous to admit of cultivation ; but in no parts are the hills very large or high, and nine tenths of the surface of the state are susceptible of cultivation. “ On its whole wide surface,” says Mr Flint, “ there is scarcely any land so hilly, sterile, or marshy, as, with moderate la¬ bour, may not be subdued, drained, or cultivated, ihe whole region seems to have invited a hardy and numeious body of freeholders to select themselves moderate and nearly equal-sized farms, and to intersperse them over its surface. In respect to the smallness of the farms, the number, equality, and compactness of the population, not confined, as farther west, to the water-courses, but diffus¬ ed over the whole state, it compares very accurately with New England.” The principal river of Ohio is the noble and beautiful stream to which it owes its name; but this will demand a separate notice. The next largest and most interesting rivei in this state is the Great Miami, which rises between 40 and 41 degrees of north latitude, and interlocks with the Massis- sineway of the Wabash, and the St Mary’s and Au Glaize, branches of the Maumee and Scioto. It has a south-wes¬ terly course of above fifty miles, flowing in a strong but generally smooth and unbroken current, through a valley of uncommon width and fertility, receiving several tribu¬ taries in its course. The Little Miami rises in the south¬ west corner of Madison county, and, after traversing several counties, joins the Ohio seven miles above Cincinnati. It is of little importance as a navigable stream; but it is va-' luable in a manufacturing point of view', there being up¬ wards of sixty mills upon it. It has a number of branches; and about one hundred miles from its mouth it forms sin¬ gular rapids, the stream being compressed to ten yards in width, and falling two hundred feet within no great dis¬ tance. The country between the Great and Little Miami is in general finely watered, healthy, pleasant, and fertile, and may be characterised as the garden of the state. The Scioto is a considerable river of Ohio, and has the whole of its course in the state, being little short of two hundred miles, one hundred and thirty of which are navigable. It rises in a morass north of Logan county, in the southern division of the state, and has generally a south-easterly course. The banks of the Scioto now rank amongst the most fertile, eligible, and pleasant parts of the state. Be¬ tween this river and the Muskingum is situated the great Hockhocking and its waters. It has a deep and still but narrow channel, and is navigable for boats forty miles above its mouth, having also a number of mills erected on it. The Muskingum rises near the sources of the Cuyahoga of Lake Erie, in the southern part of Connecticut Reserve. Its course is remarkably sinuous, but its general direction is to the southward. It has a long course, traversing a number of counties, is boatable in good stages of the water one hun¬ dred miles by the course of the river, and enters the Ohio at Marietta by a mouth two hundred and fifty yards wide. The Mahoning is also a large stream, which, with those al¬ ready described, may be considered as belonging to the southern division of the state. In the north there is the Maumee, which rises in the north-eastern angle of the state of Indiana, and flows in a north-eastern direction, across the north-western borders of the state of Ohio, into the western extremity of Lake Erie. I his important rivei has u course of one hundred miles, and is a broad, deep, navigable stream. It has a valuable fishery, and its banks in the season of vegetation are remarkable for the luxuriance of their verdure. The St Joseph, the St Mary s, and the Great and Little Au Glaize, are considerable tributary streams of the Maumee. The Sandusky rises in the wes¬ tern limits of Richland county, and runs in a general north- w'est direction ninety miles to the lake. It is more rapid than the other lake streams, but yet affords good naviga¬ tion. Cuyahoga rises in the central parts of Geauga county, and falls into the lake at Cleveland, after a course of sixty miles, for the greater part of which distance it is boatable. Chagrin, Grand, Ashtabula, and Coneaught, are consider¬ able streams, which rise near the lake, run in a norther¬ ly direction, and discharge their waters into it. _ Ohio possesses an extensive and rich coal region in itSMii eastern and north-eastern divisions, on the Muskingum, the II tinvA uw* ~ i ■ Hockhocking, and the Scioto. The mineral is not only in great abundance, but of the best quality ; and m the same region vast quantities of iron ore are found. Limestone, marble, and freestone abound ; they are easily accessible, and are admirably adapted to building and public works. The useful earths and fossils are also in abundance. Spe¬ cimens of gypsum are procured from Sandusky Bay. halt springs are common, and some of them contain as mud saline matter as the waters of the ocean. Nearly halt a no - lion bushels of salt are annually manufactured in the state. Those springs the waters of which are drank for medicma purposes are most of them more or less impregnated wi muriate of soda. The Yellow Springs, the most celebrated watering-place after Harrodsburgh Springs in the wes countryf are situated near the tails of the Miami, sixty- three miles from Cincinnati. The antiquities wine long to this state are somewhat similar to those desc in the article New York ; mounds of earth, in which been found domestic utensils, pottery, vases, and tnn OHIO. 327 Instruments of warfare have likewise been dug up, amongst ^ which Mr Flint mentions a curious sword and an iron horse¬ shoe of a diminutive size. Except along the deep vales of the Ohio, and those of the other streams near their influx into that great recipient, the climate is as uniform as the surface, and considerably more severe in the winter season than in corresponding latitudes on the Atlantic. But the other seasons are warmer, and the nature and luxuriance of the vegetation indicates a temperature of greater mildness in general. The summers are warm, and pretty regular, although to a certain extent subject to tornadoes. The central parts of the state are in the same latitude with Philadelphia. The mean tem¬ perature of the year at this city was found to be 53°; but during the same year that of Ohio was two degrees higher. As we recede from the Ohio, the temperature diminishes in a greater ratio than the latitude would indicate; but in general throughout the state there is a striking cor¬ respondence between the two. Whilst the summers are warm, the winters are very severe, and the river Ohio has occasionally been crossed at Cincinnati for nine consecu¬ tive weeks. At other times this season of the year is mild ; but during the winter months the transitions from heat to cold and the reverse are frequent and violent. In that part of the state which slopes to the south, the snow sel¬ dom falls deep or lies long; but in Connecticut Reserve, and in the points which slope towards the lakes, they have deep and durable snows. Autumn is almost uniformly tem¬ perate, dry, and beautiful; and spring is also a pleasant season. Ihe winds of Ohio, whether high or low, gene¬ rally blow from the west and south-west at all times. In some parts, near marshes and stagnant waters, fevers and agues frequently prevail; but the climate in general is de¬ cidedly healthy. The soil and the climate of Ohio together are admirably adapted to the most valuable vegetable productions which grow in such a latitude. The soil is very productive, with¬ out, however, being so remarkable in this respect as some parts ot Illinois and Missouri. After the severity of win¬ ter abates, which is early in February, vegetation begins to put forth its powers ; and as the heat of spring and sum¬ mer takes effect upon the soil, it advances with astonishing rapidity. Ohio, generally, has a soil admirably adapted to wheat. Indian corn is the staple grain, and it is nowhere raised more easily, or in greater abundance. On rich allu- 'ial soils 110 bushels have been produced from an acre; but fifty may be considered as about the average crop. Rye, barley, oats, spelts, buckwheat, and all other grains, are raised in great abundance and perfection. Melons, squashes, pumpkins, the pulses, garden vegetables both bulbous and others, as potatoes, onions, beets, carrots, pars¬ nips, asparagus of the best description, and various culi¬ nary products of the soil, attain the highest development. From its stiff, clayey nature, the soil retains moisture well, an is better fitted for gardens than the soils farther west. Fruits of all kinds are raised in the greatest profusion; and apples in particular are very plentiful. Pears, plums, peaches, cherries, strawberries, grapes, and what not, are cu tivated to such an extent as amply to supply the mar- ets. “ In a few years,” says Mr Flint, “ this state will a e place of any in the Union, in the abundance and ex- ce ence of its fruits of all kinds. From the fulness and nc ness of the clusters of cultivated grapes, it is clear that ns oug it to be a country of vineyards. The Germans iave already made a few establishments of the kind with an ,ir(!.success\ Apricots, nectarines, and quinces succeed; , 18 state is the appropriate empire of Pomona. Re- FI ^ .acco ^a.s been added to the articles cultivated, stilt Lm4 ls.an article of cultivation in some parts of the slow' ^ Sncultural improvement, however, proceeds with pace. Ihe people generally are not at all given to ex¬ periment, and continue to farm in the old and beaten rou- Ohio, tine....Besides trees, shrubs, and vines, this state produces a great abundance of indigenous productions that are use¬ ful in medicine. We may mention actea racemosa, squaw root, Virginia snake root, Indian turnip, ginseng, which is dug in considerable quantities as an article of commerce, Colombo, labelia, valerian, blood root or sanguinaria, cana¬ densis, and various other herbaceous medicinal plants.” This state, being more populous than any other in the Commerce, west, and possessing in many respects manufacturing capa¬ bilities, has taken precedence of all the rest in manufactures. Cotton yarn, cloth, and woollen goods, are already manu¬ factured to a considerable extent, as are also flour and spi¬ rits ; and family manufactures are likewise industriously prosecuted. The principal domestic articles of trade are horses, cattle, swine, whisky, flour, and tobacco. Those articles which are exported from the northern and some interior counties are frequently sent to Montreal and New York markets, by way of Lake Erie. From the southern parts of the state they are transported down the Ohio and Mississippi to New Orleans. Foreign goods are received from the same place by the steam-boats, and from Phila¬ delphia and Baltimore across the Alleghany Mountains. “ The surplus produce of the state of Ohio,” says Mr Pit¬ kin, in his Statistical View of the Commerce of the United States, “ it is believed, may be calculated at about ten mil¬ lions. The exports of Cincinnati alone, in 1833, were va¬ lued at five millions of dollars. This amount does not pro¬ bably exceed the truth, when it is considered that the number of hogs slaughtered in that city in 1833 was 123,859, which would make as many, and probably more, barrels of pork, and, in the same year, 21,880 barrels of pork came to that city by the Miami Canal, making about 150,000 barrels in the whole, and which, at nine dollars per barrel, would be 1,359,000 dollars; and that in 1834, the number slaughtered was 150,000. And we cannot but here remark, that the whole quantity of pork exported from the United States in 1833 was only 105,870 barrels, leaving in favour of Cincinnati 45,000 barrels.” It is of course taken for granted, that of the 150,000 barrels of pork said to be made at this city, all above the 45,000 en¬ tered as having been exported was reserved for home consumption. Mr Pitkin continues, “ the exports of Cleve¬ land on Lake Erie, in the same year, was 1,794,000 dol¬ lars coastwise, and 250,000 to foreign places, and from Huron 274,840 dollars; and from the country of Muskin¬ gum, on the river of that name, and from the flourishing village of Zanesville, with her numerous flourishing mills, as ascertained by those well acquainted with the facts, was 500,000 dollars. The value of the exports from these places alone make about seven millions and three quar¬ ters ; and when it is considered that the quantity of to¬ bacco raised in Ohio in 1833 was 10,000 hogsheads, only 3000 of which is included in the above exports from Mus¬ kingum, and when to these are added the exports from the Sciota valley, and from many other places on the Ohio River, and on the lake, we apprehend that the surplus pro¬ duce of Ohio cannot be less than ten millions of dollars.” The following account of the statistics of Ohio for 1836 Statistics, is taken from the American Almanac for 1837. Value of Taxable Property. Dollars. Lands (17,819,631 acres), including buildings.58,166,821 Town lots, including houses, mills, &c 15,762,594 Horses (262,291, valued at forty dollars each).10,491,640 Cattle (455,487, valued at eight dollars each)...4,043,896 Merchants’ capital and money at interest 7,262,927 Pleasure-carriages, 2603, valued at 199,518 Total 95,927,396 328 0 II I O. Ohio. Taxes Levied. , Dollars. State and canal tax inr ro County and school tax Township tax l^7’97r rq Corporation, jail, and bridge tax , j t ?q Physicians’ and lawyers’ tax Iqq.dI School-house tax io’Sl.q? Delinquencies of former years ° Total 777,782-05 Foreign debt, 4,400,000 dollars Domestic do 579,287 dollars -legal interest...260,000 -ditto 34,757 294,757 Railroads. the Miami university, at Oxford, with eight instructors, 0hiM eighty al umni, seventeen ministers, one hundred and twenty- R—y., six students, and 1200 and 2500 volumes respectively in the college and students’ libraries; the Franklin university, at New Athens; the Western Reserve university, at Hud¬ son ; the Kenyon university, at Gambier; the Granville university, at Granville; the Marietta university, at Ma¬ rietta ; the Oberlin institution, at New Illyria; and the Willoughby university, at Chagrin ; all of which are smal¬ ler than the first two, but have from fifty to one hundred students. There are five theological seminaries, a pres- byterian college at Cincinnati, and another at Hudson, a Protestant episcopal college at Gambier, a Lutheran the¬ ological school at Columbus, and a Fnptist institution of the” same kind at Granville. There are two medical schools; one at Cincinnati, having six professors, and an¬ other at Northing, with four professors. There is a law college at Cincinnati, which has three professors. Amongst institutions of a public character may be mentioned an asylum for the deaf and dumb, which has been established at Columbus. Literature is making considerable progress in Ohio. In 1810 there were only fourteen newspapers in the state, and in 1834 their number amounted to 140. There are, besides, several other periodicals of a literary and scientific nature. _ , Almost every religious denomination is found in thisRelig® state, but the Presbyterians and Methodists predominate. In 1831, which is the latest complete return that we have obtained, the numbers were, of Presbyterians, 22,150 com¬ municants, having 346 churches; of Baptists, 8801 com¬ municants, having 240 churches ; of Methodists, 36,064 members; of Lutherans, 8706 communicants; of Associate Presbyterians, sixty-five congregations; of German Re¬ formed, eighty-two congregations. The Episcopalians had also sixteen ministers, and the New Jerusalem church four societies; and there were, besides, a number of Friends Total...4,979,287 Canal tolls for 1835, and receipts from the sale of Ohio canal lands 306,906 Amount of school funds on loan to the state, 15th November 1835 803,432 Although the first permanent settlement was made in Ohio not more than fifty years ago, and although it was ad¬ mitted into the Union as a state as recently as 180~, yet it has now become one of the most considerable states in the union, has entered largely into the system of internal im¬ provement, and has constructed one of the longest canals in the world. The state canals are under the direction of a board of canal commissioners ; and the Ohio and Miami Canals, which, together with their branches, are more than four hundred miles in extent, have been constructed at the expense of the state. For an account of the canals of Ohio, see the article Navigation, Inland. Railroads have likewise been constructed on the same extensive scale, and numbers of them are in course of being Ohio Canal,'the length being 180 miles. There are some others of smaller size; and some idea may be formed o the extent to which these works are carried, from the fact that no less than twenty-eight companies were incorporat¬ ed in the year 1836. In connection with trade and internal improvement may be mentioned the banks of Ohio. In the year 1835 there were thirty-one banks in this state; and the condition of twenty-nine of these, from which re¬ turns were received, was, that they had of specie 1,906,/ io, and of capital 6,390,741; and that their circulation was 5,654,048. The legal interest in Ohio is six per cent.; but there is no law against usury, so that in some parts it is seldom less, and often more, than ten per cent. Education A laudable zeal has been shown to diffuse education and iitera-throughout this state. In the year 1825 the New England ture. system of tuition was introduced into Ohio, and by various ' emendatory enactments it has now acquired a degree of form and consistency. By an act of the state the trustees of every incorporated township are required to divide it into a suitable number of school districts, the prudential concerns of which are managed by three school directors, a clerk, and a treasurer. The funds for maintaining this vast system arise from various sources besides the easy tax of one mill upon a dollar, constituting a large and growing revenue. By this act it is provided that the youth of every class, without distinction, shall be instructed in read¬ ing, writing, and arithmetic, as well as in other necessary branches of education. There are no less than nine col¬ leges or universities, viz. the university of Ohio, at Athens, with five instructors, seventy-two alumni, twenty-six minis¬ ters, forty-five students, and about a thousand volumes in the’college library, and as many in that of the students ; of this state, that there is a greater number of professors of religion, in proportion to the whole number of the peo¬ ple, than in any state in the Union. There are a vast number of religious societies; but there is not a great number that have regularly established pastors. 1 he cus¬ tom of itinerating preaching, as a supply, is very preva¬ lent. The people are generally a quiet, orderly, peaceable, moral, and industrious race. Suicide, excesses, murders in affray, and instances of deliberate and atrocious cruelty, are rare ; and the general moral character of the people is highly respectable.” From the census of 1830 we learn that there were at that time in Ohio the remains of Indian tribes, amounting to 2350 persons. They then owned 390,846 acres of land, besides 16,200 acres which were secured to individuals belonging to the several tribes. These lands are securet bv treaty to the Wyandotes, Shawnees, Senecas, Dela¬ wares, and Ottawas; the other remnants of tribes being classed with these. Some of them have sold their shares, but to those which still hold them, considerable annul ties are paid by the national government. The numb of individuals belonging to these tribes is grac uu y nishing, and they must soon entirely disappear in the tin of white population which is fast overspreading their n tive territories. There are not many negroes m Ohio, a none are held as slaves. Few descr puons of ,he h* tants are exempted from military duty. rhe.m * this state is principally composed of hardy agnmil ^ and exceeds one hundred and fifty thousand nj6?- ^ P tion of the land in Ohio still belongs to the Untt^e. In the north-east part of the state there is a tract con ing 3,300,000 acres, called New Connecticut, or Ohio O H I O. ticut Western Reserve. The fee of these lands is in the acres, called the Virginia military lands, which are situ- 'state of Connecticut, but Ohi has the jurisdiction. The ated between the Scioto and Little Miami Rivers. The' state of Virginia also owns a tract of above four millions of following table exhibits the Population of the Counties and County Towns of the State of Ohio in 1830. 329 Ohio. Counties. Adams Allen Ashtabula Athens Belmont Brown Butler Champaign Clark Clermont Clinton Columbiana Coschocton Crawford Cuyahoga Dark Delaware Fairfield Fayette Franklin Gallia Geauga Green Guernsey Hardin Hamilton Hancock Harrison Henry Highland Hocking Holmes Huron Jackson Jefferson Knox Lawrence Licking Lorain Logan Madison Marion Medina Meigs Mercer Miami Monroe Montgomery Morgan Muskingum Paulding Perry Pickaway... Pike....' Portage Preble Putnam Kichland Carry forward. vol. xvi. Population in 1830. 12,278 578 14,584 9,763 28.412 17,867 27,044 12,130 13,074 20,466 12,292 35,508 11,162 4,778 10,360 6,203 11,523 24,788 8,180 14,766 9,733 15,813 15,084 18,036 52,321 813 20,920 260 16,347 4,008 9,133 13,345 5,974 22,489 17,124 5,366 20,864 5,696 6,442 6,190 6,558 7,560 6,159 1,110 12,806 8,770 24,252 11,796 29,325 160 14,018 15,935 6,024 18,827 16,255 230 24,007 764,727 Square Miles. 550 542 705 744 536 492 486 417 412 515 400 865 562 584 475 660 610 540 415 520 495 600 416 621 500 400 575 450 474 555 432 400 840 492 400 610 426 666 555 425 448 527 473 405 570 444 563 450 500 664 432 402 495 414 752 432 576 900 31,032 County Towns. Popula- tion. West Union Wapaghkonetta Jefferson Athens St Clairsville Georgetown Hamilton Urbana Springfield Batavia Wilmington New Lisbon Coschocton Bucyrus Cleveland Greenville Delaware Lancaster Washington Columbus Gallipoli's Chardon (township). Xenia Cambridge Hardy Cincinnati Findlay Cadiz Damascus Hillsborough Logan Millersburg Norw'alk Jackson Steubenville Mount Vernon Burlington Newark Illyria. Belle Fontaine London Marion Medina (township).... Chester St Mary’s Troy Woodsfield Dayton M‘Connesville Zanesville Somerset Circleville Piketon. Ravenna (township) Eaton Sugar Grove Mansfield 429 2*70 729 789 325 1,097 1,102 1,080 426 607 1,138 333 298 1,076 160 532 1,530 300 2,437 755 881 919 518 24,8*31 52 820 *5*64 97 319 310 329 2,937 1,021 149 999 668 266 249 287 622 164 92 504 157 2,965 267 3,094 576 1,136 271 806 511 8*40 Distance from Cincinnati. Washington 101 110 191 73 124 104 101 50 43 109 67 152 84 69 138 103 23 28 45 108 157 57 83 66 112 114 124 161 74 47 80 113 74 149 45 135 34 130 62 27 47 111 94 111 78 140 66 70 59 46 26 65 127 92 148 71 460 507 325 344 275 480 488 447 437 476 444 282 336 409 354 501 419 372 422 396 362 332 453 314 436 497 502 278 485 441 370 341 399 387 260 375 405 362 377 458 423 416 357 343 508 474 294 462 340 336 354 394 409 320 488 538 380 2 T O H I 0= Counties. Brought forward Ross Sandusky Scioto Seneca Shelby Stark Trumbull Tuscarawas# Union Van Wert Warren Washington Wayne Williams ' Wood Population in 1830. Square Miles. 764,727 24,053 2,851 8,730 5,148 3,671 26,784 26,154 14,298 3,192 49 21,493 11,731 23,344 377 1,095 31,032 672 656 581 546 418 780 875 654 430 432 400 670 660 600 744 County Towns. Popula¬ tion. Distance from Cincinnati.! Washington. Total 937,679 40,150 Chillicothe Lower Sandusky Portsmouth Tiffin Sydney Canton Warren New Philadelphia Marysville Wiltshire ! Lebanon | Marietta Woosterj Defiance Perry sburgh 2,846 351 1,064 248 240 1,257 510 410 142 1,207 977 52 182 45 103 91 85 86 116 157 107 37 146 83 106 86 175 135 404 428 421 431 482 319 297 314 433 533 468 304 347 511 460 01; The increase of population in the state of Ohio has been rapid almost beyond example. In the year was only about 3000; in 1800, 45,365; in 1810, 230,/60; in 1820, 581,434 ; and in 1830, 937,679. . For an account of Cincinnati, the principal city ol Ohio, see the article Cincinnati. Columbus, the political me¬ tropolis, is situated near the centre of the state, upon the east bank of the Scioto River. The beautiful slope on which it stands, just below the confluence of the Whet¬ stone River with the Scioto, was a compact forest m 181 — It is now cleared and well cultivated, and the city con¬ tains some excellent public buildings, including a peniten¬ tiary an asylum for the deaf and dumb, and above three thousand inhabitants. Steubenville, the seat of justice for Jefferson county, is situated on the western bank of the Ohio, near the Pennsylvania boundary. It was laid out with great regularity in 1798, and is situated in the centre of a rich and populous country. It has the usual number of public buildings found in towns of the same size, and it possesses cotton, woollen, and other manufactures. Cml- licothe is finely situated upon a level alluvial plain on the west bank of the Scioto, forty-five miles in a right line from its entrance into the Ohio. It was laid out with great re¬ gularity in 1796, and contains some handsome buildings. It possesses several cotton factories, and a number of flour and other mills. Marietta, the oldest town in the state, is situated on the Ohio, a little above the mouth of the Mus¬ kingum River. Ships were formerly built here, but this busmess has been discontinued, and the town, although very advantageously placed, has not prospered like many others in the state less favourably situated. Sixty miles north of Marietta, on the Muskingum, is the town of Zanesville, principally distinguished for its manufactures of iron. Here there are likewise a number of flour and other mills, diiven by the waters of the Muskingum; and two or three glass¬ houses. Cleveland, situated upon the southern shore of Lake Erie, at the mouth of Cuyahoga River, is destined, from its position, to become an important town. It is one of the principal points for embarkation on the lake, and durin0- the last American war was a provision depot, and a place where many boats and other lake craft were built. Cleveland is intermediate between Buffalo and Cincinnati, and is the depot of that vast quantity of merchandise which is destined for the east and west. One of the most im¬ portant places on Lake Erie is Sandusky, situated on the southern shore of a bay of the same name. Although it is comparatively a young settlement, it has a great number of stores, and is one of the chief points of landing and em¬ barkation between the Mississippi Valley and New York, Buffalo, and Detroit. The other ports or harbours on Lake Erie are Put*in Bay, Maumee Bay, Fair Port, and Ashtabula Creek. The relative importance of these, as well as the other towns belonging to Ohio, will be seen from our tabular view of the counties and county towns. The first permanent settlement in the state of Ohio was made at Marietta, on the 7th of April 1788, by forty-seven persons from Massachusetts, Rhode Island, and Connect! cut. In the year following a settlement was made at Co lumbia, six miles above Cincinnati, by a company princi pally from Pennsylvania. In September 1799, the first ter ritorial legislature assembled at Cincinnati, under the ordi nance of congress of the 13th July 1786, for the government of the territory of the United States north-west of the river Ohio. On the 30th of April 1802, congress passed an act authorizing the calling of a convention to form a state con¬ stitution for that part of the North-west Territory which now constitutes the state of Ohio. On the 1st of Novem¬ ber following the convention met at Chillicothe, and loraiea the present constitution, by which Ohio was admitted into the union. The following is an outline of the constitution of Ohio. The legislative power is vested in a senate amt house of representatives, which together are styled the General Assembly of the State of Ohio. The represen¬ tatives are elected annually on the second luesday m Oc¬ tober ; and they are apportioned amongst the counties ac¬ cording to the number of white male inhabitants ab twenty-one years of age. Their numbers cannot e es than thirty-six, nor more than seventy-two. The senate are chosen biennially, and are apportioned according the number of white male inhabitants of twenty one y of age. Their number cannot be less than one thir , n more than one half of the number of representatives, i executive power is vested in a governor, who is e by the people for two years, on the second Iuestla.y , tober ; and his term of service commences on Monday in December. The general assembly me t nually at Columbus, on the first Monday in Decem The right of suffrage is granted to all white ma ^ tants above the age of twenty-one years, wio ^ sided in the state one year next preceding the and who have paid or are charged with a state J tax. The judicial power is vested in a “the, courts of common pleas for each county, an ^ courts as the legislature may from time to tim Ohi O H I The judges are elected by a joint ballot of both houses of 'the general assembly, for the term of seven years, (r. r. r.) Ohio, a great river of the valley of the Mississippi, in North America, formed by the confluence of the Alleghany and Monongahela Rivers at Pittsburgh, in the western part of Pennsylvania. The highest sources of the Alleghany are in Potter county, Pennsylvania, twelve miles to the east¬ ward of Condersport, where they interlock with the head waters of the Genessee River, and the eastern and western branches of the Susquehannah. During its course through Pennsylvania, which is exceedingly irregular, it is joined by several streams, the most considerable of which are, To¬ by’s Creek, extending one hundred miles into the interior of Pennsylvania, and the Kiskiminitas, formed by the junc¬ tion of the Conemaugh and Loyalhanna, which rise near the Alleghany Mountains, one hundred miles distant. This branch of the Ohio, although its volume is not apparently wider than the other, is by far the most important tribu¬ tary. It has a swift, sweeping, and rapid current, and often a rocky bottom, whence huge blocks rise to the sur¬ face of the water. In the spring time, when it is full, flat and keel boats descend it rapidly, without any danger. It has been navigated by steam-boats, but has been found one of the most difficult currents to stem ever attempted by these vessels. Monongahela River, the other fork of the Ohio, rises in Virginia, about seventy miles north-west of Morgantown. It traverses a rich and well-settled coun¬ try, celebrated for its whisky, flour, and iron manufac¬ tures. The banks are often bold and high bluffs, and in some places the country is hilly. In good stages of the water, it is boatable by large boats for about one hundred miles from its mouth. During its course it receives the waters of a number of tributary streams, the most important of which is the Youghiogeny River, or, as it is commonly called, the Yough, which rises near the upper waters of the Potomac, the rivers being only separated by a spur of the mountains. From the western declivity of these moun¬ tains, both this and the main river receive a great acces¬ sion of mountain streams. The united current, which has now become broad and majestic, flows in a north-west course to Pittsburgh, and where it unites with the Alle¬ ghany it is more than four hundred yards in breadth. At the confluence of the two great branches, the Ohio is somewhat more than six hundred yards wide, and it im¬ mediately assumes that broad, placid, and beautiful aspect which it maintains to its junction with the Mississippi, in latitude 37. 0. north, and longitude 88. 52. west. Its length from Pittsburgh to its mouth is about nine hundred miles, including the windings of the river; but the direct dis¬ tance is only six hundred and fourteen miles. Its breadth varies exceedingly, being in some parts fourteen hundred yards, whilst in others it is only four hundred yards across. At Cincinnati it is about eight hundred yards wide, and this is nearly its average breadth. For thirty miles below Pittsburgh its course is north-west. It then turns slowly to the west-south-west, and pursues that general direction or some five hundred miles. It flows south-west for a)ove one hundred and fifty miles, then westward above two hundred and fifty miles, and finally south-west about I one hundred and seventy miles through that low and swampy country in which it joins the “ Father of waters.” etween Pittsburgh and its mouth it is diversified with a out one hundred considerable islands, besides a great number of tow-heads and sand-bars, which in lowr stages o tie water greatly impede navigation. Some of these is anas are of exquisite beauty, and afford most lovely si- uations for retired farms. The passages between them uac t e sand-bars at their head are amongst the difficulties 0 ie navigation of the river. Notwithstanding these ob- suic cs, however, it is well adapted for boat navigation, the rnnent being remarkably smooth and gentle, excepting O I A 331 at Louisville in Kentucky, where it is broken by falls, theOhittahoo . cu: water running for several miles with great rapidity, al¬ though not so much so as to be insurmountable by boats., A canal round these falls, a work of great magnitude and utility, has been completed. The annual range of the Ohio, from low to high water, is about fifty feet; the ex- tieme lange is ten feet more. When lowest it may be folded at several places above Louisville. It is generally^ lowest in August, September, and October, and highest in December,' March, May, and June. Throughout the year it is subject to sudden and very considerable eleva¬ tions and depressions. Near Pittsburgh it is frequently frozen over for several weeks during the winter, and this has sometimes been the case four hundred miles lower down. Generally, the navigation upward is suspended by floating ice for eight or ten weeks in winter. When the river is at its mean height, its current is about three miles an hour; when higher and rising it is more, and when very low it does not exceed two miles an hour. Above two hundred steam-boats ply on the Ohio, a great part of which are employed in the commerce of the states bor¬ dering on the river; but they also connect with it the commerce of the states on the Mississippi. The produce of the contiguous states is readily transported to this chan¬ nel by the numerous navigable rivers which it receives, and is thence conveyed to New Orleans, the grand com¬ mercial emporium of the valley of the Mississippi. The Ohio and all its tributaries cannot, it is believed, have less than five thousand miles of boatable waters ; and, taking all circumstances into account, few rivers in the world can vie with it, either in utility or beauty. From its very com¬ mencement it affords most delightful prospects. Rivers of a romantic and beautiful character flow into it almost at equal distances, like lateral canals. Its valleys are of extraordinary depth and fertility ; generally high and dry, and for the most part healthy ; whilst the configuration of the country on the banks has much grandeur, softness, and variety. Of the rivers and creeks which join the Ohio, the number is very great. The following are all navigable, in moderate or high stages of the water, by steam-boats, for considerable distances, viz. the Muskingum, Great Kenhawa, Big Sandy, Scioto, Great Miami, Kentucky, Green, Wa¬ bash, Cumberland, and Tennessee. The last is by far the largest and most important tributary of the Ohio, watering considerable portions ofAlabama, Tennessee, and Kentucky. Of creeks and smaller rivers there are probably nearly tvvo hundred which enter the Ohio; but a list of them would only be a dry catalogue of uncouth names. (r. r, r.) OHITTAHOO, one of the Marquis of Mendoza’s Islands, in the Southern Pacific Ocean. It is about nine miles in length and twenty-one in circumference, and is in¬ tersected by a narrow ridge of hills, which are divided by deep, narrow, and fertile valleys, well watered, and adorn¬ ed with trees. This, with other three islands which lie near it, was discovered in July 1595, by Alvaro Mendana, who gave them then name, in honour of the viceroy of Peru. A cove in which the European vessels usually an¬ chored is situated in long. 139, 8. W. and lat. 9. 55. S. OHRDRUFF, a city of the duchy of Saxe-Gotha-Al- tenburg, in Germany, the capital of a bailiwick of the same name, which, besides the city, contains six villages, 1700 houses, and 7000 inhabitants. It belongs to Prince FIohenlohe-Neuenstein. The city stands near the borders of the 1 huringian Mountains, on the small river Ohre. It is surrounded with walls, and has a palace for the prince, four churches, a lyceum, an hospital, 840 dwellings, and 3480 inhabitants, who are industrious in making wood waie, in tanning leather, and in producing paper, copper utensils, and several smaller articles. OIA, a river of Asiatic Russia, which falls into the Gulf of Obskaia. Long. 72. 24. E. Lat. 68. N. Oia. 332 Oil Okhotzk. O K H OLD OIL. an unctuous and inflammable substance, obtained from several natural bodies, as animal and vegetable sub- stances. OISE, a department of the north of France, formed out of the ancient Isle of France, and the districts of Beauvaisis and Valois. It extends in north latitude from 49. 7. to 49. 38. and in east longitude from 1. 28. to 3. 4. It is bounded on the north by the Somme, on the east by the Aisne, on the south by the Seine and Marne and the Seine and Oise, and on the west by the Eure ; and it is divided into four arrondissements, which are subdivided into thirty-five can¬ tons and 738 communes. It extends over 2428 square miles, and, according to the census of 1836, contains 398,641 inhabitants, and elects three deputies to the national re¬ presentative body. The face of the country is plain or un¬ dulating, with a chain of calcareous hills of moderate height, of which Mount Csesar on the eastern part is the highest. The soil is various, being in some parts clayey and in others sandy with marl, and generally a calcareous subsoil, except in the marshy portions near the streams. The Oise runs through it till it falls into the Seine, and it is navigable for barges. The Aisne, another navigable river, passes through a part of this department before it joins the Oise, ihere are a great number of smaller streams, some with and some without a name, all of which reach the sea ultimately through the Seine. The climate is dry and healthy, ex¬ cept in the marshy parts and near the woods, which cover about one seventh part of the whole surface. The agri¬ culture is tolerably conducted ; but the paucity of manure causes a great part of the land to be left fallow; yet it yields more corn than is required for the consumption, and m average years can spare one fourth of its growth for the supply of the surrounding departments. Besides corn, it yields a vast quantity of fruit, especially cherries, which can be conveyed by the rivers to Paris and other large cities. A great quantity of apples is converted into cider. The vines in general produce only a weak wine, not capa¬ ble of being long preserved, except some of Ancerville and of Villars-Saint-Sepulcre, which are preferred to all the others of Picardy, ihe breeding of horses is careful¬ ly attended to, and some excellent ones are reared, ihe stock of oxen and sheep is low for the extent of country , but the races of the latter have been recently improved by the crossings with Merinos, and some fine wool is now furnished to the manufacturers. There are fabrics of linen, woollen, and cotton goods in several places; a con¬ siderable quantity of thread lace is made by the females; and there are also many tanneries and potteries. Ihere is a considerable transit trade on the rivers, and they, as well as the rivulets, afford much fish. OKEHAM, or OkhaxM, a market-town, the capital of the county of Rutland, and situated in a rich valley called the vale of Cadmus. It is ninety-five miles from London, and has a good market on Saturday. It has an ancient castle, now converted into an assize-hall and a county jail. The parish church, dedicated to All-Saints, is a fine old structure, with a lofty spire, which is visible a great way around it. It has no corporation ; but whatever power of a municipal nature is exercised is derived from the Earl of Winchelsea or the Dean of Westminster, who are lords of the two manors into which the town is divided. Near to it is Burleigh-on-the-Hill, a noble mansion of the Earl of Winchelsea. The population amounted in 1801 to 1613, in 1811 to 1719, in 1821 to 2160, and in 1831 to 2440. OKHOTZK, one of the four circles of Asiatic Rus¬ sia, in the government of Irkoutsk. It extends along the gulfs of the Eastern Ocean, called the Seas of Okhotzk, of Kamtschatka, and of Anadir. The climate is damp and unhealthy, being exposed to thick mists, from so great an extent of ocean; and the country is not only barren, but un¬ wholesome. This damp and poisonous atmosphere conti¬ nues for ten miles inland, when the sea air is arrested by a Oh; ridge of moderately-elevated hills. Beyond this boundary | the&country is more fertile, as trees are found to grow well, and rich meadows are seen. r* The town of Okhotzk is built upon a long and narrow rido’e, enclosed between the sea and the river Okhota, and formed chiefly from an accumulation of marine debris. This town consists of 130 houses, extending in a line of about two thirds of a mile, though it is not more than from 100 to 300 feet broad. It has a church, some magazines, and a double row of shops. Okhotzk is the channel of trade between Irkoutsk and Kamtschatka. The goods are conveyed chiefly by water, there being a very short inter¬ val of land carriage. But it is a tedious and difficult voy- ao-e, and even dangerous from the barbarous nature of the people who inhabit the banks of the rivers. The land jour¬ ney is likewise dangerous. So difficult is the country, that the goods can be carried only on pack-horses, or on men’s backs, as there are no waggons of any description; and, on account of the danger of sinking in morasses, it can be performed only in the spring. The inhabitants of the town consist chiefly of mariners and Cossacks. Besides the offi¬ cers of the court of justice, there are two priests. Long, of the town 142. 44. E. Lat. 59. 20. N. The Sea of Okhotzk is a large gulf of the Eastern Ocean, enclosed between Kamtschatka, the circle of Okhotzk, part of Chinese Tar¬ tary, and Saghalien. At its mouth are the Kurile Islands and part of Jesso. . OKIRAH, a town of Bengal, in the district of Burdwan, 105 miles north-west from Calcutta. Long. 87.15. E. Lat. 23. 38. N. OLANGO, a small island amongst the Philippines, near the eastern coast of Siba. Long. 123.51. E. Lat. 10.33. N. OLCHANSKAIA, a fortress of Asiatic Russia, in the government of Orenburg, and situated on the small river Olchanka. It contains a church and several streets, and forms part of the military line of Samara. The inhabitants consist chiefly of veteran soldiers. It is L7 miles south¬ east of Orenburg. , r , OLDCASTLE, Sir John, commonly called the Good Lord Cobham, was born in the reign of Edward HI. He obtained his peerage by marrying the heiress of that Lord Cobham who had strenuously opposed the tyranny ot Richard II.; and, with the estate and title of his father-in- law, he seems to have acquired the patriotic and independ¬ ent spirit for which that nobleman was distinguished, by his means, the statute against provisors was revived, and guarded with more severe penalties than ever; and he was also one of the leaders of the party who, having drawn up a number of articles against the corruptions which then pre¬ vailed amongst ecclesiastics, presented them in the form of a remonstrance to the Commons. He was at great pains in collecting and transcribing the works of Wickhfte, whicn he dispersed amongst the people; and he sent a number of his disciples as itinerant preachers into various parts o the country. In the reign of Henry IV. he comnian f an English army in France, at that time distracted y contentions of the two factions of Orleans and Burgun y. and, in this capacity, he compelled the Duke of Orlean raise the siege of Paris. In the reign of Henry • accused of heresy, the growth and extension ot whic mainly attributed to his influence. 'Hie kinS having t vour for Lord Cobham, who held a domestic office a > delayed the prosecution, and kindly undertook, by re J i — ... Rim frnm his errors, nw ing and expostulation, to reclaim him from his errors. the attempt piuvcuauwiw.^.. r - „ .up soi- ship, “ I profess obedience to my king; but as to P , C • p .i r npvpr see upon wnai ritual dominion of the pope, I could never see e.- foundation it is claimed, nor can I pay him any ob ^ ,g and he added, “ It is as sure as God s word is , ^ the great Antichrist foretold in holy writ. lh r< OLD L s0 different from what had been expected, deeply offended "the king, who, turning away in visible displeasure, with¬ drew his favour from Cobham, and left him to the censures of the church, which speedily overtook him. Being sum¬ moned to appear before the archbishop, he disobeyed the citation, and was excommunicated on the ground of contu¬ macy- Reckless in exposing himself to danger, he seems to have wanted the courage to confront it boldly when it appeared in a definite shape. Hoping to avoid the im¬ pending storm, he waited upon the king with a confession of his faith in writing; but whilst he was in the royal pre¬ sence, an officer of the ecclesiastical court entered, and cited him to appear before the archbishop, upon which he was immediately conveyed a prisoner to the Tower. When brought before the proper tribunal, he read his opinion of the several articles in regard to which he supposed that he had been called in question, particularly the eucharist, images, penance, and pilgrimages; but he was informed, that in some things he had not been sufficiently explicit in stating his particular views ; that on all these points the church had already decided, and by her determinations all Christians ought to abide ; that these determinations would be given him as a direction of his faith ; and that, in a few days, he must appear again and state his opinions. The second examination, however, ended like the first. Cobham declared that “ he knew none holier than Christ and his apostles; and that these determinations were surely none of theirs, as they were against Scripture.” He was accord¬ ingly condemned as a heretic, and remanded to the Tower; but he contrived to effect his escape from prison, and lay concealed in Wales, until information reached the king at Eltham that about twenty thousand Lollards had assem¬ bled for his destruction at St Giles, with Lord Cobham at their head. A bill of attainder then passed against him, a price was set upon his head, and a perpetual exemption from taxes promised to any town which should secure him. After having spent four years in Wales, he was at length seized, carried to London, and executed in St Giles’s Fields, in December 1417, with circumstances of cruelty OLD 333 Oldham. ket-towns, and 776 villages and hamlets, with 233,400 Oldenburg inhabitants, of whom 161,420 adhere to the Lutheran church, 68,000 are Catholics, and the remainder, excepting 900 Jews, are Calvinists. The population of the principa¬ lity of Lubeck is 19,070, that of Birkenfeld is 21,180, and the remainder is found in Oldenburg proper. The reve¬ nues of the state amount to about L. 130,000 annually, aris¬ ing partly from tolls on the Weser, and partly from taxes on foreign goods, but chiefly from domains. The state has no debt. The army consists of 16o0 men ; but the state is bound to contribute to the force of the German confederacy a contingent of 2177 men. The principal river is the Weser, into which the smaller streams flow, and it is the ordinary channel of marine commerce. The soil is in general poor and sandy, but near to the rivers there are some rich marshes, obtained by draining and embankments, which fatten cattle, and afford the productions of the dairy. The cultivation is badly conducted in the large division. There are a great number of small proprietors, who culti¬ vate their own fields, and thereby procure a bare subsist¬ ence. The climate is raw, cold, and exceedingly variable. Oldenburg, a city, the capital of the duchy of the same name in the north-east of Germany. It is situated on the river Hunte, which is navigable to the Weser, and is sur¬ rounded with walls planted with lime trees, being well built and clean, but in an antique style. The duke has a large and old, but not an elegant palace, on the grand parade, adjoining to the city. The city contains two churches, two hospitals, and 660 houses, with 5420 inhabitants, who subsist chiefly from the expenditure of the court, of the tribunals, and of the civil officers of the government. It has little trade excepting at its two great fairs. Long. 8. 6.1. E. Lat. 53. 8. 33. N. Oldenburg, Henry, was born in the duchy of Bremen, in Lower Saxony. During the long parliament, he was ap¬ pointed consul for his countrymen, at London, after the usurpation of Cromwell; but being discharged of that em¬ ployment, he was appointed tutor to the Lord Henry O’Bryan, an Irish nobleman, whom he attended to the characteristic of the times. university of Oxford, where he was admitted to study in As a writer, Lord Cobham is only known by a piece en- the Bodleian Library in the beginning of the vear 1656. titled “ Twelve Conclusions, addressed to the Parliament He was afterwards tutor to William Lord Cavendish, and was acquainted with Milton the poet of England,” at the end of the first book of which are some monkish rhymes in Latin, which Bale has preserved. “ A Brefe Chronycle concerning the Examynacyon and Death of the blessed martyr of Christ, Syr Johan Oldecastell, the Lorde Cobham,” was also published by Bale, and reprinted under the care of a Mr Lewis of Margate in 1729. Since that time the life of Lord Cobham has been written by Mr Gilpin, who describes him as a person of uncommon parts and varied talents, well qualified either for the cabinet or the field; as possessing acquirements equal to his parts ; and, besides, as remarkable for his ready and poignant wit in conversation. “ It was "his thirst of knowledge,” adds his biographer, “ which first brought him acquainted with the opinions of Wickliffe. The novelty of them engaged his curiosity. He examined them as a philosopher, and in the course of his examination became a Christian.” (a.) OLDENBURG, a sovereign duchy in the north-east of Germany, but consisting also of two other portions sepa- iated from it, though both of them are of small extent. One of these smaller divisions in the north is called the princi¬ pality of Lubeck, consisting of a small territory surround¬ ed by the Danish territory of Holstein, and some small spots on the banks of the Trave, and near Schwartau, ad¬ joining to the territory of the republic of Lubeck. The ot ei of these small divisions is on the western side of the une; it is called the principality of Birkenfeld, and is w oily surrounded by the Prussian province of the Lower nne. The whole of these three divisions extend over 2791 CiAVlOlUliO UVCJL ~ square miles, and comprehend nine cities, ten mar- During his resi¬ dence at Oxford he became acquainted with the members of that body, which there gave birth to the Royal Society, upon the foundation of which he was elected a fellow ; and when the society had found it necessary to have two secre¬ taries, he was chosen as assistant secretary to Dr Wilkins. He applied himself with extraordinary diligence to the business of his office, and in the year 1664 began the pub¬ lication of the Philosophical Transactions, which he con¬ tinued to publish to No. xxxvi. 25th June 1677. After this the publication was discontinued till the January fol¬ lowing, when it was again resumed by his successor in the office of secretary, Mr Nehemiah Grew, who carried it on till the end of February 1678. Mr Oldenburg died at his house at Charleton, near Greenwich, in Kent, in August 1678. OLDHAM, one of those towns which, within the pre¬ sent generation, have grown up with rapidity since the es¬ tablishment of the cotton manufacture. It is situated in the hundred of Salford, in the county of Lancaster, eight miles from Manchester, and 186 from London. It stands on the river Medlock, very near the source of that and of another stream called the Irk, in a district abounding in coal. Oldham had been created into a market-town ; and was by the reform act constituted a borough, with the power ot returning two members to the House of Commons. It is parochially united with Prestwick, and these places com¬ prehend ten townships, extending over 21,160 acres, with a population, in 1831, of 67,579 persons. The whole is a 334 OLE O L L Oldham manufacturing district, making fustians ami spinning cotton Lower Pyrenees, in France, being 972 square miles in ex- Oh, li yarn, and also having a great trade in making hats. Ihe tent, ltd Oleron. J ^ . -C —Oirrhtv.nn yai'xi, — o -- o „ town of Oldham is, for the most part, of very recent erec¬ tion, containing many large piles of buildings destined for manufacturing purposes, and a proportional number of small dwellings for the workmen; but all are discoloured by the smoke which issues from numerous steam-engines, tew of the proprietors of which reside within the town. It has a fine large parish church, and, as is usual with such a po¬ pulation, a very great variety of places of worship for the several discordant and dissenting sects. At the first elec¬ tion for this borough, it was distinguished by its selection of Mr Cobbett as one of its representatives. The popula¬ tion of the township of Oldham amounted in the year 1801 to 12,024, in 1811 to 16,690, in 1821 to 21,66~, and in 1831 to 32,381. „ t Oldham, John, an eminent English poet of the seven¬ teenth century, was educated under his father, a noncon¬ formist minister, and then sent to Edmund Hall in Oxford. He afterwards became usher to the free school at Croydon in Surrey, where he received a visit from the Eails of 1 o- icnt. comprehends eight cantons, which are divided into „ eighty-one communes, and it contains 71,400 inhabitants. vJe;t The capital is the city of the same name, situated between the two rivers Gaves d’Aspe and Gaves d’Ossau. It con¬ tains 900 houses, and6400 inhabitants, who are employed in making thin woollen hosiery and leather. Long. 0. 17. W. Eat. 43. 10. N. Oleron, an island situated on the coast of France, in the department of the Lower Charente. It is about ninety square miles in extent, and is opposite the mouths of the rivers Charente and Seudre. It is separated from the mainland by the strait called the Pertuis de Maubuisson. Oleron is a fertile spot, especially on the east and south parts, and yields good corn, wine, and brandy. There are also extensive marshes, from which salt is collected. It contains about 13,000 inhabitants, who are expert seamen and fishermen. . OLIGARCHY, a form of government in which the ad¬ ministration of affairs is confined to a few hands. OLIO, or Oglio, a savoury dish, or food, composed of in KnrrPV WilGTC 110 rCCClvcU. - yince is level, and abounds in lakes and morasses, includ- disposed as tiles, and the access to it was by a winding mg m the former the large Lake of Ladoga. In the north- staircase. The two pediments were enriched with sculp- ern part a portion of the Scandinavian range of mountains ture, one having over the centre a statue of Victory gilded, enters from Sweden and Norway. The soil is generally and underneath a votive buckler of gold. At each corner sterne, and the climate ungenial; but the former produces there was a gilded vase. Above the columns were fixed some rye, barley, and oats, though the harvests rarely af- twenty-one gilded bucklers, offered at the conclusion of ora tour times the quantity of seed that is sown. The most the Achaean war by the Roman general Mummius. The important products, besides grain, are derived from the gates in the two fronts were of brass, and over them were orests, which are extensive, and, besides fuel, supply tim- carved the labours of Hercules. Within the cell were er tor building, as well as tar and pitch. There are some double colonnades, between which was the approach to the ew mines of iron worked, and the quarries yield marble and image. o'npS °f ^one, enormous blocks of which are convey- The Jupiter of Olympia was accounted alone sufficient • . ^etersburg for building. The province is divided to immortalize its sculptor Phidias. It was of ivory and fishes 1 CirC eS> wlllcl1 contain eight cities and 227 pa- gold, and the head was crowned with olive. In the right OT OT i • hand was a statue of Victory; and in the left a flowered nrovinr* Pr? t(?Wn m . e north-east of Spain, in the sceptre, composed of various metals, and on which was an on the ri 0t V., .oma and Strict of Vique. It is situated eagle. The sandals were of gold, and the vestment was of the pJrr Vm’ ab°Ut twenty miles t0 the north-west of the same material, being curiously embossed with lilies against \\ V, berj)na’ so.celebrated for its gallant defence and animals. The throne was gold inlaid with ebony and fablv welTh u6"0 N ^ surrounded with walls, is tole- ivory, and studded with jewels, intermixed with paintings Parochial it Wltl several scIuares> and contains three and exquisite figures in relief The pillars between the pital In tl tW° canventual churches, besides a large hos- feet contributed to its support. Before it were walls, serv- inhabitant*;16 ^lere a1^ ^000 houses, and about 15,000 ing as a fence, and decorated principally with the exploits thekinedn’ t/* 18 on.e of’the l?ost industrious places in of Hercules; the portion opposite to the door was of a fectures off’ll/118 fartl jUlarly distinguished by its manu- blue colour. A family descended from Phidias, and called 11 has too 1 krS°, ’ and °i cotton and woollen stockings, 'phadruntce, or the polishers, had the charge of keeping the > > several establishments for making serges and wmrk bright and clean. The veil or curtain was of cloth rich 336 O L Y Olympiad with the purple dye of Phoenicia, and worked with Assyrian II embroidery; an offering of King Antiochus, and which Olympic wag ]et down fr0m above by loosening the strings, ine Games. ima(Te impressed the spectator with an opinion that it was wider and higher than it actually measured. Its magni¬ tude was such, that, though the temple was very large, the artist seemed to have erred in the proportions. Ihe got, sitting, nearly touched the ceiling with his head, and thus suggested an idea that, if he were to rise up, he would de¬ stroy the roof. A part of the pavement before it was ot black marble, enclosed in a rim of Parian or white maibie, within which they poured oil to preserve the ivory. The altar of Jupiter Olympius was of great antiquity, and composed of the ashes of the thighs of the victims, which were carried up and consumed on the top ot it, alon0 with wood of the white poplar tree. The ashes also of the prytaneum, in which a perpetual tire was kept burning o a hearth, were removed annually on a fixed day, and sprea upon it, being first mingled with water from the Alp eus. The cement, it was affirmed, could be made of that H only, and therefore this river was much respected, and es¬ teemed the most friendly of any to the god. On each side of the altar there were stone steps, and its height was about twenty-two feet. Women and girls, when allowed to vi¬ sit Olympia, were suffered to ascend the basement, which was an hundred and twenty-five feet in circumference. The people of Elis sacrificed daily, and private persons as often as they chose. Olympia was situated upon an emi¬ nence, between two mountains called Ossa and Olympus. OLYMPIAD, the space of four years, by which tne Greeks reckoned time. According to the most accurate and learned computation of the moderns, the first Olym¬ piad fell exactly 776 years before the first year ot Christ, or 775 years anterior to his birth, in the year ot the Ju¬ lian period 3938, and twenty-two years before the build¬ ing of the city of Rome. The games were exhibited at the time of the full moon next after the summer solstice; therefore the Olvmpiads w ere of unequal length, because the time of the full moon differs eleven days every year; for which reason they sometimes began the next day alter the solstice, and at other times four weeks afterwards. Ihe computation by Olympiads ceased, as some suppose, after the 304th, in the year 440 of the Christian era. It was universally adopted, not only by the Greeks, but by many of the neighbouring countries ; though the Pythian games still served as an epoch to the people of Delphi and to the Boeotians, the Nemsean games to the Argives and Arcadians, and the Isthmian to the Corinthians and the inhabitants of the isthmus. To the Olympiads history has been greatly indebted. They have served to fix the time of many mo¬ mentous events; and indeed before this method ot com¬ puting time wras observed, every page ot history is mostly fabulous, being filled with such obscurity and contradiction, that no true chronological account can be properly esta¬ blished or maintained with certainty. OLYMPIC Games w ere solemn games amongst the an¬ cient Greeks, and so called from Olympian Jupiter, to whom they were dedicated. By some they are said to have been fn st instituted by him after his victory over the sons of litan ; whilst others ascribe their institution to Hercules (not the son of Alcmena, but one of much greater antiquity), others to Pelops, and others to Plercules the son of Alcmena. The festival, which lasted five days, began and ended with a sacrifice to Olympian Jupiter. The intermediate time was chiefly filled up by the gymnastic exercises, in which a t freemen of Grecian extraction were invited to contend, provided they had been born in lawful wedlock, and had lived untainted by any infamous or immoral conduct. 1 he preparation for this part of the entertainment was made n the gymnasium of Elis, a spacious edifice surrounded by a double range of pillars, with an open area in the O M A middle. Adjoining were various apartments, containing ( baths, and other conveniences for the combatants. The neighbouring country was gradually adorned with porti-u™‘ bo coes, shady walks, and groves, interspeised with seats and ^ benches ; the whole being originally destined to relieve the^ fatigues and anxiety of the candidates for Olympic fame, and frequented in later times by sophists and philosophers, who were fond to contemplate wisdom and communicate knowledge in those delightful retreats. The order of the athletic exercises, or combats, wras established by Lycur- <>•03, and corresponded almost exactly to that described by Homer in the twenty-third book of the Iliad, and the eighth of the Odyssey. Iphitus, we are told, appointed the other ceremonies and entertainments ; settled the regular return of the festival at the end of every fourth year, in the month of July; and gave to the whole solemnity that form and arrangement which it preserved with but little variation for more than a thousand years ; a period exceeding the du- ration of the most famous kingdoms and republics ot anti¬ quity. Amongst the benefactors of Olympia at a much later period was reckoned Herod, afterwards king of Ju¬ daea. On his way to Rome, seeing the games neglected or dwindling into insignificance, from the poverty ot theEleans, be displayed great munificence as president, and provided an ample revenue for their future support and digniu. Such an institution, even in its least perfect torm, must have been attended with advantages to society. It is suf¬ ficient to mention the suspension of hostilities which took place, not only during the celebration ot the festival, but for a considerable time both before and after it. Consi¬ dered as a religious ceremony, to which the whole Giecian race was invited, and even enjoined to assist in its celebra¬ tion, it was well adapted to facilitate intercourse, to pro¬ mote knowledge, to soften prejudice, and to accelerate the progress of civilization. Greece, particularly Peloponnesus, was the centre from which the adventurous spirit of its in¬ habitants had diffused innumerable colonies throughout the surrounding nations. To these widely-separated commu¬ nities, which, notwithstanding their common origin, seem¬ ed to have lost all connection and correspondence, the Olympiad served as a common bond of alliance and a pom of re-union. The celebrity of this festival continually a - traded to it the characters most distinguished for genius and enterprise, whose fame would have otherwise been un¬ known and lost in the extent of the Grecian territory. The remote inhabitants, not only of European Greece, but o Asia and Africa, being assembled at the worship of th common gods, were thus trained to the sense of a general interest, and excited to the pursuit of nat.onal honoured nrosneritv. Strangers of similar dispositions might con firm in Efis the sacred and indissoluble ties of hospitah y. If their communities were endangered byany a G power, they might there solicit assistance from their G cian brethren ; and, upon other occasions, they mighty plain the benefits which, in peace or war, then P ^ countries were best qualified to communicate. t the Olympic festival might serve the purpose o ambassadors, and of other institutions alike unknown qOM, a considerable river of Tobolsk, in Asiatic » whTch rises in a lake, and, after a western course of about 500 miles, falls into the Irtysch. n;ne miles in OMA, one of the Molucca Islands, about n . length and six in width, containing about 5000 mh ^^^ OMAR Ebn al KHATTAB,the succeS!;or ^^verted We are informed that Omar was miraculously to the Mahommedan faith. Before this e ;0ient to have been truly respectable, and in particu'a ^ opposer of the Arabian prophet. .Mal]'om?refore, with felt this opposition, and regretted it ; e, ss0f all the fervour, and, as it happened, with all the succ l OMB y a true prophet, as his followers pretend, prayed for the conversion of his dangerous antagonist. Omar is said to have no sooner read the twentieth chapter of the Koran “""than he was convinced ; upon which he instantly repaired to Mahommed and his followers, and declared his conver¬ sion. On the death of Abu-Bekr, who had succeeded the impostor himself, he was promoted to the regal and ponti¬ fical dignity. The title first assigned him was the “ caliph of the caliph of the apostle of God or in other words, “ the successor of the successor of Mohammed but the Arabs, considering that this title, by the addition to be an¬ nexed to it at the accession of every future caliph, would be too long, they, by universal consent, saluted him “ the emperor of the believers which illustrious title, conferred at this juncture upon Omar, descended afterwards to all the successors of that prince. He was assassinated by a Persian slave, who stabbed him in the mosque at Medina. This event took place in the twenty-third year of the He¬ gira, which began in the year of Christ 643. His exten¬ sive conquests rendered the Moslem empire one of the most powerful and formidable monarchies in the world. OMBAY, an island in the Eastern Seas, forty-five miles in length and about thirteen in breadth. Its inhabitants are fierce and treacherous in their habits, so that it is dan¬ gerous for strangers to approach it. It is twenty miles west of Timor. OMBRE, a well-known game at cards, borrowed from the Spaniards, and played by two, by three, or by five per¬ sons, but generally by three. When three play at this game, nine cards are dealt to each party ; the whole ombre pack being only forty, because the eights, nines, and tens are thrown out of the pack. There are two sorts of coun¬ ters for stakes, the greater and the lesser. The last has the same proportion to the other as a penny has to a shil¬ ling. Of the greater counters each man stakes one for the game ; and one of the lesser for passing for the hand, when eldest, and for every card taken in. As to the order and value of the cards, the ace of spades, called spadillo, is always the highest trump, in whatsoever suite the trump be; the manille, or black deuce, is the second ; and the bctsfo, or ace of clubs, is always the third. The next in order is the king, the queen, the knave, the seven, the six, the five, four, and three. Of the black there are eleven trumps, and of the red, twelve. The least small cards of the red are always the best, and the most of the black, ex¬ cept the deuce and red seven, both of which are called the mnilles, and are always second when the red is a trump, the red ace, when a trump, enters into the fourth place, and is called punto ; otherwise it is only called an ace. the three principal cards are called matadores, and have this privilege, that they are not obliged to attend an infe¬ rior tiump when it leads ; but, for want of a small trump, ie person may renounce small trumps, and play any other card; and when these are all in the same hand, the others pay three of the greatest counters a piece. With these ree tor a foundation, the player may count as many ma- aaores as he has cards in an uninterrupted series of trumps; or a 1 these the others are to pay one counter a piece. pL of naming the trump, and of him u 111 38 ma1n^ or as few cards as he pleases ; and after befm-p V6?01^’ &C* But Ile does not name tlie trump other 16 °oks on Ble card w,1ich he has taken in, any Hp prevent him, by naming what trump he pleases, unless I, ^ 116 hand should neither take in nor play, as he laSi at east tkree .sure trfeks in his hand ; for, win five1'1!- game who wins niost tricks> he that can case if )i0° • 1 p nine kas a sure game* This is also the Person m Wln. our’ an(1 can so divide the tricks that one If q a^ Win ^vvo> and the other three. vol. xv^011 w*Blout discarding or changing any O M E 337 of the cards, this is called playing sans prendre ; and ifOmbrome- another win more tricks than he, he is said to win coddle. 1 he oversights in the course of the game are called beasts ; and if the ombre wins all the nine tricks, it is called win¬ ning the vole. In ombre by five, which many, on account of its not re¬ quiring so close an attention, prefer to that by three, only eight cards a piece are dealt; and five tricks must be won, otherwise the ombre is beasted. Here the person who un¬ dertakes the game, after naming the trump, calls a kino- to his assistance; upon which the person in whose hand the king is, without discovering himself, is to assist him as a partner, and to share his fate. If, between both, they can make five tricks, the ombre wins two counters, and the auxiliary king only one; but when the counters are even, they divide them equally. If the ombre venture the game without calling in any king, this too is called playing sans prendre ; in which case the other four are all against him, and he must win five tricks alone, or be beasted. The rest is much the same as by three. OMBROMETER, an instrument to measure the quan¬ tity of rain that falls. It consists of a tin funnel, the sur¬ face of which is an inch square, with a flat board, and a glass tube set into the middle of it in a groove. The rise of the water in the tube, the capacity of which at differ¬ ent times must be measured and marked, shows the quan- tity' of rain that has fallen. OMEERSEER, a village of Hindustan, in the province of Cutch, about four miles south from Luckput Bunder Eat. 23. 43. N. OMELET, or Omelette, a kind of pancake or fricassee of eggs, with other ingredients, very common in Spain and in France. OMEN is a word which, in its proper sense, signifies a sign or indication of some future event, taken from the lan¬ guage of a person speaking without any intention to pro¬ phecy. Hence Tully says that the Pythagoreans attend to the discourse, not only of gods, but also of men, which they call omens. This sort of omen was supposed to de¬ pend much upon the will of the person concerned in the event; and hence the phrases, accepitomen, arripuit omen. Such w ere the original omens : but they were afterwards derived from things as well as from words. Thus Pater¬ culus, speaking of the head of Sulpicius on the rostrum, says it was velut omen imminentis proscriptionis, the omen of an impending proscription. Suetonius observes of Au¬ gustus, that he believed implicitly in certain omens; and that if his shoes were improperly put on in the morning, especially if the left shoe was put upon his right foot, he considered it as a bad omen. Omen was used, in a still larger sense, to signify an augury, as in the following line of Tully : “ Sic aquilae clarum firmavit Jupiter omen,v thus Jove confirmed the bright omen of the eagle. Lastly, it was used, in the most generic sense of all, for a portent or prodigy ; as in the third book of the iEneid, where a myrtle torn up by iEneas dropped blood. I he portentous or supernatural omens w ere either ex¬ ternal or internal. Of the former kind were those showers of blood so frequently occurring in the Roman history, which were much of the same nature with this adventure of iEneas, which he calls monstra deum. Of the latter kind were those sudden consternations, which, seizing upon men without any visible cause, were imputed to the agency of the god Pan, and hence called panic terrors. But in¬ deed there was hardly any thing, however trivial, from which the ancients did not draw omens. That it should have been thought a direful omen when any thing befell the temples, altars, or statues of the gods, need therefore excite no wonder; but that the meeting of an eunuch, a negro, a bitch with whelps, or a snake lying on the road, should have been looked upon as portending bad fortune, 2 u ter Omen. 338 O M M Omer, St is a deplorable instance of human weakness, and of the II pernicious influence of superstition on the mind. Omni on. 1 • fV»of nrnrtice rniClOUS llliiucn^c — - It is more than probable that this practice or making ordinary events ominous of good or bad fortune took Us rise in Egypt, the parent land of almost every superstition , but wherever it may have arisen, it spread itself over t le whole inhabited globe, and at this day prevails in a greater or less degree amongst the vulgar ot all nations, inelo - lowing may be cited as examples. To break a looking-glass is extremely unlucky ; the par¬ ty to whom it belongs will lose his best friend. It, going a iourney on business, a sow cross the road, you will pro¬ bably meet with a disappointment, if not a bodily acciden , before you return home. To avert this you must endea¬ vour to prevent her crossing you ; and it that canno done, you must ride round on fresh ground. It the sow be attended with her litter of pigs, it is lucky, and denotes a successful journey. It is unlucky to see first one mag pie, and then more ; but to see two denotes marriage or merriment; three, a successful journey ; tour, an unex¬ pected piece of good news; and five, that you will shortly be in a great company. To kill a magpie will certain y punished with some terrible misfortune. If ^ a famdythe vouno-est daughter should be married before her elder sis¬ ters, they must all dance at her wedding without shoes. This will counteract their ill luck, and procure them iu - bands. If you meet a funeral procession, or if one pass by you, always take off your hat. This keeps all the evil spirits attending the body in good humour. It, m eatl you miss your mouth, and the victuals fall, it is very - lucky, and denotes approaching sickness. It is lucky put on a stocking the wrong side outwards; changin0 alters the luck. When a person goes out to transact any important business, it is lucky to throw an old shoe after him. It is unlucky to present a knife, scissors, razor, 01 any sharp or cutting instrument, to one’s mistress or friend, as theyare apt to cut love and friendship. To avoid the evil effects of this, a pin, a farthing, or some trifling recom¬ pense, must be taken. To find a knife or razor denotes ill luck and disappointment to the party that finds i • OMER, St, an arrondissement of the department of the Pas de Calais, in France. It extends over 450 square miles, and comprises seven cantons and 136 communes, with 105,020 inhabitants. The capital is the city of the Tame name, situated on the river Aa. It has walls, broad streets, and well-built houses, a cathedral, six churches, a college, 2100 houses, and 19,032 inhabitants. It is a place of considerable manufactures of woollens, and wheie, y means of a canal connecting it with the city of Calals’tl^re is a great internal trade in agricultural products. Long. 2. 9. 52. E. Eat. 50. 44. 52. N. , OMERCUNTUC, a district and town ot Hindustan, in the province of Gundwana. It is a celebrated resort of Hindu pilgrimage. In the neighbourhood are found the sources of the three great rivers, the Soane, Nerbudda , and the Mahanuddv, which adds to the sanctity of the place ; the Hindus always evincing a great regard for the sources and the confluence of rivers. Long, of the town 82. 15. E. Lat. 22.53. N. . , . , . OMERPOOR, a town of Hindustan, in the nizam s ter- ritories, in the province of Berer, eighty-two miles north- east from Julnapoor. Long. 77. 10. E. Lat. 20. 2d. JN. OMMON, a district of Arabia, which comprises a poi- tion of the southern coast extending from its eastern ex¬ tremity of Rasalgate to the entrance ot the Persian Gulf. In the interior it is one of the wildest parts of the country, and is little known, but is generally supposed to consist ot sandy deserts. Along the coast the country is more fer¬ tile and the inhabitants are an industrious and active race, pursuing with ardour both commerce and navigation. 1 he soil is well watered by the rivers which flow from the O M M ranges of mountains along the coast. Its produce is con- Or, fined almost exclusively to dates and a little wheat, which'"-', appears to be scarcely sufficient for its own consumption, as according to Frazer (see Narrative of a Journey into Khorassan, p. 17), large quantities of the latter article are imported from Bushire and Bassora. On the other hand, lar^e quantities of dates are also exported ; those of Om- mon enjoying, it is said, a preference over the produce of other places, particularly in Sinde, to which they are exported. Dates are the great staple of these countries, being the staff of life; and they are the standard by which the value of landed estates is estimated. Landed proper- ty, although it usually descends by inheritance, may be disposed of in any way the proprietor pleases. The sove¬ reign’s claim is confined to the tenth of the produce, and he&can in no way interfere with the proprietor’s rights, al- though he may divest him of any command which he pos- sesses, or expel him from the district if he pleases. Lands are usually let out in lease, oLannual rent payable in a por¬ tion of the produce. Slaves are made use ot here, as throughout Arabia, in the labours of agriculture ; but they are treated with kindness and indulgence. The property of the Arabs which they possess independently ot land, consists for the most part in live stock, sheep, goats, camels, asses, a few horses, and cows ; camels being in value from thirty to three hundred dollars a-piece, according to blood and quality. The asses of Orngion are celebrated as the finest of Arabia ; and individuals of the best breed sell for very extravagant sums. The value ot the common kind varies from one to forty dollars ; goats from four to six dol¬ lars ; sheep from one and a half to six dollars. _ !\o mules are reared, nor are horses abundant in the province. The cows have humps, and resemble those of India. Milk, butter, and ghee are very abundant, and good of their kinds; which is the more remarkable, as the cattle have little or no pasture in the neighbourhood, and are fed upon dried fish a little salted, of which they become very fond. Ommon is by no means celebrated for its manufactures, which consist of turbans and waistbands, or girdles of cotton and silk, striped or checked with blue, an<{ hJvinS the ends ornamented with red, green, or yellow border , cloaks, called abbas, made of sheep s wool or camel s hai, and of various degrees of fin?ness ; rcotton ^X/brs powder, and arms of no superior quality ; and eaithenja s for the market of Zanguebar. They also prepare a sueet- meat in high esteem, called hulwak, from ho‘ieyors_u=^ the gluten of wheat and ghee, with a few almonds, and sharks’ fins and dried sallfish for the eastern mark t . Frazer states, that the provinces of Arabia, of which cat is the first, are too poor to consume much fpreig P duce or to afford any considerable quantity of their ?n exchalve! Still, he adds, there is a certain deman to many Indian productions and other articles, as sj’ spices, cotton cloths, silk, indigo, ship timber, and c* from Mocha, cowries, ivory, Joarree gram, gu oil for burning, cocoa-nuts, wood for buildinB, from Zanguebar and other African ports ; dates’ See. from Bushire and Bassora. A considerab ^ q a J of these articles is sent to this country mere y d as it is a great entrepot of the comm,%ce ^ Africa; but on between India, Arabia, Persia, an as COUntry, and no inconsiderable portion is consume _ ^ at a joss paid for chiefly in dollars and cownes ; and ^ to understand where this quantity ot spec*e P it by But it is obvious that the country can o )\ But it is obvious that tne counuy ^ y A/nther source the sale of its own produce. There is "0 1 travel- from which it can be obtained ; nor need alnCe all ler be surprised that he cannot comprehend at a the resources which an extensive distnc ^ untry find carrying on foreign trade Where ^ “"“ice equivalents to exchange with foreigners for then i Om U O M P but within itself? The fact stated by Mr Frazer, of the abundance of specie given in exchange for foreign articles, Omp1 ^speaks for itself. It is an index of the state of wealth ; nor ' ~ need it excite the smallest incredulity or surprise. The climate of Osnmon is extremely unfavoui'able for Euro¬ pean constitutions ; scarcely any native of Europe ever re¬ sides here without experiencing its fatal effects. The heat is always great. Frazer mentions, that during his abode there, which was in July, the heat varied from 90° to 102° of Fahrenheit; the greatest inconvenience experienced was from the suffocating heat of the nights, as a parching wind blew from the rocks, preventing that cool freshness which the dewy morning brings in most countries, and keep¬ ing the frame so continually relaxed and unrefreshed by sleep, as to render it predisposed to the attacks of disease. The natives are the most expert navigators in these seas, and use a very singular species of craft, which are broad in proportion to their length, and are constructed of planks fastened together by nails, and tied and sewed together with cords. This country was early invaded by the Por¬ tuguese, who acquired possession of Muscat, its principal port, which they retained for nearly two centuries. Om- mon was invaded and conquered, iii the course of the last century, by Nadir Shah. But the native princes, when his armies were engaged in other quarters, took the opportu¬ nity of re-conquering their dominions, which thev have ever since retained. The chief towns are Rostak, the re¬ sidence of the imaum ; Muscat, which is chiefly known to Europeans ; and Kalhat and Sohar. The country is ruled by a supreme chief or imaum, who, besides, holds in possession the islands of Keshmee and Ormuz in the gulf, and rents from the court of Persia Gomberoon, and Binderabbassee and its dependencies, in¬ cluding the district of Juroom, which extends from Mee- nab, on the south-east, to Khumeer, on the north-west, in¬ cluding about eighty miles of sea-coast. Elis revenues are derived from various sources. He receives a tenth part of the produce of the territories of Ommon, which is trifling ; a duty of a half per cent, on all merchandise passing up the gulf on Arab bottoms, amounting, according to Frazer’s estimate, to 160,000 dollars a year; the rents of valuable sulphur mines, which he holds of the Persian government; and considerable landed property in the country of Ommon,’ which brings him in only some thousands of dollars in the ! year. Commerce is perhaps the chief source of his in¬ come. He possesses five fine ships, his private property, wo of them mounting fifty and forty guns respectively, oesides four other vessels such as are used on the Arabian coast. His vessels trade to all parts of India and the East, o ie coasts of Arabia and Africa, to Madagascar and the OmS besides.the Ports °f the Persian Gulf. HOA, a Spanish town and fortification on the south- l^SON the ^ °f Honduras- Long- 89- 50- W- Lat. 1W an ancient Gireek festival in honour of Thic fus’.su[named Omophagos, or the eater of raw flesh. f wa® observed in the same manner with the tprfJit eftlVaiS ^accbus’ wbich the celebrants coun- wnrck-6 madnes®* What was peculiar to it was, that the i blnnrlv^er-S eat *be entrabs of goats, raw and donp tLm imitat.10n °f tbe god, who was supposed to have oone the same thing. ^bolous history, a queen of Lydia, the death lpfY°i daidanus* She married Tmolus, who at his been inf lerJm*stress °f his kingdom. Omphale having to see <;n01'lTe ^ &reat exploits of Hercules, wished fied Af/ rious a hero; and her wish was soon grati- was‘0rdere^\mUrtj'°f Eu7tUS’ Hercules fel1 sick, and I his health i ^ as a s^ave’ that he might recover commissionp f USe of his senses- Mercury was to sell him, but Omphale bought him, and O N 339 On. restored him to liberty. The hero became enamoured of Omrattee his mistress, and the queen having favoured his passion, had a son by him, whom some call Agelaus, and others. Lamon. From the son in question were descended Gy- ges and Croesus; but this opinion is different from the ac¬ count which represents these Lydian monarchs as having sprung from Alcaeus, a son of Hercules by one of the fe¬ male servants of Omphale. Hercules is represented by the poets as so desperately enamoured of the queen, that, to conciliate her esteem, he span by her side amongst her women, whilst she covered herself with the lion^s skin, seized the club of the hero, and often struck him with her sandals for the uncouth manner in which he held the distaff. OMRATTEE, a large, fortified, and trading town of Hindustan, in the province of Berar. It carries on an ex¬ tensive trade in cotton, which is sent to Mirzapore by land carriage, a distance of 500 miles, and is sold in this celebrated mart for quadruple its original cost. Lono-. 78. 20. E. Lat. 20. 59. N. OMREE, a town of Hindustan, in the province of Be¬ rar, belonging to the nizam. Long. 77. 64. E. Lat. 21. 7. N. OMSK, a town of Asiatic Russia, in the government of Tomsk, situated at the junction of the river Om with the Irtysch. It is intended as a barrier against the incursions of the Kirghises. It is an agreeable town, and the gene¬ ral’s house, the church, and the military school, are hand¬ some edifices. It has always a garrison, and the inhabi¬ tants amount to 800. It is deficient in a supply of wood, which the coldness of the climate renders almost a neces¬ sary of life. The original fort was built in 1716, but was transferred to its present site in 1766. Long. 74. 54 E Lat. 55. 4. N. OMUDWARA, a district of Hindustan, in the Mah- latta teriitories, and province of Malwah. It is a wild and uncultivated country, much covered with jungle; but where cultivated it is of great fertility, being intersected by the Sopra and Gilligsind Rivers. ON, in Ancient Geography, a city of ancient Egypt, sa¬ bred to the sun, and on that account called by the Greeks Heliopolis* It was remarkable for the wisdom and learning of its priesthood, and for the spacious building in which they cultivated the studies of philosophy and astronomy. The priests of On were esteemed more noble than all the other priests of Egypt. They were always privy councillors and mimsteis of state; and therefore, when Rharaoh re¬ solved to make Joseph his prime minister, he very wisely gave him in marriage a daughter of the priest of On, there¬ by incorporating him into the most venerable caste in Egypt. Bishop Warburton thinks that the superior nobi¬ lity of the priests of On was chiefly owing to their high antiquity and great learning. That they were much ad¬ dicted to the study of astronomy, we know from the testi¬ mony of Strabo ; and indeed nothing is more probable than that they should have been attached to the study of that system over which their god, the Sun, presided, not only in his moral, but also in his natural capacity. The learned prelate affirms, that whether they received the doctrine fiom original tradition, or invented it at hazard, which last supposition he thinks more probable, it is certain they taught that the Sun is in the centre of its system, and that all the other bodies move round it in perpetual revo¬ lutions. “ This noble theory,” he continues, “ came with the rest of the Egyptian learning into Greece (being brought thither by Pythagoras, who received it from GLnuphis a priest of On) ; and after having given the most distinguished lustre to his school, it sunk into obscu¬ rity, and suffered a total eclipse throughout a long succes¬ sion of learned and unlearned ages, till these times re¬ stored its ancient splendour, and immoveably fixed it on the unerring principles of science,” 340 Onateya II Oneirocri. tics. ONE O N K ONATEYA, or Onatiayo, one of the Marquis of Mendoza’s Islands, about five leagues to the east of Ohit- tahoo. It is three leagues in circumference, and of mode¬ rate elevation, with extensive woods and plantations. Long. 138. 55. E. Lat. 9. 55. S. , , ONEEHOW, one of the Sandwich Islands, in the North Pacific Ocean, about forty miles in circumference. It con¬ tains abundance of yams, and a sw'eet root used by the in¬ habitants. The population is estimated at about 10,000. ONEGA, a city of European Russia, in the province of Archangel. It is the capital of a circle of the same name, both so called from the river which waters a great part of the district, and at the mouth of which the city has been built. It is a small but well-built town, containing less than ^OUU inhabitants, who subsist by trading in timber, pitch, and tar, and by exporting oats in some seasons to Norway. It has some trade in ship-building. It is about eighty miles from Archangel, and 916 from St Petersburg. Long. 38. 7. 40. E. Lat. 63. 53. 36. N. . T . Onega, a river and lake of the Russian empire. It is a hundred miles in length and forty in breadth, having a communication with the lake Ladoga, and consequently with St Petersburg. The river, which has its source in Cargapol, and gives its name to a country full of woods, falls into the White Sea. „ XT- ONEGLIA, a district of the province of Nice, in tne kingdom of Sardinia, bounded on the south-east by the Gulf of Genoa, and on the other sides by the territory forming a part of that ancient republic. It is about ninety square miles in extent, and is almost covered with olive trees, which yield abundance of oil; besides which, wine, figs, silk, flax, and some corn, are produced. It was for¬ merly considered as a principality, and gave the title of prince to the family of Doria. The principality was divided into three valleys ; Oneglia, Maro, and Prela. The capital, bearino- the name of the district, is about one mile to the eastward of Port Maurice, and a mile and three quarters from Cape Verde. It stands upon a plain on the sea-shore, and the river Impero falls into the Mediterranean Sea on its western side. It is surrounded with walls, and de¬ fended by three forts; one in the centre, and one at each end The anchorage-ground is good, but open to the pre¬ vailing winds. There are several religious houses for both sexes, a gymnasium, and a governor’s palace. It contains about 4000 inhabitants. Long. 8. 2. E. Lat. 43. 53 N ONEIROCRITICA, the art of interpreting dreams, or a method of foretelling future events by means of dreams. The word is formed from the Greek migog, a dream, and xwm?), from xg/ff/;, judgment. Some call it oneirocratica, and derive it from bmpg, a dream, and xgarsw, I possess, or / command. It appears from several passages of Scrip¬ ture, that, under the Jewish dispensation, there was such a thing as foretelling future events by dreams; but then a particular gift or revelation was expressly required tor that purpose. Hence it has been inferred, that dreams are really significative, and forebode something to come ; and all that is wanting amongst us is the oneirocntica, or the art of knowing what they foreshow. Yet it is the opinion of many that dreams are mere chimeras, bearing indeed some relation to what has passed, but none at all to what is to come. As to the case of Joseph, it was possible for God who knew all things, to discover to him what still remained hidden in the womb of fate ; and to introduce that disclosure, he might take the occasion of a dream. ONEIROCRITICS, a title given to the interpreters of dreams, or those who judged of events from the circum¬ stances of dreams. No great regard is to be paid to those Greek books called oneirocritics ; nor do we know why the patriarch of Constantinople, and others, should have amused themselves with writing on so pitiful a subject. Rigault has given us a collection of the Greek and Latin works of this 0: i • _i tn Aetrnmnsinhus. and another tn On;, given us a collection ui me vjiccn. uuo kind; one attributed to Astrampsichus, and another to Nicephorus, patriarch of Constantinople ; and to these are ^ added the treatises of Artemidorus and Achmet. But the books themselves are little else than reveries; a kind of waking dreams, to explain and account for sleeping ones. According to them, all the secrets of oneirocnticism con¬ sists in the relation supposed to exist between the dream and the thing signified; but they are far from keeping to the relations of agreement and similitude, and frequently have recourse to others of dissimilitude and contianety. Concerning oneirocritics and oneiiociitica, the unlearned reader will find much information in Warburton’s Divine Legation of Moses, and in the works to which he refers. ONEVY, one of the Friendly Islands, in the Southern Pacific Ocean, near the north coast of Tongataboo. ONGOLE, a district and town of Hindustan, in the province of the Carnatic, situated between the 15th and 16th decrees of north latitude. It was formerly dependent upon the principality of Cuddapah, and was afterwards incorporated with the Carnatic below the Ghauts, and in consequence came under the dominion of the nabob of Arcot, by whom it was transferred to the British in 1781. The principal rivers are the Mussy and the Gon- degamma; and the chief towns are Ongole, Courchier, and Sintalsheroo. Ongole was formerly a fortified town; but the fortifications, owing to the tranquil state of the country, have now been allowed to go to decay. It is 1/3 miles north by west from Madras. Long. 81. 1. E. Lat. I5* 31* N‘ _ TT * J 1 I ONGOLOGUR, a town of Hindustan, possessed by independent zemindars, in the province of Orissa, fifty- five miles west from Cuttack. Long. 85. 20. E. Lat. 20. 36'oNKELOS, surnamed the Proselyte, a famous rabbi of the first century, and author of the Chaldaic Targumon the Pentateuch. He flourished in the time of Jesus Christ, according to the Jewish writers, who all agree that he was, at least in some part of his life, contemporary with Jonathan Ben Uzziel, author of the second Targum upon the prophets. Prideaux thinks that he was the elder o the two, for several reasons, the chief of which is the pu¬ rity of the style of his Targum, in which it comes nearest to that part of Daniel and Ezra which is in the Ghaldaic, and being the truest standard of that language, is conse¬ quently the most ancient, since that language, as well as others, was in a constant fluctuation, and in every age con¬ tinued deviating from the original. Nor does there appea to be any reason why Jonathan Ben Uzziel, when h . dertook his Targum, should pass over the law, and beg with the prophets, except it be that he found Onkelo done this work before him, and with a success which he C° Azarins,etheeaduthor of a book entitled Meor ^ the “ light of the eyes,” tells us, that 9nkel0rWai\nP<,ee selyte in the time of Hillel and Samnai, and lived to e Jonathan Ben Uzziel, one of the prime scholars of Hi ej- These three doctors flourished twelve years before > according to the chronology of Gauz, who adds, that u g kelos was contemporary with Gamaliel the eWer^ P ^ master, who was the grandson of Hillel. H»we«e , same Gauz, by his calculation, places Onkelos a years after Christ, and, in order to adjust his °Pinlon " t that of Azarias, extends the life of Onkelos o a gieat length. The Talmudists tell us that he assisted funeral of Gamaliel, and was at a prodigious expe ^ render it magnificent. Prideaux observes, that t ^ gum of Onkelos is rather a version than a pa^phra ^ ^ it renders the Hebrew text word for word, and ^ ^ most part accurately and exact y, and is y amongSt of the kind; wherefore it has always been h IOC On O N O O N T ^ x'* a 341 ithe Jews in much greater esteem than the other Targums • ing shins nf wnr i . =f ■?=•“ a«r. -s.“ir„nb=.'j earned on in rice, betel-nut, pepper, cocoa-nuts, and salt nsn. I his tranp wnc ,* i . i i i — v^^LVx^iivuv^Y and accuracy oi the largum of Onkelos, Prideaux also concludes that he must have been a native Jew, since without having been bred up from his birth in the Jewish religion and learning, long exercised in all the rites and doctrines of both, and being also thoroughly skilled in both the Hebrew and Chaldaic languages, as far as a na¬ tive Jew could be, he could scarcely have been thorough¬ ly adequate to the work which he executed. The same au¬ thor also thinks, that the representing him as a proselyte may have proceeded from the error of supposing him" to have been the same with Akilas or Aquila of Pontus, au¬ thor of the Greek Targum or version of the prophets’ and Hagiographia, and who was indeed a Jewish proselyte. ONOMANCIA, or rather Onomanxia, a branch of di¬ vination, which foretells the good or bad fortune of a man from the letters in his name. Upon much the same prin¬ ciple the young Romans were accustomed to toast their mistresses as often as there were letters in their names. Hence Martial says, Nsevia sex cyathis, septem Justina bibatur. ONOMATOPOEIA, in grammar and rhetoric, a figure where words are formed to resemble the sound emitted by the things signified ; as the buzz of bees, the cacklino- ofhens, oi the note of the cuckoo. Resemblances of this kind are often fancied when they are not real; though, no doubt, there are in every language some words of which the sound is very like to that which those words are em¬ ployed to express. Yet, to the mortification of gramma¬ rians and rhetoricians, conjunctions, which have been pro¬ nounced to be no parts of speech at all, are the only sounds uttered by men which are wholly natural, and these are fewer than is commonly supposed. . a ,arge river of Asiatic Russia, upon the fron¬ tier of Chinese 1 artary, which has its rise amongst the in- terior mountains, and flows north-east till it forms the Chilka, which afterwards discharges itself into the Amour. , e rude tribes of the Bannats and Tungusses wander along its banks. ONONDAGA, a post township and capital of Ononda¬ ga county, New York, a hundred and thirty miles west- north-west of Albany, and fifty miles west of Utica. It is ten miles m length by nine in breadth. Through the east- ern part a broad valley extends north and soufh, bounded rite ™* valley, which ^ i , —ici Limy, is watereu dv vJn- in tlifiCreek,c^hrh flcWS northward to Onondaga Lake, the «eJ0TIii0f 83 ma' The p0St borough of Onondaga, eminence T]C°Unty b™}dinSs> is situated on a delightful about nn!‘ -i™6 P0S5 VlHage of 0nondaga Hollow stands belonnZ 6381 thf court-houso- It has an arsenal Onnmt s lnth1 St-ate’and many mechanical establishments. Onnndpga F? 6 chief town of the remnant of the been apter wdiom the township has W of O a 6 1fIS11fuated three miles south of the vil- houses Id0 0W’ and contains about fifty Indian | SelLThACiare built of logs* There are about a bun- £ i r,^. . . 3 ; v,^ua-uut», ana salt fish. I his trade was carried on in boats, which were much harassed by pirates from the Mahratta coast; an evil that has always existed more or less on the shores of India, but has now nearly ceased, owing to the vigilance of the British marine. No manufactures ever existed to any ex¬ tent, the trade having been destroyed by Tippoo. On the first arrival of the Portuguese in India, Onore was the capital of an independent rajah, who was subdued by them It was subsequently taken from the Portuguese by the Dutch, who appear to have relinquished it; for, in 1763 when it came into the possession of Hyder Ali, it was con¬ sidered as the property of the ranee of Bednore. In 1768 it was taken by the British, and was shortly afterwards re¬ gained by Hyder. It was taken in 1783 by General Mat¬ thews, and was restored to Tippoo at the conclusion of the year. It came under the dominion of the British, with the F0;-- °f CanaraJ when Tippoo’s empire was overthrown, in 1199. Long. 74. 25. E. Lat. 14. 18. N. ONOSANDER, a Greek author and Platonic philoso¬ pher, who wrote Commentaries on Plato’s Politics, which are now lost. But his name is particularly famous for a treatise entitled Aoyeg Zrgarriyixos, a discourse on the duties and qualities of the general of an army, which has been translated into Latin, Italian, Spanish, and French. The time when he lived is not precisely known, but he is ima- dius t0 haVC been contemPorai7 witb the Emperor Clau- ONRUST, a small island in the Eastern Ocean, on the coast of Java, and Bay of Batavia. It is nearly of a circu¬ lar form, about 4800 feet in circumference. Here the Dutch had formerly fortifications and extensive works which were destroyed by a British armament under Sir Edward Pellew, and the island is now desolate. Onrust formerly contained about 3000 inhabitants. It is nine miles north-west from Batavia. ONTAREE, a town of Hindustan, in the province of Gundwana, belonging to an independent chief in the dis¬ trict of Billounjah. Long. 83. 40. E. Lat. 24. 13. N. ONTARIO, one of the five great lakes which separate Canada from the United States, and which are the wonder and admiration of the world. It is situated between the parallels of 43. 10. and 44. 11. of north latitude, and the meridians of 76. 25. and 79. 56. of west longitude, being the most easterly of these vast inland seas. It lies nearly is Of rich alluvion and exuS. Stv O ^ ““f °f tl,ese ^ Tt Fes’neariy !?fe.C:!ek'"h!ch n°rthward to OnondLa Lke! aTd aTvenT^T 1^/ a hundred ueuig a Hundred and seventy-two miles in length by fifty-nine and a quar¬ ter in extreme breadth, and having a circumference of about four hundred and sixty-seven miles. The depth of water varies exceedingly, from a few feet up to several hundreds. I owards the middle, attempts have been made to reach the bottom with three hundred fathoms, without striking soundings. If this be correct, the bottom must be very considerably below the level of the Atlantic Ocean; for its surface is only two hundred and thirty-one feet above tide-water at Three Rivers on the St Lawrence and ONORE, formerly a seaport of Hindustan and a nlnce ^ ^ • Ut subside again °n the south to a very mode- of great commerce, in the province of North’ c/ P r! i elevatl0n; Bordering the lake, the country is every- ls situated at the mouth • uT1 Canara* Ifc where covered with woods, through the numerous openings «‘1> a fine euZZ—nZTTT °f ""il011 (re,iUent ™ topa«“ug a“E east as the foot of the mountains In ^ 16 efteCt’ W llch is greatly enhanced by the white cliffs of “ l> =“ ssjts st Jisnxs ssSKt&stMt 342 O N T O O J Onttai- south is well relieved by a back Br0"f ^ ente. frirmin0, the pi'ecipice of the cataiact, stietch a Y easTwa^d The e!-owning object of the prospect m this di¬ rection is a conical eminence towering above the chain of heights, called Fifty-Mile Hill, as denoting its d.stance from the town of Niagara. Along the southern border ot the lake is the celebrated ridge road, or alluvml way, extending from Rochester on the Genessee, to Lewlston,onrt Niagara eighty-seven miles. It is composed o co beech sand, and gravel-stones worn smooth, and these are ir : "andST rS “it U ttn^dTedCaTw^ty IndyaUhund™d and thirty feet above Lake Ontario, whence 11 A ONTINIENTE, a large town of Spain, in the province of Valencia, in the department of San hehpe. open town, in the vicinity of the mountains, but, stands in a fruitful spot, and is remarkable for the salubrity of its climate. Figs are cultivated near it ot good quality, of which about 7000 quintals are annually collected and sent to other districts. The hilly parts in the vicinity produce excellent pears and apples,^nd near them - -sed the best wheat in Spain. The inhabitants amount to 11,700, who besides cultivation, have some employment m making linen and woollen goods, paper, and copper wares. Being 0 k inland, and out of any great road, it is a place very rarely visited by foreign travellers. . ONTONG Java, a group of islands m the Pacific Ocean, called by Mendana, Baxos de la Candelaria. They are twenty two in number, and are now called New Ire- land. Long. 156. E. Lat. 6. In. ». ONYCOMANCY, or, as some persons write it, Omr- mangy, a kind of divination by means of the nails of the The word is formed from the Greek e.»|, a mi , and wamia, divination. The ancient practice was to rub the nails of a youth with oil and soot, or wax, and to hold un the nails thus smeared against the sun, when certain figures or characters, showing the thing required, were sup. ON YX^tT mineral Stance usually ranked amongst gems, and which derives its name from the colour resen,. hlino- that of the nail of the finger. OOCHASEEK, a town of Hindustan, in the province of Cntch, and district of Neyer, about twenty-five miles south-we t from Theraud, which belongs to the chief o Morwara. It is surrounded by a thorn hedge instead of fortifications, and has a tank of bad water, with some ex¬ cellent wells. Its inhabitants are low classes of Hindus. OOCHINADROOG, a celebrated hill-fort of Hindus¬ tan in the district of Harpoonelly. It is ot great natural strength, having an abrupt ascent of very great height, particularly to the north and west, where u nendicular. It was besieged in G93, and taken a e sfe" e of three months, by Tippoo, who, with the cruelty of a tyrant, mutilated all the boys and youths m the fortress most of whom died in consequence. Long. 7d. 5o. b. Lat. 14OODEADARG AM a 1 te year'lSOO^and^now belongs to .the rajah of Mysore It gives name to a celebrated pass in the mountains, is thirtv-one miles south-east of Bangalore. GO JAIN, a celebrated city and district of Hindustan, in the province of Malwah. The district is situated be- the sun it cracks in all directions, and the tissu wide and deep as to render tmvelhng dangerous B s.des the city of Oojain, this district contains 175 ™g • produces the mango, guava, plantain, me on, varieties of the orange and hme tre<\s* . • aisonamed The capital ofthe above mentioned ^tnct is also Oojain, and is the principal resldencenpotjTedmosfancient ated on the Sipperah River, and is one Ilennel),the cities of Hindustan, being, aecording to Majo ^ ^ of city which was known to the Greeks un tedin Ozene. It is called in the Sanscrit ^Bick- authentic records to have been the capital ot t ch is. erma b a abort time after the eomn-encement 0 ^ tian era. The aneient m“e t„ th‘8nor,h of the modern town, or it stood aim <■ , ke at atirae it. It was overwhelmed by a violent ear q c ^ when it was the seat of empire, as well a 0^ of learning. Its site is easily known; for» other depth of fifteen feet, brick walls, Plllais . ’ anruins ruins, are discovered. Adjoining these subterraRea there is a remarkable cavern, which consmts of lery, supported by pillars, with chambe d ^ the mlb. and containing a number o & qncient coins are which are of granite. Amongst the ™ns ancient c ^ frequently found. The modern c 7 of and snr. oblong form, about six miles in This space rounded by a stone wall with round towe . Ooj OOJ includes some waste ground, but the inhabited part occu- r'pies the greater portion, and is much crowded with build¬ ings and population. The houses are built of brick, and covered with tiles. The principal bazaar is a spacious and regular street, paved with stone, and having houses of two stories in height on each side. The whole of the lower story is laid out in shops, the ascent to which is by five or six steps from the street; the upper stories are the dwellings of the owners. The most remarkable buildings in the town are the mosques and temples; Scindia’s tem¬ ple is but a poor building, and is so surrounded by other buildings as to be scarcely observable. The southern quarter of the city is called Jeysingpoor ; it contains an observatory, erected ;by rajah Jyesing of Jyenagur in the early part oflast centurj'. An extensive fort and citadel were founded by Mahdajee Scindia, at the distance of about two miles from the city, containing a palace. But these works were stopped at his death, and Gwalior was preferred by the reigning chief as his stronghold and place of refuge. Oojain carries on a considerable trade. From Surat are imported various kinds of European and Chinese goods, which are frequently sold here at a very low price. From Marwar are brought pearls, and quantities of assa- foetida, the production of Sinde. Diamonds from Bundel- cund also pass through this city on their way to Surat. The city is well supplied with provisions; and fruits, vege¬ tables, and grain abound in all the public markets. Oojain is a very ancient city ; the rajahs who governed it are mentioned by Ferishta as early as a. d. 1008 ; and it was conquered by the Mahommedans about 1230. The first of the princes who reigned here was named Jyapa Scindia, who was a servant of Bajerow the peishwa", by whom, in reward for his services, the city and district of Oojain were made over to him. He was succeeded by his son Junkojee, who was murdered after the battle of Paniput, and his uncle Ranojee obtained possession of his territories. This chief left two sons, Kedjaree and Mah¬ dajee. The latter being the more aspiring of the two, ac¬ quired possession of the sovereignty. He w-as a brave and active officer, and commanded a division of troops in the memorable battle of Paniput, in which he was severely wounded in the thigh. He rose .afterwards to high copi- [ mand, and to extensive dominion. He introduced Euro- | pean discipline amongst his troops, by whose aid he not only rivalled in power the greatest Mahratta chiefs, but conquered a large tract of Hindustan proper, and gained possession of the capital, Delhi, with its fallen monarch, the representative of the Great Mogul. He died in 1794, without issue, leaving the whole of his possessions to his adopted son and grand nephew Dowlut Row Scindia. In the year 1803, Scindia ventured to try his strength with the British, and a war ensued, which was soon terminated by a series of signal victories gained over his imperfectly disciplined troops, by Lord Lake and General Wellesley. He was in consequence soon compelled to sue for peace, which was concluded on the 30th of December 1803, on -ondition that he should cede all the territory situated be¬ tween the Ganges and the Jumna, and all his possessions l every description in the country to the northward of hose belonging to the rajahs of Jyenagur and Joudpoor, md the ranah of Gohud. He also relinquished to the British government the fort and territory of Broach, and I .e ort and territory of Ahmednuggur, and all his posses¬ ions to the south ot the Aguntee Hills, including the fort district of Gondapoor, and all the other districts be- ween that range of hills and the Godavery. Several forts, ,Wns’ .and districts, were restored to Scindia. Two of e articles in the treaty, namely, the cession of the strong ess ot Gwalior, and a subsidiary force of 6000 men to nrCft01ptant^ stati°ned with Scindia, were relinquished by a Uriwallis, on his return to India. On the 23d of o o s March 1804, a treaty offensive and defensive was conclud¬ ed with Scindia by Colonel, afterwards Sir John Malcolm, on the part of the British government, by which Scin¬ dia agreed to receive a British subsidiary force of 6000 men, to be stationed near his frontier; and, in the event of a war, engaged to join the Company’s forces with 6000 in¬ fantry and 10,000 cavalry. He also agreed to submit all the differences he might have with the peishwa to British arbitration. It was agreed that the Chumbul should hence¬ forth be the boundary between the two states. When the war broke out with the Pindarrees, the policy of Scindia excited strong suspicions against him; in consequence of which a new treaty was concluded in 1817, in which it was agreed that he should use his utmost exertions against the Pindarees, and that he should admit British garrisons into the foi tresses- of llindia and Aseerghur during the war. The territories possessed by Scindia are; still very consi¬ derable, and are supposed to yield him nearly a million per annum. For further particulars respecting this prince, see the article Hindustan. OON, a town of Hindustan, in the province of Guje- rat, and district of Werrear, fifteen miles north of Rahdun- poor. The town contains about 2000 tolerably well-built houses, and the palace of the rajah. It is an open town, with one long street, which is a bazaar. The chief of this town is a Hindu of a low tribe, who derives his income of 12,000 rupees a year chiefly from the plunder of his neigh¬ bours. Long. 71. 45. E. Lat. 24. 15. N. OONAE, a small village of Hindustan, in the province of Gujerat, belonging to the Mahrattas. It has in its vi¬ cinity a remarkable hot spring, which, like all the other extraordinary phenomena of nature, is held sacred by the Hindus, and a great resort of pilgrims, who ascribe to it the most wonderful qualities. OONARANG, a small European town and fort of Java, on the south coast, where the Dutch governor Janssens made his last stand when the island was attacked by the British general. It is eleven miles south from Samarang. OONIARA, a town of Hindustan, in the province of Ajraeer. It is strongly fortified with a wall and round towers; the houses are mostly built of stone, and the pa¬ lace is neatly constructed with a stone enclosure, surround¬ ed by a ditch. Long. 75. 58. E. Lat. 25. 51. N. OONOMAFOU, an island in the South Pacific Ocean, about six miles in length, and covered with verdure. It was discovered in 1616 by Schouten and Le Maire. Lon»- 175. 51. W. Lat. 15. 53. S. OOREECHA, a populous town of Hindustan, belong¬ ing to the rajah of Jyenagur, in the province of Ajmeer. OOREY, a town of Flindustan, in the province of Agra, fifteen miles west of the river Jumna. Lone-. 79. 35 E* Lat. 25.58. N. & ' OOSCAT, a considerable town of Anatolia, in Asia Mi¬ nor, situated in a hollow, surrounded on all sides by naked and barren hills. The houses are neatly constructed of brick and wood, painted like those in theother Turkish towns. The palace is a very extensive building of brick and wood, but only two stories high; and a handsome mosque has lately been erected, of hewn stone, in imitation of St Sophia. It is sun ounded Dy a slight wall, built of sun-dried brick and mud. i he inhabitants amount to 16,000, of whom the greater number are Turks, and the remainder Greeks, Armenians, and Jews. It is 110 miles east of Angora. Lat. 39. 42. N. OOSCOTTA, a fortress of the south of India, in the province of Mysore. It was occupied by the Mahrattas in the year 1688, but was taken from them by the nabob of Cuddapah, and retaken by the Mahrattas. In 1761 it was besieged and taken by Hyder Ali; and seven years after¬ wards it was taken by the British, but recovered by Hy¬ der in 1773. It fell under the power of the British in 343 Oon II Ooscotta. 344 O P H O P I Oossoor Ophio- mancv* 1779, and was made over to the new rajah of Mysore along with the province. It is fifteen miles north-east of Ban- ^ 00*8 SO Oil, or Ousoon, a fortress of Hindustan, in the southern province of Mysore. It was first taken by tie British in 1768, and again in 1791. After the death ° Tippoo, this town, with the province, was made over to the new rajah of Mysore. It is twenty miles south-south-east from Bangalore. Long. 72. 52. E. L^t. 1 • • • OOSTERHOUT, a market-town of the Netherlands, m the province of North Brabant, and the arrondissement ot BreL It is a considerable place for making pottery wa e and tiles, and has large markets three bmes a year for the sale of linen cloth. It is five miles to the north of Bred , and contains 6950 inhabitants. ,, r GOTAPALLIUM, a town and district of the south of India, in the district of Dmdigul. Long. / 7. 30. E. La. ^OOTATATOOR, a town of the south of India’ in the district of Tanjore. Long. 70. 58. E. Lat. 1L 7. N. OOTRADOORG, one of the numerous fortresses with which the country of Mysore is covered. Il was by the British in 1792. Long. 77. 17. E. Lat-12' ^ OOTRIMALOOR, a town ot the south of India, iirovince of the Carnatic. Long. 79. 50. E. Lat. 12. 3d. . . OPALIA, in Antiquity, feasts celebrated at Rome in honour of the goddess Ops. Varro says they were held on the 19th of December, which was one of the days of the Saturnalia. These two feasts were celebrated in the same month, because Saturn and Ops were husband and wife ; but the vows offered to the goddess were made sitting on ^ OPARO, an island in the Pacific Ocean, discovered by Captain Vancouver in 1791. L consists of a cluster of big craggy mountains. The natives are estimated at 1500, who appeared to be well fed, and to have open and cheerful countenances. Long. 215. 58. E. Lat. • • ; OPERA, a lyrical drama set to music in recitations, airs, duetts, trios, quartetts, choruses, and/««fe; preceded by an instrumental overture, and accompanied by an oiches tra • and, when performed, enforced and embellished by ac¬ tion and declamation, and aPP[°Pnate cost,;m,eS^np1®rCee^ rv The opera appears to have originated at tlore about the end of the sixteenth century. (See Dorns works, vassim ) The Italians divide their operas into four kinds , fhe sacred opera, the serious opera, the ^ and the opera buffa, or comic opera. The brench have their grand’opera, in which the whole lyrical drama is sung , and the opera comique, in which the singing is intermingled with spoken dialogue. The Germans have a greater va¬ riety of such distinctions of operas; as the grand opera, the serious opera, the tragic opera, the heroic opera, the roman- tic opera, the allegorical opera, the military melodrama, the comic overa, and some others. , , . Much amusing and interesting matter ^ative to the rise and progress of the opera may be found in Dr Burney s Tours, and History, in the Baron de Grimm s Correspon¬ dence, and in various German periodicals conducted by musicians. See also Arteaga, Manfredim, Signorelli, &c. For some technicalities relative to operatic music, see the 31 'oPHICLEIDE, or Keyed-Serpent. See Music. OPHIOLOGY is composed of two Greek words, name¬ ly 60/s, a serpent, and Xoyog, « discourse, and consequently denotes that branch of zoology which treats of serpents. ^OPHIOMANCY, in Antiquity, the art of predicting future events from the motions or habits of serpents. I bus Calchas, on seeing a serpent devour eight sparrows, with their dam, foretold the duration of the siege of Troy; and the seven coils of a serpent which was seen on the tomb of Anchises were interpreted to mean the seven years du¬ ring which iEneas wandered from place to place before he arrived at Latium. v OPHIR, a country mentioned in Scripture, from whence Solomon received great quantities of gold in ships which he sent out for that purpose. The difficulty, however, is, where to fix its situation. Some have gone in search of it to the West, others to the East Indies, and a few to the eastern coast of Africa. Mr Bruce places it in the king¬ dom of Sofala, on the coast of Mozambique ; and he sup¬ ports this hypothesis with great learning and ingenuity. It was, on the other hand, strenuously maintained by Dr Doig, a learned contributor to the third edition of this Encyclopedia, that it was situated somewhere on the west¬ ern coast of Africa, and that the Tarshish of Solomon was the ancient Betica in Spain. Whether the one hypo¬ thesis or the other be the true one, it is not for us to de¬ cide. Both are plausible, and both supported by much ingenuity and erudition ; but we do not think that the ar¬ guments of either writer furnish a complete confutation of those employed by the other. OPHITES, in Ecclesiastical History, Christian heretics, so called both from the veneration they had for the ser¬ pent which tempted Eve, and the worship they paid to a real serpent. They pretended that the serpent was Jesus Christ, and that he taught men the knowledge of good and evil. They distinguished between Jesus and Christ. Je¬ sus, they said, was born of the Virgin Mary, but Christ came down from heaven to be united with him; Jesus was crucified, but Christ had left him to return to heaven. They likewise distinguished the God of the Jews, whom they termed Jaldabaoth, from the supreme God; ascribing to the former the body, and to the latter the soul of man. They had a live serpent, which they kept in a kindot cage; and at certain times they opened the cage door, and called to the reptile. The animal came out, and mounting upon the table, twined itself about some loaves of bread, which they broke and distributed to the company, all of whom kissed the serpent. And this, by a horrid blasphemy, they called their Eucharist. „ . . OPHTHALMOSCOPY, a branch, of physiognomy, which deduces the knowledge of a man’s temper and cha¬ racter from the appearance of his eyes. _ | OPIATES, medicines which are administered to pro¬ cure sleep, whether in the form of electuaries, drops, or ^OPINION is that judgment which the mind forms of any proposition, for the truth or falsehood of which there is not sufficient evidence to produce science or absolu e belief. That the three angles of a plane triangle a equal to two right angles, is not a matter of opinion nor can it with propriety be called an object of the mathema tician’s belief; he does more than believe it, he tow to be true. When two or three men, under no temptatio to deceive, declare that they were witnesses of an unc mon though not preternatural event, their testimony-s complete evidence, and produces absolute belief i minds of those to whom it is given ; but ^ doJS “°JsPnot duce science like rigid demonstration. ^ he fact is^ ^ doubted, but those who have it on report do not to be true, as they know the truth ot ProPoslt|0 e- lively or demonstrably certain. When one or two late a story including many circumstances to a tmr son, and another comes who positively contradicts in whole or in part, he to whom these Ja™nS 1 mind, m WllOie U1 ill ^ — . \ J nwn mil are given weighs all the circumstances m lus a ^ balances the one against the other, and evidence more or less wavering, to that side on which t ^ appears to preponderate. assent.18 ! ...Jdiffered specting the facts of which he has received such d accounts. I O P o O P o 345 ;ura oblaLd from the poppyrutfpaJtly has1boer??oS’,/lThy H'hr'lf'1 'he Moora: *'1“ which it Oporto. of the resinous and partly of the gum^Tn’d, ancT pS ^",1,0‘restive u^,hr'SHanS’ and f°ll<>Wed the for-"-^ sesses also a narcotic principle. Onm-tr, .. OPOCALPASUM, Opocarbascm, or Apocalpasum, on Ute r'°ht bank from which k°rk thehn’OU*h “f tl,e rirer' a gummy, resinous substance, which has a strong resem- in some parts attained bv a flilhr f Y ^ai}ascent’ blance to liquid myrrh, and which in the time of Galen TLnl at ained 7 ® 140 steps. It occu- a poiso”ous nature’an5 atfhc ^ OPORTO or Porto n ritv nf i u • many niagmficent and spacious streets, well paved for dered as the northern capital If U.SkSSdoT'S^f Sn'^hr^h ’ iT'11 some,(i"e chllrches- “"vents, anti the most important commercial places rf tW peninsula m.mlr^ 1° b,U'ldmf ! “nd ‘''“t "re interspersed with It is situated in the province Entre Douro and Minho nt 1 l l P7 e.ns’ a ouoding with flowers and beautiful the mouth of the latter riven The YaTneartfe mouth nkee ’ The *'? "" Tuf g?iT ^ t0 the who!e of the river is generally low, but the city beino' situated * fl m0S, remar^able edihces, as in most Catholic on an elevation on the northern bank, may be descried at convonT ..Im1,, eVOtf ■t° rel*'ous purposes, as churches, the distance of four or five leagues, hv a remarkabTv hkok ’ ,? monastene?- Sle most strik>ng "re very steeple, called Los Cierigos, 4ich risesT„ the ra dd^i nf “af",fic,in lr ornamented. The cathedral is a superb it. On approaching the bir, the town and L™ e of if ^ng, vvhtch was constructed in 1112, by Count Hen- John de Foz are seen upon low land near the month of h d C iT °’ t^e afnLnt t0 116 c^°‘r a fine the river, with a lighthouse, lighted every fight On tie fch^ 11“ sfta,rcaf' . rhe “Hegiate church of Cedo- northern point of the castk of st jlltnle foz a ledge of rt re h. t "^ t1' ‘S a PO^y Gothic struc- rocks extends towards the south-west, some of them above Mr!^ } 4 • thu year 5,59, an? Jas left untouched by the water; and without these, on the opposEHide t a similar IT redee™d from destruction by a no- ledge. This formation renders the entrance difficult with, rtbute £ “its lresCT™tion ^Thf “ll "''h 'Tlr yearl3, Kt^teTS ^ti>the year f“°p™esToc;; in along the coast. The bar of the Douro is ,Ae to al- SOWsiclIml^lSS^d friends cannot afford to do so. The church of the Cieri¬ gos, built in 1748, stands at the top of a fine wide street called Calcada de Natividade. It is a superb building, most beautifully ornamented, and has a tower, before no¬ ticed, the most lofty in the kingdom, if not in Europe, which may be seen from the sea at the distance of seve¬ ral leagues. The other parochial churches are St Nicolao said to be the richest, St Victoria, St Ildefonso, Santa O # # V,A xsvuiu llciUie lO ai- terations of its position from gales of wind, which makes it tlie more necessary to take a pilot, a matter not diffi¬ cult, as there are plenty of fishermen perfectly competent, who are ready to act in that capacity. When vessels have passed the bar they are in a state of security, ex¬ cept at periods when, after a heavy fall of rain, such tor¬ rents rush down the Douro as to raise the water from thirty to forty feet in a few hours. These fres/ies, as they forces of Viriato. When the Goths, Vandals,”1]^ and ^uev! had overrun krance and Spain, and attained the end their career, the Alans entered Lusitania, and establish- their capital in this city, which they adorned and forti- MZnha' " Sa“ ^«^ayeaw ecS Vef t?„m ufo^r'Ltd c^mf^h^tkSrL0hSiC" "“apetZefe name cLo nr ^ f Y 160’ under the no less than 380 monks ; but some of them were destroy the rim- aid dn& /\ Tf8 °n the °Pp0site banl1 of ed duri"S ,he sia«e "f' OP"v» by Dom Migud and o hers f!l" I’va"f..de‘e?^d_tbe P^?se over ,, against the suffered severely There were^five convents, wUchTo” tained about 340 nuns of different orders, besides nume¬ rous females who resided in them under the tuition of the nuns. fied, giving it the name of Castrum Novu nwnrl U • ^ier.e are Pew ctttes in Europe in which the charitable from Gale or Ctvd tl.n •' „ " J U ’t0 filstlngUIsfr it institutions are more numerous than in Oporto. The nub- the river, called’ CastruTAnlioumT bank fic hospitals especially are extensive estabHshments. The sitania was seized upon^dbout thenar 540 hv^l 1 PnnC1‘Dal 1 f'16™ i§ the H°SPital Rea1’ which ^ built of Goths, under their King Leovosrikb who .mt thn AnaiI g^nUe’ and hasrthe appearance of a palace, and is remark- all who refused to i • g • h P f 1 tbe sword able not more f°r its extent and grandeur than for the said, amongst others Ids own s^TheVoth^8 ^ beerl great nUn?bf °f patientS which are rel,eved in it; they their dominion till the invasion of the M0 * ™aintained are attended by the best physicians and surgeons, both Abdulhassan overran all PilivL * 1Y ^ u- 6’ Enghsh and Portuguese, and are supplied with the best ^ whole counlrTup to tYe i "’r r8'1' ^ ?SpenSed n0t 0nly to the s^k in the house, but the hands of the Ch/Li-m* i Douro' 11 tf11 again into also to out-door patients at half price. Of a less extent fain Abderralunan, attS Z&Zlic KklTlf f T" 'i'" f0UndlinS bosPital- t"'» unfortunate and poor w 820. A desecrate Wtl Catholic King Alfonso L females, one for beggars, one for poor old women, one for !*!> the Moors «re defeaZZd ml3' in ‘I’" En«lish’ ,and thr,ie UP»" a scale distinguished by “b“ai“y whZefz c'zr68 of st Sylva’San crispi"’ a-d S““ F~da Batalha. AnotheJ VInnr.TI61 retamS ,the Dame °f This city suffered severely during the long siege which d« city, ad! eZed irZeV „S|hrqrif y,n«o'1,'e;ed ia December 1833, aid cominued An s«« Gascon knights under The comT, IT D ’aT, ?" 183*' 'va8 a period of severe misery to the inha- v°i" xvi. G ’ omman o on Alfon- bitants, as well from the constant fire kept up against the O P o town, as from the scarcity of food, fuel, and other n^ce®' saries. The army of Dorn Miguel had surrounded the city with works, which extended in a circuit of nearly four¬ teen miles, and from the forts on those lines kept up a can¬ nonade and bombardment. The effect of the former was to make an impression upon the works of Dorn Pedro, ana that of the latter to destroy whatever was destructible in the houses of the inhabitants, and in the public buildings. The churches were spared by the assailants as far as their position did not interfere with the military operations. Both the public and the private buildings are constructet of massy blocks of stone, and have little combustible mat¬ ter in their composition. Thus, though the windows, the decorations, and the furniture of many buildings, were O P P Of the number of pipes, 49,575, sent to other countries Opp,- than Great Britain in these ten years, Brazil took 28,261, II the other parts of South America 8944, whilst North Arne- ^ rica, the whole of Europe, India, and Africa, took only 12,370 pipes, of which Hamburg alone received 5573. This statement shows to what an extent the north of Por¬ tugal is dependent uoon the consumption of Great Britain for the chief product of its soil. A duty is collected from the wine, both on its transport from the interior, and on its exportation to foreign countries. The amount varies with the kind and quality of the wine, and is often subject to considerable fluctuation. The other exports from Oporto consist of oil, oranges, ficrs, and various fruits, wool, refined sugar, cream of tar¬ tar, shumac, leather, and cork. The imported articles are, uecorduuiifc, cmim*.**** ^ # ■» * i much injured or destroyed, and more than sateen iou- provisions; sugar and coffee from Bra sand of the civic inhabitants kdlcd, there was but ^ d ^ ^ goodS) hardware, tin plates butter, mage done to the interior appearance ot the place, cheese from Great Britain and Ireland ; and hemp, far as that was concerned, a very short P«'°d » 'S and” her timber, from Norway or the Baltic. the restoration of the city to its former beauty. i i It is said that a large portion of the British cottons and years after the termination of tlie siege the inhabitants im tedgat tPhis place ore for the purpose of be- in a great degree returned “ P"8"1* " g carried into Spain through Braganza and other from and habits which have long distinguished the y. towns, by means of the contraband trade. Oporto, in a national view is a co^rcml p a th ^ mamJactures of the city suffered exceedingly by greatest importance, being the channel by which t si but are now reviving. The sugar refineries are valuable produce of the soil ot Portugal is is n considerable ; gold and silver lace is made, and also some other countries. That soil is Pe- Tosfery Cott’on and linen weaving gives some occupation, growth of a strong red wine, highly relished * ’ ag do Jhe making of glass and paper. Though the popu- and not much esteemed in a.ny other part o . • was reduced by the siege, it is now rapidly recover- is produced from a grape originally transported fro former state, and, by the latest calculation, amounts gundy to the banks of the Douro, whence it has spread Though somewhat cold in the winter, throughout the P™»ince o^Tra^o^Mon^^tho rn^e- m,fch visitecl by invalids as Lisboa, rior and higher grounds of the province En.re Douro and Minho. From the growers the wines are collected by mer chants of Oporto, and preserved in large quantities till they are shipped for the markets of consumption. 1 he best or the wines formed the subject of a monopoly to a privileged company, who possessed the right of pre-emption of a li¬ mited number of pipes before the general buyers were al¬ lowed to make their contracts. That monopoly has been abolished, a circumstance which has given a new direction to the internal trade ; but the sufferings occasioned by the siege are still felt, and this, with the change of sys^e™’ ^ is 5230 square miles, comprehending fifty-four cities and r„titid“:rsin *i;X‘monebih^ ^ i«* i. ^ ^ ^ tain, however, that as long as the taste for port wine con¬ tinues in Great Britain as it has hitherto done, the trade ot Oporto must be of the greatest importance to the kingdom of Portugal. Oporto is generally considered as a more healthy city. The latitude, by accurate observation, is 41. 11. 15. N. the lon¬ gitude 8. 8. 22. west from London. ^ OPPELN forms one of three provincial governments ot Prussia, into which the province of Silesia is d'V'ded. It is bounded on the north by the government ot Breslau, on the east by the kingdom of Poland and the republic of Cracow, on the south-east by Gallicia, on the south and south-west by Moravia, or rather Austrian Silesia, and on the west by the province of Reichenbach. In extent it An Account of the number of Pipes of Wine shipped at Oporto from 1824 to 1833, distinguishing those to the British dominions from those to all other countries. Years. 1824.. 1825.. 1826.. 1827.. 1828.. 1829.. 1830.. 1831., 1832., 1833. Pipes sent to Great Britain. Pipes sent to all other Countries. 19,968 40,277 18,310 24,207 27,932 17,832 19,333 20,171 13,575 19,432 6,049 170 287 10,003 13,295 7,533 4,832 3,268 2,975 1,063 231,037 Average annual export 23,103 49,575 4,957 Total. 26,117 40,447 18,597 34,237 41,227 25,371 24,165 23,439 16,550 20,495 270,645 27,064 towns, and 1492 villages; and it is divided into «been cir¬ cles. The population, according to the census ot IHW, amounted to 529,964 individuals, and, according to that of 1826, had increased to 660,756. Of these inhabitants, about nine tenths are Catholics, and the remainder is divid¬ ed into various sects. It is drained by the river Oder, in¬ to which all the streams run. The soil is not very fertile, and its most valuable produce is derived from its extensive forests. The chief industry is applied to spinning and to making wooden ware. The city ot Oppeln, the capita o the province, as well as ot the circle of the sairle stands on the Oder, and contains 380 houses, with inhabitants. It is surrounded \vith walls, and defende y a castle; and it has some trade in linen, in timber, an ironmongery. . . OPPIAN, a Greek poet, was born at Corycia or An zarba, in Cilicia, towards the close of the reign of A aom Aurelius. His father, Agesilas, held a distinguished ran in the senate of his native place, not so much on acc of his birth or his riches, as the credit he obtained to extent of his knowledge and his love of philosophy, was the object of all his studies, and the guide of a actions. To his son he was careful to give an educ ^ conformable to his own principles, causing him structed in music, geometry, and particularly the lettres. The young Oppian, however, had scar^ ^ pleted his studies, when an unlooked-for reverse P his ardour, and destroyed all his hopes. Septimiu O P p 0 rus, having mounted the throne, to which he had succeeded m hewing out a way with his sword, arrived at Anazarba and immediately the senate of the place threw themselves at the feet of the conqueror. Agesilas alone, conceiving himself bound to withhold from an usurper the homage which was due only to the legitimate sovereign, stood aloof upon this occasion ; a circumstance which so irritated Severus, that he deprived the philosopher of all his pro- perty, and banished him to the island of Melitus, now Meleda situated in the Adriatic. Thither Oppian followed his father, and it was in this compulsory retreat that he conceived and executed his two poems on the Chase and on Fihsing entit ed Cynegetica and Halieutica. When they were finished, he went to Rome, and presented them to the son of Severus, Antoninus Caracalla, who relished them so much that he permitted the author to demand of him whatever recompense he pleased. Oppian asked only for the release of his father, with permission to the latter to return to his own country ; and the emperor, as much touched with the filial affection of the son as he had been delighted with the verses of the poet, not only granted the favour he had asked, but added the gift of a gold statera (about T.l 4s. of our money) for each one of the verses wh.ch he had just heard recited. If, as Suidas pretends, these verses amounted to twenty thousand, never did poet receive so splendid a recompense. But Oppian did not long enjoy his good fortune. Scarcely had he returned to a^ofthirtvT 'fM6 SU?k int° tHe graVe> Nearly age of thirty, having fallen the victim of a contagious ma- ady which then desolated the city of Anazarba. His fel- low-dtizens erected to his memory a magnificent tomb whereon was engraved an inscription in Greek verse, which Lorenzo Lippi has rendered as follows : Oppianus vatum decus immortale fuissem, Invida m gelidum rapuisset Parca sub Orcum SHiinr^n"1 pl*c!dse clarum splendore Carnal, bi hvor longas violasset tempora vitce, Won mihi laude parem quemquam terra alma tulisset. rSVSf1I-that,WLe.Iefrn of °PPian from the anonymous G eek historian of his life, whom all the succeeding bio cent thpS|kaVe j3 t^fr^y copied. We must, howevel ex- “rack with ^!d/ t0r0f Jis";0l'ks’ ®ckneUer, who, being struck with the disparity of style which he remarked in tbS sZich °nnFishi"*’ conceded tha;nle works, Which, according to him, were so different in me same amhn01 Posslbl{. ha,ve been the productions of the two Oppians’ tlmfirsfo^ h’ hG SUpposed that there "'ere thornfth! ^ ^ f whorn’ a natlve of Cilicia, and au- In th/ th(:Halleurtlca’ preceded the second by several years ifb e&fr Ch"eider’ “ is to tiK »r:and "k'8ance "f «)de; Gaspar Kept t„ coupI 77an< m?7 °;hers> "over cite Inn, P < a name with laudatory epithets. It is OPT 347 oifthronetT61*’ \° re,co"cile 80 niuch Praise bestowed Oppido of O mian nn H ^ regard evin°ed for the T ot Oppian on the other ; nor can we help feeling some as- ^Axis. tomshment, when we consider that, from the dfte of the eClfdheZ8’ frnted 31 Florence in 1515> two centuries e apsed before the appearance of the first really critical edition, published by Schneider in the year 1777 ^ During th., long period, it is true, there appeared several edition? at cousiderable mtervaJs, particularly that of Aldus, Venice, lo 17, which Schneider considers as very defective and re gards as the source of all the faults which, till his time had disfigured the text; that ofVascosan, Paris, 1549; and that of Rittershusius, Leyden, 1597. No edition appeared in the yrarm? ’ T T'm^hce^teenth century, until y a 17/7, when that of Schneider was published at Strasburg, containing the Greek text, accompanied with a Latin translation, and followed by the paraphrase in prose ich the sophist Eutechnius had made of the Ixeutica r&r attr‘buted t0Oppian, but which, unfortunate- y, Has not come down to our time. This was followed bv 178b b!r ° Belin d,e ^allu’ publisbed at Stl'asburg in published a? ring° y 116 Cynl9etica'ofwhich editor published, at the same place, the following year, a good 1 rench translation, enriched with critical notes, and a cu nous extract from El Domal’s history of anima , translat ed from the Arabic by Baron SilvesJe de Saey, who! hol e er, for some reason, withheld his name. Prior to this there were two French translations, one by Florent Chris- tien, preceptor to Henry IV. when prince of Bearn • and another by Fermat, a counsellor of Toulouse, who, in 1690 published a prose version of the books on Hunting by Ar- ^oEtl hPPban-- The rm 0nFisbi"S -as transited g ? ber0IC "erse hy Jones and others, belonging to St John s College, Oxford, and printed there in 1722 8vo with a life of the author prefixed. The Latin translad’on of Lorenzo Lippi, printed in 1478, preceded by thirty-seven ^ nppfn^0 PrincePs of the Greek text. ^ iA.) TT]f • IDr0’.a c!ly ot ItaIy> in the province of Calabria tenore I., in the kingdom of Naples. It stands on a hill ween The rivers Modena and Trecosio, is the see of a rite/®’ ',l,en near^one h“if °f the pop^- StonrbnILA?iION’ in Medicine> the act of obstructing or canPt hnS UP he PrfSage °f the body> hy redundant or pec¬ cant humours. Phis word is used chiefly to denote ob¬ structions in the lower intestines. OPOUN, the most easterly of the Navigators’ Islands or!atIvk t0cean- P"*-I69-7- W t IA 1IVL Mood, in Grammar, that which serves to express a desire or wish for something. In most lan guages, except the Greek, the optative is expressed bv prefixing to the subjunctive a conjunction, which, wUh the verb, expresses the thing wished for, leaving the mind to supply‘1,0 mb indicative of desire’; as utinan Zti you were wire!™ WISe’ 0r’other words> “-l wM that eye/JJke wire™’ ‘he a^,enh^h ‘l>e optic axes of both &™kbefore t°hneeeyr1,er> “ the>' te"d tomaa' 348 OPTICS. History. Ottcs, from tire Greek word oirropat, which signifies to y 'see, is the name given to that branch of natutal ohdosophy which treats of the nature and properties of light, ot changes which it suffers either in its qualities or in its course when transmitted through bodies, when reflectt from their surfaces, or when passing near th(.‘ny ot e structure of the eye, and the laws of vision ; and of the con struction of those instruments in which light is the chief agent. histoky. Aristo¬ phanes. B.C. 424. Lactantius. A.D. 303. The early history of optics, like that of all the sciences cultivated in ancient times is involved in ntuoh obsc'm^. After the art of glass-making was discovered, lenses and spheres of glass seem to have been used as burning-glasses. In Aristophanes’s comedy of The Clouds a burning sp ere is distinctly described. Pliny speaks of globes of glass whmh produced combustion when held to the sun. Lactantiu informs us that a globe of glass full of water could, when exposed to the sun, kindle a fire even in the coldest weatlier. And it appears that globes of glass were used by the \ es- tal Virgins to kindle the sacred fire, and by surgeons to burn the flesh of sick persons that required to be cauter- ^ v. '^ Among the earliest speculators on vision were Py^ago- Pythagoras ^ ^ piato ; the former held that bodies became visible by means of particles projected from their surfaces and en¬ tering the eye, while the latter, in order to give the eye some share in the matter, supposed that something emitted from the eye met with something emitted from the object, and was again returned into the organ of vision. The fol¬ lowers of Plato, however, though they had deteriorated rather than improved the conclusion of Pythagoras, were acquainted with two important facts in the saence. T y taught that light moved in straight lines, and that when it wa^ reflected regularly from the surfaces of polished bodies the angle of incidence was equal to the £jngle,of re^eJ10"', The earliest writer on optics was Euclid, the celebrate geometer, whose treatise on the subject is still extant, consists of two books on optics and catoptrics, and proceed^ on the Platonic theory, that the visual rays pass from the eve to the object, forming a cone whose apex is in the ey and whose base is the objU He shews that the angles of incidence and reflexion are equal, and that the incident and reflected rays lie in a plane at right angles to the reflecting surface; and he discusses the apparent magnitude and form of objects, and the apparent place of the images formed by reflexion from plane, convex, and concave mirrors. The book on optics contains sixty-one, and that on catoptncs thirty-one theorems.2 . ,. . , , As a naturalist Aristotle made some valuable optical ob¬ servations. He described, with tolerable correctness, the phenomena of rainbows, halos, and parhelia. He considered the rainbow as produced by the reflexion of the suns rays from the drops of rain which gave an imperfect image of the sun; and he ascribes the light which appears in the sun s absence to the reflective power of the atmosphere. Plato. Eiwl'd- B.C. 300. Aristotlp. B.C. 410. The speculations of Seneca and Cleomedes derive any Hist, interest they may possess from their absurdity. Seneca no-^ [, ticed the magnifying power of a bottle of glass in enlarg- gene ins small letters, and he observed that an angular piece of A.D.} glass produced all the colours of the rainbow. Cleomedes, 7ldYs immersed in the water. This last body is then reetafl Th^ib ^ ^ ^ -T pIaCed °n the body in the air he ,pI hf haeeu-nAStljaight line- The two distances of hus meef an|d thlld body from the vertical diameter are tnus measured on the graduated circle. lovd™ S maiLne[ Ptolemy obtained the results in the fol- air togJ!/ eVWhlC?nC°ntamS the angles of refracti76736, and the true rat,o ^the m. lemy, it will be seen that he gives a theory ot astronomical dex of refraction being 1 3358), 0 7486. Ihe results for refractions much more complete than that of any astronomer 30° and 60“ are exactly the same as Ptol.emy before the time of Cassini.* . The following were the measures obtained by Vttello fa These important results, which, without any other assist- glass:— ance, would have enabled the optician totiace the progress of the rays of light through lenses of all forms, were not ap¬ plied as they might have been, to extend the boundaries of the science. Banished from Europe, optics, along with the other sciences, found shelter in Arabia; and after a period of a thousand years, it was destined to receive fresh acces¬ sions in that favoured country. }iazeu. Alhazen, who flourished about the end of the eleventh . D. 1100. was the individual wrho gave this fresh impulse to optical science.1 He establishes the opinion of I ythagoras, that vision is performed by rays which proceed from the ob¬ ject to the eye; and he states that vision is not completed Angles of incidence. 0° 10 20 30 40 50 .... 60 .... 70 .... 80 .... Angles Ratio of refraction. of the sines. ... 0° 0' ... 7 0 0-70179 ...13 30 0-68255 ...19 30 0-66761 ...25 0 0-65748 ...30 0 0-65270 ...34 30 0-65403 ...38 30 0-66247 ,...42 0 0-67946 till the ideas of external objects are conveyed by the optic The mean of these ratios is 0-669, 6, whereas thatobtain- nerves to the brain ; and after a description of the eye and ed by Ptolemy is 0-68736, and the true ratio 0-64516. its parts, he assigns to each of them the function which it In comparing this last table with the similar one given by performs in vision. He maintains that we see objects singly Ptolemy, we cannot tail to be struck with their entire sinu- with two eyes, because we must perceive only one image larity, with the single exception of the angle of refraction when it is formed on corresponding parts of the retina. ThP nf JnccWc. which Vitello makes 19 30 , and Fto- instniment employed by Alhazeri for measuring the angle Ferny, in the Paris copy, 20° 306 Now in the Oxford ma- of lefraction, iLore complex than that used by Ptolemy nuseript, the numbers are 18“ 30'; and Protar and his knowledge of the refraction of the atmosphere and conjectures that the real number has been 19 30 , the sarne of fluids, is obviously inferior to that of the Alexandrian as Vitello’s. Hence we cannot on any just grounds rega philosopher. Alhazen ascribes to refraction the twinkling the measures of refraction given by the Polish phfiosop of the stars, and the contraction of the diameters and dis- as any thing else than those of 1 tolemy, from whom he tances of the heavenly bodies ; and it follows from his me- have borrowed them. r thod of reasoning, that refraction elevated the stars towards By comparing the two tables for water, wearei the pole and not towards the zenith, as had been sagaciously to make the same unfavourable supposition. Ihe jeM ascertained by Ptolemy. Alhazen has described seven spe- for 20“, 30°, and 50“ of mcdence are exi^y *he cies of mirrors, and he was the first person who determined both; and Vitello s measure for / 0 , viz. 45 30, is t the focus of rays after reflexion, when the place ot the ob- as Ptolemy’s in the Oxford manuscript. , r, _.p ject is known. He has treated largely of optical illusions. But this opinion is converted into certain y w whether produced in direct or in refracted and reflected mine Vitello’s table of the refractions from wa g vision ; and he ascribes the size of the horizontal moon to in which all the measures are identically the sam the apparent form of the concavity of the sky, winch is of Ptolemy. , , , . v. imagined to be more remote in the horizon than any wdiere In the course of his experiments, i e o w , , else. Alhazen likewise observed that objects were magni- serve that whenever light was reflected or re ^ fied when held close to the plane wall of the larger seg- transparent bodies, a certain portion ot it was I > ments of a glass sphere; and he has given rules, which are does not estimate the quantity, contenting lin\ when far from being correct, for determining the apparent size of observation that bodies always appear less u 0£ the objects when seen through such spheres. seen by refracted and reflected hg i . n g Vitello. The next cultivator of optics was Vitello, whose work was cause of the rainbow, he shews that refract A.D.1270. ^ 1 Montucla has very incorrectly charged Alhazen with borrowing the greater part of Ins optics from this opinion, and rendered it probable that the Arabian philosopher never saw the woik ol Ptolemy. What assista his predecessors who flourished after Ptolemy cannot now be ascertained. See Connaissance des Jems tor iolo. 2 This work has been very erroneously regarded as little more than a translation of Alhazen’s treatise. OPTICS. H ry. sary to its production as reflexion, but he of course does not 1 — ''ascribe the colours to refraction, regarding it merely as a means of giving strength or condensation to the solar rays. He imitated the colours of the rainbow, (which, like Seneca, he considers as having their origin in a mixture of the sun’s rays with the blackness of the cloud), by placing a white piece of paper beneath a circular vessel of glass containing water; but he says that they are not the same colours with those of the rainbow, because they are not in the same num¬ ber, and do not reach the eye after reflexion. He shews that in those countries where the meridian altitude of the sun exceeds the semi-diameter of the rainbow, a rainbow cannot be seen at noon. His observations on the foci of glass spheres, on the twinkling of the stars, and on other optical phenomena, are of no value, and rather tend to con¬ firm the severe censures which Baptista Porta has pronounced upon his scientific character. Passing over archbishop Peckham’s treatise on optics, en¬ titled Perspectiva Communis, as containing nothing either Kog Ba-new or important, we come to consider the claims of Roger con. Sorn Bacon to the invention of the microscope and the telescope. Ip- In his Opus Majus, which embraces his Perspectiva and Specula Mathematica, he has given an account of his spe¬ culations and inventions in optics. Dr. Plott, Dr. Friend, Dr. Henry, Wood, Muschenbroek, Jebb, and Wftlliam and Samuel Molyneux have agreed in regarding Bacon as the inventor of the telescope, while Dr. Smith of Cambridge is of opinion that he wrote only hypothetically, and had never made any experiments with real lenses. As this is not the place to discuss this subject in a critical manner,1 we shall content ourselves with giving a single extract respecting the telescope and microscope. “ Greater things than these may be performed by refract¬ ed vision. For it is easy to understand by the causes above mentioned, that the greatest things may appear exceeding small, and on the contrary; also that the most remote ob¬ jects may appear just at hand, and on the contrary. For we can give such figures to transparent bodies, and dispose them in such order with respect to the eye and the objects, that the rays shall be refracted and bent towards any place we please; so that we shall see the object near at hand, or at a distance, under any angle we please. And thus from an incredible distance we may read the smallest letters, and may number the smallest particles of dust and sand, by rea- son of the greatness of the angle under which we may see them; and on the contrary, we may not be able to see the greatest bodies just by us, by reason of the smallness of the angles under which they may appear; for distance does not attect this kind of vision, excepting by accident, but the quantity of the angle. And thus a boy may appear to be a giant, and a man as big as a mountain, forasmuch as we may see the man under as great an angle as the mountain, and as near as we please; and thus a small army may appear a very great one, and, though very far off, yet very near us, and on the contrary. Thus also the sun, moon, and stars may be made to descend hither in appearance, and to ap¬ pear over the heads of our enemies; and many things of the ^sort, which would astonish unskilful persons.” Whether these remarks were the result of speculation or o actual experiment, it is not easy at this distance of time o etermine; but in opposition to the opinion of Dr. Smith, we may adduce a passage from Recorde’s Path way to Know- edge, printed in 1551, in which he distinctly speaks of a giasse used by friar Bacon. “ Great talke there is of a glasse wp ^ i at ^>x^or^’ which men might see things that snPt6 on’anci that was iudged to be don by power of euill P 1 es. .But I know the reason of it to be good and natu- Sol ral, and to be arright by geometry (with perspective as a History, part of it), and to stand as well with reason as to see your face in a common glass.” On the authority of various passages in the writings of Invention friar Bacon, Mr. Molyneux is of opinion that he was ac-°t'Speetu- quamted with the use of spectacles, and when Bacon sayscks- that this instrument (a plano-convex glass, or large seg¬ ment of a sphere), is useful to old men, and to those that have weak eyes ; for they may see the smallest letters suf¬ ficiently magnified,” we are at least entitled to conclude that the particular way of assisting decayed sight which he de¬ scribes was known to him, though he may not have used his segment of a glass sphere in looking at objects separated by an interval from its plane side. But whether spectacles were in use or not in Bacon’s time, it is quite certain that they were known and used about the time of his death, which happened in 1292. Alexander de Spina, a native of Pisa, who died in that city in 1313, having seen a pair of spectacles made by some other person, who was unwilling to communicate the secret of their construction, got a pan- made for himself, and found them so useful, that lie cheer¬ fully made the invention public. M. Spoon,* to whom we are indebted for this fact, fixes the date of the invention be¬ tween 1280 and 1311. Signior Redi, from whom Spoon quotes the preceding fact, states that he possesses a manu¬ script written in 1299, Pi Governo della Familia de Sean- dro di Pissozzo, in which the author says, “ I find myself so pressed by age, that I can neither read nor write without those glasses they call spectacles, lately invented, to the great advantage of poor old men, when their sight grows weak.” It is stated also in the Italian Dictionary Della Crusca, under the head of Occhiale or Spectacles, that friar Jordan de Rivalto, who died at Pisa in 1311, tells his audi¬ ence, in one of his sermons, which were published in 1305, “that ^ is not twenty years since the art of making spec¬ tacles was found out, and is indeed one of the best and most necessary inventions in the world.” Bernard Gordon, too, a celebrated physician of Montpellier, in his Lilium Medi- emee, published about 1305, recommends an eye salve as capable of making the patient read the smallest letters without spectacles ; and Muschenbroek informs us that it is insciibed on the tomb of Salvinus Armatus, a Florentine nobleman, who died in 1317, that he was the inventor of spectacles. Before we quit the period of Friar Bacon we must notice Leonard a claim to the invention of the telescope which has been Digges. made in favour of Leonard Digges, an Englishman, because Dkd 1574. this claim, whatever be its amount, supports undeniably the prior claim of Bacon. The claim of Digges is founded on passages in his Pantometria and Stratiotikos. The first of these works appeared at London in 1571, and a second edi¬ tion of it, edited by his son Thomas Digges, Esq., was pub¬ lished in 1591. The Stratiotikos was published in 1579 and also in 1590. In the preface to the second edition of the Pantometria, Thomas Digges remarks: “ My father, by his continuell painfull practices, assisted by demonstrations mathematical, was able, and sundrie times hath, by propor- tionall glasses, duely situate in conuenient angles, not onely discouered things farre off, read letters, numbred peeces of money, with the verye coyne and superscription thereof cast by some of his freends of purpose upon downes in the open fields, but also seuen miles off declared what hath beene doone in priuate places.” In tnetwenty-first chapter of the first book, Leonard Digges himself says, “ But marvellous are the conclusions that may be performed by glasses (mirrors) concave and convex, of circular and parabolic forms, using for multiplications of 18, R6 mUSt refer °Ur readerS t0 a series of able anonymous letters upon this subject, published in the Philosophical Magazine, vols. lecherches Curieuses d'Antiquite, dissert. 16. 352 OPTICS. History, beams, sometimes the aid of glasses transposed which, by larWained the ^^“hjlten “tlte6™ ^ practice, should unite or dissipate the images or figures pro anorture of anv form, the figure of the sented by the reflection of others. By these kind of glasses f’0"'*7^“pTa“rrolreXP when the sun ™ or rather frames of them placed in due angles, yee may not aperture y _ PP annoarance of a crescent. He only set out the proportion of an whole region, yea, repre- J each poi^t of the Tperture is the apex of two op- sent before your eye the lively image of every house, village, shews P ^ of hag the S1U\ for its basle, &c, and that in as little or great space or plan as ye will P08^ c ^ wh’en cut b a ]ane at r;ght angies to its presente ; but also augment or dilate any parcel! thereof, while a biminous circle, whose diameter will be so that, whereas, at the first appearance a whole toun shall axis, w p^ ^ ^ d{stance of the plane from the aperture, present itself so small and compact together that ye sna p P nt, tbege images be taken at a considerable discover any difference of streets, yee may, by application o qf Ytb aperture, and therefore be pretty large glasses in due proportion, cause any peculiar house or room asmall; since the whole image thereof dilate and shew itself in as ample form as the whole images, ill of which are circular, touns at first appeared, so that yee shall discern any , im.icre Gf the sun formed by the aperture, of whatever or read an, letter lying there mem ^Peciaj form it be, must be circular also ; and it will approach the beams may come into it, as plainly as it >ou we c \ neriect circle the smaller is the aperture and the ally pressent, although it be distant from you as ^r as y distanf the image.” It may be easily shewn, indeed, ran discrie. But of these conclusions I mind not * * , n a. KTo a Ipnt: in formins? an inverted iorm I mind not neremuie ihulc ^ • r • • *. i to introduce, baring at large, in a vobmte by,itself, opened ^smaU^^acts Itke a lens m the miraculous effects f gj” es expressly then pictures become morTdistinct in their outline as the Now it is a curious fact that ihomas Tngges I y p bpromes smaller. Hence the sun’s image is says that his father’s knowledge of optics part Y gr^ 3 ^i crescent, according as the sun’s disc is entire the aid he had by one old written book Bakon s Ex r“u“: “7cr““"Ti th“benomenaofvisionMauro- periments, that by strange aduenture, or rat ei s, , j ^ v(, succeSsfuL He shews that the crystalline came to his hands. _ , . . o a iens which collects the rays which enter the l In support of the opinion that teleseope wa k g and con es them to foci on the retina; but he does in England more than forty years before lb ) ’ J , „ d tbat these foci depict an exact im- when it was supposed to have b-n mvented m HoHand, we “ ct upon the ’etina. Limited, may quote a passage or two from the celebrated Jo i ‘ tbis discovery was, it enabled him to ascertain mathematical preface to Euclid, written at Matlolte on *6 ^ (he ,ls in tll( 9th of Febrnary 1570, the year in which it was published, ‘he ^use ot a ^ ^ focJbefore they entered the re. “ Is it not,” says he, “ greatly against the soverei0n y |a|cr at points beyond the retina. Hence, man’s nature to be so overshot and abused with thing - ” tbege caseSj vision is‘'indistinct either from a fore his eyes ? things far off to seem neer, and neer to s convergence of the rays, he concluded far off'; small things to seem great and great to seemsma ghies of sutable focus would relieve the rfSS^Ud convex glasses the ,„ng-si8« ^ Mi-^ rainbow tdso back by reason of an image appearing in the air betwee of the inner from 530 to 56° ; but according to the you and the glass, with like hand, sword, or dagger, a , b h be adopted, namely that part of the sun’s rays with like quickness foyning at your eye, likewise ms you do the elterio/of die drop, wi* green, blue, ana purpie. xd.M.ig ^ — — - " , n t-t temaAabre“paSge Sft^in'whteh hi speaks of the means enumeration in leaving out the yellowy asD. _/• rmmliprs of an enemy s army \ Ine ess foyning at your eye, likewise as you uo y rpflprtpd from the exterior of the drop, wimeis at the glasse.” He then mentions that such a g ass was^in en>tered tbe drop and circulated within it by reflex- the possession of a gentleman famous and honourab 1 tbe sides Gf an octagon ; the diameters of the bow good service done to his country. Dee likewise speaks ,d ^ve bcen 450 and 56°. Maurolycus supposed the having seen once or twice in company with Orontm y f p i bow t0 be four, namely, orange, (crocus), TLghis^t-^hIS jt , ,c rrho mnrp rpcentlv shew much accuracy of observation. Miui of ascertaining the numbers of an enemys army, 1 attempted to discover the law of refraction but herald, pursuivant, sergiant royall, captain, or w losoeye ro ) success. He supposed that the angle of refraction careful to come near the truth herein; besides tie ju g- ■ • i tbs 0f the angle of incidence, which is ment of his expert eye, his skill of ordering taefrea^, the was alw 8 ^ Lse of glass, but quite , help of his geometrical instrument; ring or staffe astrono- boditeg of ]ow and high refractive powers. ' mical, commodiously framed for carriage and use. J Maurolvcus may be considered as the first discoverer of wonderfully help himself by perspective glasses, m which I , f ^ in s0 tar as he observed that the rays trust our posterity will prove more skilful and expert, and the aberration ot ^ure,nso h isofatransparent . to’greater1purposes thi in these days can be credited to be hjS^" ^ than those^ 1,0 When polite learning began to revive in Europe some of " ere fomed the more abstract sciences began to be cultivated with sue- the e whi J be ;ustiy described as arising from , eu.rr A'i). rpaS^t^ by hT^opSTesearcS S ^^X^cmTp^ new and i SaHsSSSES: stsar^Jasssass: - 1 !Layt "ifr s,Slrt:a;fuo"Xnt”sa», rnys are rcflvc.vd to .1, sky or frou, cloud. 1 a OPTICS. 353 which held its sittings in his own house, and which number- read the most minute letters from a distance. It is an in- History ed among its members all the virtuosi in Naples. Each vention of great utility, and grounded on optical principles,' member was bound to contribute to the common stock some- nor is it at all difficult of execution ; but it must be so di- thing not commonly known, and in this way he obtained vulged as not to be understood by the vulgar and vet be the materials for his Magia Naturalis which appeared in clear to the sharp-sighted.” The description which follows the year 1560,1 when he was only about fifteen years of age. seems far enough removed from the apprehended danger This work was speedily translated into French, Hebrew, of being too clear; and indeed every writer who has hither- Spanish, and Arabic, and went through numerous editions in to quoted it, has merely given the passage in its original different parts of Europe. The Papal court viewed with Latin, apparently despairing of an intelligible translation jealousy the proceedings of a society which devoted so much With some alterations in the punctuation, which appear energy to the spread of knowledge, and, though Baptista necessary to bring it into any grammatical construction Porta was a Roman Catholic, the meetings of the academy it may be supposed to bear something like the following were prohibited by the ecclesiastical power. Although Bap- meaning :—“ Let a view be contrived in the centre of a tista Porta was well acquainted with the writings of his pre¬ decessors, yet the principal invention recorded in his Natural Magic is that of the camera obscura, which he seems to have brought to great perfection. He remarks, in the 17th chap¬ ter of this work, that if a small aperture is made in the shut¬ ter of a dark room, distinct images of all external objects will be depicted on the opposite wall in their true colours ; and he further adds that if a convex lens be fixed in the opening, so that the images are received on a surface at the distance of its focal length, the pictures will be rendered so much more distinct that the features of a person standing on the outside of the window may be readily recognised in his inverted image. Various attempts seem to have been made to obtain an erect image of objects in the camera ob¬ scura, but the contrivances for this purpose had the effect, as Baptista Porta assures us, of making the pictures so obscure that there was no pleasure in viewing them. He observes, however, that the image may be best rendered erect by re¬ ceiving it “ upon a concave mirror properly adapted to the convex lens and held at a great distance from the hole.” f he effect of this expedient, he says, cannot be sufficiently admired. Baptista Porta applied his instrument to the re¬ presentation of eclipses of the sun, and of hunting scenes, battles, and other events produced by moveable pictures and drawings. In this w ay he magnified small objects and draw ings, and produced the effects of the magic lantern by the light of the sun in place of that of a lamp. He consid¬ ered the eye as a camera obscura, the pupil as the hole in the window contracting and dilating with different lights, and the crystalline lens as the principal organ of vision, though he seems to have regarded it not as his convex lens but as the tablet on which the images of external objects were formed, the cornea being, no doubt, in his estimation, the part of the eye which formed the picture. Baptista rorta was doubtless acquainted with what may be called the simplest form of the refracting telescope, namely, that in which a convex lens is the object-glass, and the eye placed six inches behind its focus, the eye-glass. He found that when his eye was thus placed behind a convex lens, he could read a letter which he could not read with his naked c\e. His lens must have exceeded in focal length, the dis- ce at which his eye sawr distinctly, for the magnifying power of such a telescope is equal to the focal length of the object-glass divided by that distance. In another place Porta, after mentioning the effects m u a concave ancl a convex lens separately, re- ^ ^ ^0U knew how to combine one of each sort mirror, where it is most effective. All the solar rays are exceedingly dispersed, and do not in the least come to¬ gether (in the true centre) ; but there is a concourse of all the rays in the central part of the said mirror, half way to¬ wards the other centre, where the cross diameters meet. This view is contrived in the following manner: A con¬ cave cylindrical mirror placed directly in front, but with its axis inclined, must be adapted to the focus; and let obtuse angled, or right angled triangles be cut out with two cross lines on each side drawn from the centre, and a glass (spe- cillum) will be completely fit for the purposes we men¬ tioned.” If it were not for the word specillum, which, in the passage immediately preceding this, Porta contrasts with speculum, and which he afterwards explains to mean a glass lens, it would be very clear that the foregoing pas- sage, supposing it to have any meaning, must be referred to a reflecting telescope; and it is a little singular, that whilst this obscure passage has attracted universal atten¬ tion, no one, so far as wre are aware, has taken any notice of the following unequivocal description of the principal part of Newtons construction of the same instrument. It is in the fifth chapter of the seventeenth book, wyhere Porta explains by what device exceedingly minute letters may be read without difficulty. “Place a concave mirror so that the back of it may lie against your breast; opposite to it and within the burning point, place the writing; put a plane mirror behind it, that may be under your eyes. Then the images of the letters which are in the concave mirror, and which the concave has magnified, will be reflected in the plane mirror, so that you may read without difficulty.”2 On these grounds Porta claimed for himself the inven¬ tion of the telescope ; and his death which took place in 1615, at the age of eighty, is said to have been hastened by the exhaustion of writing a work on that instrument. At a more advanced age, Baptista Porta composed an¬ other work entitled, De Refractions Optices parte, libri novem, which appeared in 1593, but contains nothing that is deserving of particular notice. The subject of the rainbow, which had hitherto been a questio vexata among philosophers, now began to excite notice, as much from the absurdity of the theories which were advanced to explain it, as from the native interest of the subject. Clichtoveus, whom Dr. Priestley supposes to Clichto- be the person who distinguished himself by his opposition veus. Died to Luther, had maintained that the second rainbowr was a 1543. reflected image of the first, not only from the faintness of its light, but from the inversion of its colours ; an opinion right]v vrm „ ,T V , 7 une oi eacn sort us ngnt, out trom tne inversion of its colours ; an opinioi more clearlv ” I b0t» ^ ^ objects krg _ i i^ i in irt CjCar y; “ ^ Porta,” says Mr. Drink water Bethune, 18 a mirab e 0* Galileo, “ had stopped here, he might hut I, Se or an annual pension to enable him to make these in ments for Holland alone. It was resolved, that a com £,/. 0/ GalUeo, Libr. Useful Knowledge, p. 22. > «»p7 have seen many Dutch telescopes after he had reinvented the instrument. a-nongwhomTgnijr GdileThTcont^TJuOOO^ IT HiShnes8’ and the selection of the lecturers, was sent from Handers to Cardinal BorvhesP g VV° h fl ^ ^ ,1S Sf,d t0 be on account of an eye-glass like the one which ‘ Moll, Journal 0,1 n i x ^orPese- , M e have seen some here, and truly they succeed well.” ’ J°Urnal °f the R°yal Institution, vol. i. p. 488. 6 Viviani vita del Galileo, n. 69. 356 OPTICS. History. move appropriate names of telescope and microscope having S^ofthe ^ W Jbeen afterwards given to these instruments by Demisiano. In his 8bth proposmon ne e: y ^ ^ Telescopes Telescopes were early and eagerly imported into Eng- in England, land, and known by the name of trunks and cylinders; A.D. 1609. anci s0 soon as July 1609, we find that our countryman Harriot. Harriot was directing them to the lunar disc, and had begun two full drawings of that luminary, which he after¬ wards completed.1 Harriot’s earliest observations on Ju¬ piter’s satellites were made on the 1st October 1610, nine months after their discovery by Galileo. The earliest teles¬ cope in England must therefore have been obtained xrom Holland ; and in a letter from Sir William Lower to Har¬ riot, dated the longest day o/1610, from fraventi in Caer- marthenshire, he says, “ we are here so on fire with these things, that I must render my request and your promise, to send more of all sorts of these cylinders. My man shall de¬ liver you monie for anie charge requisite, and contente your man for his paines and skill. Send me so many as you think needful unto these observations: in requital I will send you store of observations. Send me also one ot Gahleus bookes, if anie yet be come over, if you can get them. In a letter dated July 6, 1610, Sir Christopher Hey den writes to his friend Camden, “ I have read Gahleus, and to be short, do concur with him in opinion, for his reasons are de¬ monstrative ; and of my own experience with one ofcmr or¬ dinary trunks, I have told eleven stars in the Pleiades, whereas no age ever remembers above seven, and one ot these, as Virgil testifieth, not always to be seen. from this and other facts, Professor Rigaud infers “ that it is per¬ fectly clear that Harriot and his friend had been in the habit of using telescopes before the discoveries of Galileo were known to them ; and it appears likewise that in 1610,° they were manufactured in England.” The magnifying P^wer of some of the telescopes used by Harriot weie t ’ r ’ T ’ 52 so jn a letter from Sir William Lower to Harriot, dated Traventi, 6th July 1610, he says, “I have received the per¬ spective cylinder that you promised me, and am some that my man gave you not more warning, that I might have had also the two or three more that you mentioned to chuse lor me. Henceforward he shall have orders to attend you bet¬ ter, and to defray the charge of this an others, for he con- fesseth to me that he forgot to pay the worke man. 46 According as you wished, I have observed the moone m Jan:: in ins oulu —i , • il j cope, and has shewn how an instrument which produces the same effects might be made, by substituting for the usual concave eye-glass one or more convex eye-glasses. Kepler, however, does not seem to have constructed such a teles¬ cope, and father Schemer1 seems to have been the first per¬ son who embodied the plan in an actual instiument, which has ever since been known by the name of the astronomi¬ cal telescope, in consequence of the inversion of the images not being disagreeable in astronomical observations. The real inventor of the compound microscope is as little Inver: known as the inventor of the telescope. It would be in vain of the, to inquire into the history of the single microscope, for the™N magnifying power of globes was known to the ancients; and no individual ambition or national partiality has endea¬ voured to assign the honour of inventing it to any person whatever. We agree with Professor Moll, that Zacharias Zansz, or Jansen, has the best claims to be considered as the inventor and constructor of the compound microscope. He seems to have made one so early as 1590, and to have pre¬ sented one to the Archduke Albert of Austria, who gave it to Cornelius Drebell, who lived, as mathematician to the king, at the court of our James the First. William Boreel, the envoy to England from the States of Holland, saw in England, in 1619, and in the hands of Cornelius Drebell, the very microscope which Tansz had given to the archduke. This account of its history was given by Drebell himself. The microscope in question was eighteen inches long, con¬ sisting of a tube of gilt copper two inches in diameter, sup¬ ported by two sculptured dolphins, resting on a base o. ebony, upon which the objects were placed. M. Fontana, Font a Neapolitan, first described the compound microscope, con¬ sisting of two convex lenses, in his work entitled lYoi’tf ier- restrium et Celestium Observationes, which appeared in 1Mb, but claims to have made the discovery so early as lb 18, though he does not adduce any evidence whatever ot this fact. Huygens, on the contrary, says, “ It does not appear that these microscopes were made in the year 1618, because Sirturus, who published a book that year about the ongme and construction of telescopes, would hardly have been silent upon so remarkable an invention, if it had been thus known. Fontana, indeed, lays claim to it from the year 1618, m his x uuLd _ , J flic tochmnnv all his changes. In the new I earthshine a little before the dichotomic ; that spot which represents unto me the man in the moone (but without a head) is first to be scene. A little after, neare the brimme of the gibbous parts, towards the upper corner, appeare lu¬ minous parts like starres, much brighter than the rest ; and the whole brimme along lookes like unto the description ol coasts in the Dutch bookes of voyages. In the full she ap¬ pears like a tarte that my cooke made me the last weeke. Here a vaine of bright stuffe, and there of darke, and so confusedlie al over. I must confesse I can see none of this without my cylinder; yet an ingenious younge man that accompanies me here often, and loves you and these studies much, sees manie of these things, even without the helpe ot the instrument, but with it sees them most plainlie, I mean ve observed the moone in ronuuici, iuucw , j j m i Kni the testimony discover manifestlie the book «f ■» >“ ) of Lyrsalis, there printed, goes no higher than the year 1625. But that my countryman Drebehus made theseco - pound microscopes at London in the year 1621,1 have often been informed by several eye-witnesses^ and that he was then reckoned the first inventor of them.” This testimony of Huygens in favour of Drebell, is m direct contradiction to the statement said by Borelh to ha been made to the Dutch envoy in 1619- In consequence of this confl.ctmg evidence, be regarded as having the best claim to the invenUon | the compound microscope. Viviaui drstmctly m onus the compounu nueiuseupc. J . f.i.p his Life of Galileo, that he was led to the invenUo then: scopt Astvono microscope by thi of the telescope, and that in .heW the instrument, out w.m u sees mem ...os. ^ King'ofPoW. “ HavfngT*" dissatisfied with the , ^l^^at^efirstD^^es^ the first Dutch telescopes nact peiio.mo..ee ..... ---> ,..imnrnvement; andin micaDeles- their eye-gWconcave, like Galileo’s, though this supposi- himse t ^igt&si,! slys that he had delayed ’ ' ional story of a large and in- a letter to r. rreuengu v,c , hedeScribes, cope in- tion is opposed by the traditional story ^ vented by verted image of a weathercock having been seen through Kepler, tpe earliest of them, in which case the eye-glass must have A.D. 1611. been convex. Even so late as the period when Descartes UCC1I v L ~ ^ 1 1 published his Dioptrics, which was in 1637, no other teles¬ cope but a Galilean one had been described, excepting in a letter to r. rreuengo ^esi, i.c ,VV: , i^bes, to send him the microscope, the use of which ^ the as he had only then brought it to perfection, owi ^ difficulty he experienced in making the glasses. Magic of Nature, Schottus mentions a su^. opes. which took place with one of the newly invented microscop 1 Rigaud’s Supplement to Bradley's Miscellaneous Works, p. 20, 21. * Camden, Epistoke, p. 129, quoted by Professor Rigaud. S Life of Galileo, Libr. Usef. Knowledge, p. 25. 3 Before February. * Rosa Ursina. 1650. OPTICS. ory. A Bavarian philosopher, when travelling in the Tyrol, was taken ill on the road and died. The village authorities found a little glass instrument in his pocket, which happened to contain a flea fixed in the focus of the microscope. Upon looking into the eye-glass, they were struck with terror at the sight of the gigantic animal, and the remains of the poor philosopher, who was then proved to be a sorcerer, were pronounced unworthy of Christian burial. Some bold scep¬ tic, however, explored the mystery, and produced the giant which had alarmed them.1 p veries The name of Kepler, though associated principally with of ;pler. astronomical discovery, will ever be venerated by the culti- B< 1571, vators of optical science. His researches, which relate prin- di( 630. cjpa,lly to vision and refraction, are contained in his Para- lipomena ad Vitellionem, published at Frankfort in 1604, and in his Dioptrica, already referred to. His discoveries respecting vision, though founded to a certain degree on the views of Maurolycus and Baptista, are nevertheless to a great extent original. He was the first person who actually shewed that distinct and inverted images of external objects are formed upon the retina, as in the camera obscura, by the foci of pencils emanating from every point of the object. He explained all the phenomena of distinct and indistinct vision, and shewed how that indistinctness could be removed by the use of convex and concave glasses. Although D’Al¬ embert2 has asserted that all optical writers before him had assumed it as an axiom that every visual point is seen in the direction of its visual ray, yet, as Dr. Wells has observed, this assertion is not well founded, for Kepler had long ago maintained that objects are perceived not along the visual rays, but along lines which pass from their pictures on the retina through the centre of the eye; an opinion in which he has been followed by Dechales and Dr. Porterfield, to the last of whom Dr. Reid has by mistake ascribed the discovery of this law. Hence Kepler was led at once to the true theory of erect objects being seen from inverted images, which he considered as the business of the mind, which, when it judges of an impression made on the lower part of an inverted image on the retina, considers it as made by rays proceeding from the higher parts of an erect object, a necessary consequence of his opinion that objects are per¬ ceived in lines passing through the centre of the retina. Kepler has wisely declared his ignorance of the manner in whmh the mind perceives images on the retina, and he blames V itellio for attempting the solution of a question which does not belong to optics. In order to explain the adaptation of the eye to different distances, Kepler supposed that the ciliary processes draw the sides of the eye towards the crystalline lens, by which change the globe of the eye is e ongated, and the retina placed at a greater distance om the crystalline, so as to accommodate the eve to the distinct vision of near objects. The refraction of light in its passage through different media, is treated at great length, but very unsatisfactorily, } ep er. Although he failed in his attempts to discover me law of refraction, yet he arrived at certain rules of re- rac ion or glass, which enabled him to discover many of fnC Principles °f convex and concave lenses. He OT example> thaf below 30° of incidence, the angle twf nno" 7as nearly two-thirds of the angle of incidence; S at °f incidence the angle of refraction was 42°; and . infracted ray fell at a greater obliquity than 42°, Ji, , intenor surface of glass, it would be totally reflect- cidpnC !nt<) ^le glass at an angle equal to that of in- nlann nn He i en shews’ by applying these principles, that from °f SlaSS have their foci at a distance thpir r. enS ecl).ia t0 tb0 diameter of the sphere of which onvex surface is a portion, and that equi-convex lenses 357 have their focal length equal to the radius of the sphere of History, which their convexities are a portion. When the lens has its surface unequally convex, he makes the focal length equal to a mean of the radii of the two spheres. The same pro¬ pel ties being proved in reference to concave lenses, Kepler proceeds to find the focus of refracted rays, when they ra¬ diate from points at different distances from the lens. He proved also that rays issuing from the focus of a lens will emerge on the other side ot it parallel; that if they issue from a point between the focus of the lens, they will diverge after refraction, while those which issue from a point be¬ yond the focus will converge; and, finally, that when the distance of the radiant point is equal to twice the focal length of the lens, the distance of the image will be equal to the distance of the object. In treating of the refraction of the atmosphere, Kepler remarked that the quantity of refraction would alter if the atmosphere varied in weight, and that it would be different at different temperatures. In one of his letters to Bregger, dated in 1605, on the colours of the rainbow, he makes the following observation :—“ The sun’s rays are not coloured except with a definite quantity of refraction. Whether you are in the optical chamber, or standing opposite glass globes, or walking in the morning dew, every where it is obvious that a certain and definite angle is observed, under which, when seen in dew, in glass, in water, the sun’s splendour appears coloured, and under no other angle. There is no colouring by mere reflexion, without the refraction of a clearer medium.”3 Although Tycho and Kepler made many ineffectual at- Snellius tempts to discover the law of refraction, yet the honour of discovers that great discovery was reserved for Willebrord Snellius, the law of Professor of Mathematics at Leyden, who died at the age refractior,> of thirty-five, leaving behind him a manuscript work on the A I)-1621 subject. The doctrine of refraction having become more important after the invention of the telescope, Snellius de¬ voted himself to its investigation, and “ after many trouble¬ some experiments and attempts,” succeeded in his research. Supposing AB to be the refract¬ ing surface of water, an object under the water at D appeared as if it were raised and seen in the line RC. He then pro¬ duced RC till it intersected at E a line DK drawn parallel to the perpendicular MN, and he asserted that at every angle at which the object D was viewed, it would appear at E, and that CD was to CE in a given ratio, such as 4 to 3, when the re¬ fracting body was water. Now this is a true geometrical ex¬ pression of the law of refraction, though the same truth may be better enunciated in other two ways. If we continue the lines CE CD, till they meet Ad, a line perpendicular to AD, in the points/and d, then on account of the parallels Ad, KD ; CD is to CE as Cd is Q/"> but ACd is the complement of the angle of re¬ fraction, and AC/ the complement of the angle of inci¬ dence, and Ad, A/’are their secants. Hence it follows from Snellius result, that the cosecants of the angles of incidence and refraction are in a constant ratio, which is a correct mathematical expression of the law of refraction. Again, in the triangle CDE, the sides CD CE are to one another as the Sines of the opposite angles, that is, as the Sines of the angles DEC or KEC, or ECN or RCM, and of CDE orDCN; that is the sines of the angles of incidence and refraction are. 1 'rLihr- Usef. Knowledge, p. 27. tfe of Kepler, Libr. Usef. Knowledge, p. 17. 2 Opuscules Mathematiques, tom. i. p. 265. 358 OPTICS. History, in a constant ratio, which is the usual and most distinct ex- s-^-wpression of the law of refraction. In giving this law ot bnel- lius’ Huygens has in our opinion forgotten hisusual courtesy, when he states that WillebrordSnellius did not “ thoroughly comprehend his own invention,” and “ never imagines that the ratio was the ratio of the Sines.” Now we cannot con¬ ceive it possible that a man like Snellius, who was a good geometer, was ignorant of the two simple trigonometrica expressions of his geometrical law; and we do not doubt that he preferred his own for two distinct reasons. In the first place, it connects itself with the leading physical phe¬ nomena of the apparent rise of the refi'acted object nom to E, and by substituting CF for CD it furnishes us with a much more simple and accurate method of obtaining by projection the refracted ray from the incident one. RF for example, is the incident ray, we have only to divide CF into two parts, CE, EF, so that CF is to CE in the constant ratio belonging to the refracting body. But whether we are right in this conjecture or not, it is an unquestionable truth that Snellius discovered the true law of refraction, though he did not express it in trigono¬ metrical language. . , o Descartes. In the year 1637, about eleven years after the death ot Born 1596, Snellius, Descartes published his Dioptrics, in which, wit i- died 1650. 0ut ever mentioning the name, or alluding to the labours of Snellius, he announces the true law of refraction express¬ ed in term of the Sines, as the result of his own enquiries. As Snellius’s work existed only in manuscript, it was quite possible that Descartes knew nothing of its contents, but Vossius, in his work De Natura Lucis, states, that the heirs of Hortensius had communicated freely to Descartes the manuscripts of that professor, among which was that ot Snellius’s work, and Huygens confirms this allegation when he states in his Dioptrics that he had himself seen the whole manuscript volume of Snellius, and had heard that Descartes had also seen it,1 and that it was perhaps from hence that he deduced (elicuerit) that measure which con¬ sists in the Sines. We should not have entered so minutely into this subject, had not M. Biot* thrown into entire obli¬ vion the labours of Snellius, and ascribed to Descartes the undoubted discovery of what he calls “ this great property of light.” The same eminent philosopher likewise ascribes to Descartes the discovery that the incident and refracted rays are always in the same plane, a truth which was well known to Ptolemy, and which is clearly included in Snel¬ lius’s expression of the law of refraction. In opposition to the opinion of M. Biot, we must place those ot Huygens, Montucla, Bossut, Priestley, David Gregory, Smith, Hutton, Robison, Young, and Playfair ; and we shall dismiss the subject after giving the admirable reasons which induced Professor Playfair to decide against Descartes. “ I here is no doubt, therefore,” says he,3 “ that the discovery was first made by Snellius ; but whether Descartes derived it from him, or was himself the second discoverer, remains^ unde¬ cided. The question is one of those, where a man’s con¬ duct in a particular situation can only be rightly interpreted from his general character and behaviour. “ If Descartes had been uniformly fair and candid in his intercourse with others, one would have rejected with dis- connected with his own ; and, in treating of the rainbow, History he has made no mention of Antonio de Dominis. It is im-'^V'i possible that this should not produce a favourable impres¬ sion ; and hence it is that the warmest admirers of Des¬ cartes do not pretend that his conduct towards Snellius can be completely justified. . “ Descartes would have conceived his philosophy to be disgraced if it had borrowed any general principle from ex¬ perience, and he therefore derived, or affected to ^derive the law of refraction from reasoning or from theory.” Even if Descartes had liberally taken from his optical wreath the law of the Sines, and generously placed the hal¬ lowed branch on the brow of the accomplished Snellius, he would have added to his reputation as a man, without shortening his immortality as a philosopher. His Dioptrics consists of ten chapters. The first treats of light, the se¬ cond of refraction, the third of the eye, the fourth on lenses in general, the fifth on the images formed on the bottom of the eye, the sixth on vision, the seventh on the mode of perfecting vision, the eighth on the figures which transparent bodies require to turn the rajs by refraction, suited to all modes of vision, the ninth on microscopes, and the tenth on the mode of polishing glasses. The inability of spherical surfaces to converge rays to one point or focus, had been long known to opticians, and Kepler, though he conjectured that surfaces generated by the revolutions of the conic sections, might have such a property, left the subject just as he found it. Descartes, however, has discussed it in a most ingenious manner, in the eighth chapter of his Dioptrics. He has shewn how parallel, and converging, and diverging rays may be brought to accurate foci by means of ellipsoidal and hyperboloidal surfaces, so that if such surfaces, could be executed by opticians, all op¬ tical instruments would receive the highest degree of per¬ fection which they could attain from the removal of sphe¬ rical aberration. In order to carry this system into effect, he contrived machines for grinding elliptical and hyper¬ bolical lenses, and in the tenth chapter of his Dioptrics he has given perspective drawings and descriptions ot them. In the years 1627 and 1628, when he was residing at Fans, M. Mydorgius, with whom he lived on the most intimate habits, urged him to undertake the grinding of hyperbolical and elliptical lenses, and he soon became a great master ot the art of glass grinding. He found it necessary, how¬ ever, to associate with himself in this undertaking an emin¬ ent artist, M. Ferrier, who, as an optical instrument maker, was well acquainted both with the theory and the practice of his art. After many failures, a tolerably good hyper¬ bolic convex lens was completed ; but the concaves were found to be more difficult; and in consequence of M. terrier refusing to accompany Descartes to Franeker, and having occasioned him much needless expence in the erection ot his laboratory, a quarrel took place, and the grea P™ , object which they had in view was for a while abandon - Descartes, however, was sanguine in his expectations, ana not aware that there was another aberration more difficult to overcome than that of spherical figure, he expected be able to make the greatest discoveries in the heavens DY means of his new lenses. With the assistance of M. means ot Ins new lenses, w m. gens, the father of the celebrated philosopher, he mduce ® t'v , i tUo aH-omnts nf Ferrier, uUl dain a suspicion of the kind just mentioned But the truth gens «- h attempts' of Ferrier is, that he appears throughout a jealous and imperious man, some Dutch artists o ^struct suchlenses always inched to depress and conceal the merit of others ™dJ‘X„rw "cannot idlow ourselves to think that In sneaking of the invention of the telescope, he has told have faded, tnougn we cannot a minutely“fl that l due to accident, hut has passed care- the attempt is a hopeless one. . . fully over all that proceeded from design, and has incurred the reproach of relating the origin of that instrument with¬ out mentioning the name of Galileo. In the same manner, he omits to speak of the discoveries of Kepler, so nearly e attempt is a nopeiess one. Descartes made some interesting fibservations pon ^ sion, particularly on the method by which we jud^e o distances and magnitude of objects ; but hl* rain- covery in physical optics relates to the theory i Bossut is incorrect in saying that Huygens assures us that Descartes saw the manuscript volume of Hortensius. Cartesium quoque vidisse accepimus." (Dtqptri'ca, p. 3.) 3 p 0ress0r Playfair’s Dissertation in this Work, vol. ii. P- S Trade de Physique, tom. m. p. 204, ‘205. rro.ess 3 OPTICS. try. Chri »- bow. He discovered the true cause of the exterior rain¬ bow, and in his Traite des Meteores, proves that it was pro¬ duced by two refractions, and two intermediate reflections within the drop, thus explaining most satisfactorily the faintness of its illumination, and the inversion of its colours. He has clearly shewn also, why the interior bow is 42° in diameter, while the exterior one is 52° ; though he did not understand the true origin of the colours. We repret to add, that Descartes gives his explanations of both The in¬ terior and exterior bows without ever mentioning the name of Antonio de Dominis, who was the real discoverer of the cause of the rainbow'; and our regret is increased, when we are compelled to add, that M. Biot has, contrary to the opinion of all philosophers, given his aid to Descartes in de¬ priving the Italian philosopher of the only discovery which has immortalised his name.1 The science ^of optics is under considerable obligations pherAei-to Christopher Scheiner, a Jesuit, and professor of mathe- ner. dornmatics at Ingolstadt. He completed the theory of vision hi, ued in so far as ]ie proved by direct experiment that the pictures J of external objects were distinctly delineated on the retina. By paring away the coats from the back of the eyes of sheep and oxen, and also the human eye, he made the in¬ verted pictures distinctly visible, and exhibited the experi¬ ment publicly at Rome in 1625. In his work entitled Oculus, published in 1652, he speaks of the great resemblance of the eye to the camera obscura, and gives various contrivances for erecting the images. He adopts the theory of Kepler respecting the visible direction of objects, and he observed the interesting fact that the pupil of the eye is dilated in viewing distant, and contracted in viewing near objects. In measuring the refractive powers of the humours of the eye, he makes that of the aqueous humour differ little from that of water, and that of the crystalline humour differ little from that of glass, ascribing to the vitreous humour an intermediate re¬ fractive power. By tracing the progress of the visual rays through all the humours of the eye, he demonstrates that the retina, and not the crystalline lens, is the seat of vision; and he describes some interesting experiments respecting vision through one or more small apertures. We owe also to bchemer the interesting experiment of exhibiting on the wall of a darkened room the disc of the sun with all its spots by means of a telescope. When Kircher afterwards de¬ scribes this appearance he represents the spectator as “ fix¬ ed with the utmost astonishment.” e- A new and very interesting branch of optics had begun o excite the attention of philosophers, namely that of the double refraction of light. Erasmus Bartholinus, a physici- . an at Copenhagen, and the author of several excellent works on geometry, received from some Danish merchants that frequented Iceland, “ a crystal stone like a rhombic prism, winch, when broken into small pieces, kept the same figure.” With this substance, which was called Iseland spar, from i s ocahty, Bartholinus made a number of experiments both ciemica and optical, and he has published an account of ,e. ®Ptlcal resillts which he obtained in a small volume wuch appeared at Copenhagen in 1669, under the title of umsm Bartholmi Experimenta Crystalli Islandici, Dis- • a^lci quibus mira et insohta Ref radio detcqitur, and s dedicated to Frederick III. king of Denmark. In seven- en experiments and tivelve propositions this able and sa- mar°Uf Iv,1 0S0P^er has presented us with an excellent sum- Y ot the more prominent phenomena of double refraction. rpr S leTn that IceHnd spar has the property of double thr,.,,'i°n’ 1 1SJ °P giving two images of all objects seen thnso^ e ^ ^Iietller its faces are parallel or inclined, like 0 a prism; that the incident light is equally divided 359 Doubl tractio light c vered Bartht us, A, 1669. between these two pencils ; that one of these refractions is History, performed according to the law of Snellius, the ratio of the^-^v-^*^ omes being as 1 to T667, but that the other is performed according to an extraordinary law which had not previously been observed by philosophers. He observed also a posi¬ tion in which the object appears six-fold, but he did not dis¬ cover that this took place only in some specimens which were composite or irregular crystals. These discoveries of Bartholinus having been communi-Disc0veries cated to the Royal Society of London, and printed in No. of Huy- 67 of their Transadions, they attracted the notice of gens. Born Christian Huygens, a celebrated Dutch philosopher of the ‘^9, died finest genius and the highest attainments. Havin«- mven a l695- new theory of refraction, he wanted to repeat Bartholinus’s experiments principally with the view of ascertaining if they opposed any difficulties to that theory. His work on this subject, entitled .De Vestrange Refraction du Cristal rfls- lande, which forms the 5th chapter of his Traite de la Lu- miere, was written in 1678, and was read to Cassini, Roemer, and De la Hire, and to several other members of the Royal Academy of Sciences, which he had been invited to join by the liberality of the French king ; but it was not pub¬ lished till 1690, when he was resident at the Hague. After giving Bartholinus the credit of having discovered some of the principal phenomena of double refraction, he describes the general properties of Iceland spar in forming two images of objects, and he shews that all the phenomena are related to the axis, or that diagonal of the rhomb, in the direction of which the crystal has no double refraction. He proves that the double refraction, or separation of the two images, gradually increases as the inclination of the refracted ray to the axis increases, and becomes a maximum in a plane at right angles to the axis. In the few preceding chapters of his Trade de la Lumiere he had explained all the pheno¬ mena of reflexion and refraction upon a new theory, in which he supposes light to be produced in the same manner as sound, by means of undulations propagated in an elastic ethereal medium, an hypothesis revived by Euler and extended by Di. 1 oung, and now almost universally embraced under the name of the undulatory theory. In applying the same the¬ ory to explain the phenomena of double refraction, he sup¬ poses the ray produced by the ordinary reifaction of the medium to be produced by undulations propagated through the crystal, while the ray formed by the extraor¬ dinary refraction is produced by undulations, the ratio of the two refractions, determining the form of the generating ellipse. Huygens then proceeds to shew that this theory affords, by calculation, results agreeing very exactly with those which he had obtained by direct experiment. This discovery is perhaps the most splendid which has oc¬ curred in the history of optical science. When Huygens had finished his researches on double n- refiaction, he discovered what he calls a “wonderful phe- 1^oveiT nomenon, 2 and, though he acknowledges that we cannot arisation of find the cause of it, yet he thinks it proper to indicate the light, phenomenon that others may inquire into it. This discovery is that of the polarisation of the light, which forms the two pencils of Iceland spar, and he confesses that he must add to his theory other suppositions in order to explain it, though he thinks that a theory confirmed by so many proofs will still preserve its plausibility (vraisemblance). Huygens had natuially supposed that the light which composed the two pencils was like all other light, but upon transmitting the two rays formed by one rhomb of calcareous spar through another rhomb, he was astonished to perceive that when the two rhombs were similarly placed as if they had formed one larger one, neither of the rays suffered double refraction in “ same e^pltadlirD^anes ^the WJ°le °f exPlanation of rainbow to De Dominis. He says, 2 “ Une nhprtnmiinn ,, hath Pursued in his Meteors, and mended that of the exterior bow." * P merveilleux, que j’ay decouvert apres avoir ecrit tout ce que dessus.” ( Traite de la Lumiere, p. 88.) 360 OPTICS. History, passing through the second rhomb the ordinary ray from the first being only ordinarily refracted by the second rhomb, and the extraordinary ray only extraordinarily refracted. I he same thing took place when one of the rhombs, the seco ' for example, was turned round 90°, with this difference, t the ordinaryray of the first rhomb suffered only extraordinary refraction, and the extraordinary ray only ordinary refraction from the second rhomb. But in all other positions of the second rhomb, excepting these tw-o rectangular wes, the ordinary and extraordinary rays of the first rhomb w^e ea divided' into two by the second rhomb, so that there were now four rays sometimes of equal but generally of unecl brightness, and such that the light of all the ^ nev^ eX- ceeded that of the single ray incident on the rhomb. Huygens discovered also the double refraction of quartz, or rock crystal, but he committed a great mistake msuppos- ing that its double refraction was regulated by an entirHy different law, the light being in te case pr°PJaJ*?tk™’%* it in two spherical waves, one of wh,eh was a than the other} This result he mentions in '' s Pe, ^ having been obtained after he had read his work to ms co le^ues in the Academy of Sciences. It is, however, found¬ ed on an incorrect observation, as the extraordinary refrac¬ tion of rock crystal is produced by spheroidal undulations like that of Iceland spar, with this difference only, as after¬ wards discoveredby M. Biot, that the ^eroid ^ prolateone^ Even if Huygens had not immortalised his name by these rreat discoveries, his treatises on dioptrics and on halos, and his construction of refracting telescopes of immense size, would have given him the highest reputation. H treatise on dioptrics, which was not published till 1703, among his posthumous works, and which he had begun to prepare at an early period of his life, was particularly ad¬ mired by Sir Isaac Newton. It contains a copious explan¬ ation of the properties of lenses of all forms; and their sp e i- cal aberration is treated with much perspicuity, having pr - ously, in the 6th chapter of his Traite de la Lumiere, pub¬ lished an interesting discussion respecting the fij^es °f transparent bodies for refracting and reflecting light to a single focus. The subject of vision, and the method of as¬ sisting long and short-sighted persons by lenses, is ably dis¬ cussed, and nearly the latter half of the work is devoted to the theory of telescopes, telescopic eye-pieces and micro- ^ Many of these theoretical views Huygens submitted to the test of experiment. Having acquired great expertness m the art of grinding lenses, he executed refracting telescopes 12 and 24 feet in focal length, and afterwards °^e ° and another of 123 feet, with which he discovered Saturn s ring, and the fourth ofhis satellites. These two last object- glasses he presented to the Royal Society ; but as it was impracticable to use tubes of such enormous length, Huy¬ gens contrived a method of mounting them without tubes fit the top of a long pole. The practical knowledge which he had thus acquired, was published along with his Diop¬ trics in a work entitled, Commentarn de formandis pohen- disque vitris ad Telescopia, a considerable part of which was published by Dr. Smith in his optics. Among his posthumous works appeared his Dissertatio de C°™ul° et Parheliis, a work of great merit, m which he ascribes the e phenomena generally to crystals of ice m the upper atmos¬ phere, and a translation of the whole of which Dr. Smith has published in the first volume of his optics. T.imes Among the eminent men who gave an impulse to optical Gregory, discovery, we must assign a considerable place to our coun- Born 1638. tryman James Gregory. This eminent mathematician m Died 1675. c0”nfirrning the experiments of Vitello and Kircher on tue ancles of refraction, discovered the true law which hadpre- Histo- viously been found by Snellius. He made the refractive^ power of water 1*3347, which coincides with that of the middle ray between the lines D and E of Fraunhofer. Having discovered before the publication of his work that Descartes’ dioptrics contained the law of refraction, he men¬ tions the circumstance, and ascribes his being unacquainted with that work to the “ want of new mathematical books,” in the library of the college of Aberdeen. Although Bap- tista Porta appears from the extract which we have already given from his Natural Magic, to have made the nearest possible approach to the invention of the Newtonian reflect- ing telescope, or rather microscope, yet his experiment ex-™I cited no notice, and no instrument could be said to have been flectin, invented. James Gregory, however, has described what is teiescc .| now known by the name of the Gregorian Reflecting Tele-Grego: scope, at the end ofhis Optica Pranata, published in 1663. telescos It consisted of a parabolic concave mirror perforated at the centre, and having in front of it a small concave elliptic speculum, at a distance a little greater than the sum of their focal lengths. The parallel rays emitted by a remote obiect formed an image of that object in front of the great mirror, and in its focus; and in the conjugate focus of the small speculum, behind the great speculum, there was formed another image of the object, which was magnified by an eye glass. In 1664, Messrs Rives and Co. English opticians, attempted to construct a six foot Gregorian te e- scope, under the superintendence of its inventor, but, alter a rough trial of it, Mr. Gregory, not aware of the nice ad¬ justments which it required, conceived that the figure of the speculum was defective, and, being on the eve of going abroad, he never even made a tube for the mirrors. Stimulated abroad, he never even made a ruue iut me by the failure ofhis friend, Newton, “altered, ” as he says, “the design of the instrument,” and “placed the eye glass at the end of the tube rather than at the middle ; and, there¬ fore, he was obliged to reflect the rays to a side by an oval plane speculum. Sir Isaac act^ly constructed one of instruments with his own hands, and described it in a letter “"nl dated the 23d February 1668-9. The ture of the speculum was one inch, its focal length tele, inches the eye glass, which was a plano-convex lens, about » ths of an inch in focal length, and the magnifying power 39 times. He considered it as equal to a three or lour fee and it shewed distinctly the four satellites of Jupiter, and the phases of Venus.* Encouraged by to success, he completed another telescope in 1671, which™ better than the first, and which is preserved in the hbmy of the Royal Society. The next Newtonian reflecting tele¬ scope of any importance, was executed by Mr. John Ha lev m 1719 or 1720, with a speculum six inches in duinie , Sd five feet in focll length1; but for a long time the Gte- gorian form was the most popular in Englai . gmaji M. Cassegrain substituted a convex specu um , , concave one of Gregory, which had the advantage ofshorten^ ing the tube of the telescope without diminishing thep 0t Other^Timants have arisen for the honour °f inventing the reflecting telescope. Father Mersennc m a 1 « Descartes in 1637, suggested the idea of using co^ mirrors in reflecting telescopes ; but Descarte en to convince him that his views were not likely , , At a later period Fontenelle, in dte »/ of Sciences, for 1700, has very recklessly asenbed^h^ tion of this instrument to Father Zucchi, a , fQpti- who published, at Lyons in 1652, a volu^e’^ethought of ca Philosophical In this work he says, that , h ^ substituting concave specula for object glasses,^^ w e 9.0 a <■ Cette double refraction .eml.loi. dem.nder u"7 double enuui.tion d’ondes de lumtere, toutes fl- (c: S^rL^'-wont^P e, u™ seulement u„ peu ^ lent, q„e tea -res. ^ * Brewster’s Life of Sir Isaac Neivton, p. 26, -7 OPTICS. Grill: Ji disci ji's the ''x- ight Bon #19. Pied 63 Dr. I Born Died found a concave metallic mirror in a cabinet of curiosities, he applied to it a concave eye glass, and observed with it celestial and terrestrial objects. As no small speculum was used in this combination, it was neither a Newtonian, Gre¬ gorian, nor Cassegrainian telescope ; and if Zucchi conceiv¬ ed himself the inventor of a reflecting telescope, why did he conceal it till 1652, and why did he not get a real spe¬ culum made to give his idea a fair trial. Among the discoveries of the 17th century, that of the inflexion of light ranks among the most important. This addition to physical optics was made by Francis Maria Grimal¬ di, an Italian Jesuit, who published an account of it in a work entitled, Physico-mathesis de Lumine, Coloribm et Iride, aliisque annexis, which was published at Bologna in 1665, two years after his death. Introducing a ray of the sun’s light into a dark room, and through a very small aperture, he remarked, that it formed a cone of light in which all bodies had their shadows larger than if the rays passed in straight lines by their edges. Round these shadows he noticed three coloured fringes becoming narrower as they were farther from the body, and in strong light he observed similar coloured fringes, varying from two to four, accord¬ ing to the distance of the shadow from the body. Hence our author concluded that light is bent from its rectilineal path in passing by the edges of bodies. When he admitted the light through two small apertures, so near each other that the one luminous cone did not penetrate the other till at a considerable distance from the apertures, he observed that the rays so interfered with one another, as to render the spot illuminated by their united light more obscure than ivhen it was illuminated by either of them singly. This extraordinary result is announced in the following proposition: “ That a body actually illumi¬ nated, may become more obscure by adding a new light to that, which it already receives,” and may be regarded as the first discovery of the interference of light. ■ Dr. Robert Hooke, one of the most ingenious and able ■men of the century which he adorned, not knownng of the 'discovery of Grimaldi, communicated to the Royal Society in 1672, an account of “ the discovery of a new property ot light not mentioned by any optical writers before him.” In a subsequent communication in 1675, he draws the fol¬ lowing conclusions from his experiments:—1. There is a deflection of light, differing both from reflexion and refrac¬ tion, and seeming to depend on the unequal density of the constituent parts of the ray, whereby the light is dispersed from the place of condensation, and rarified, or gradually diverged into a quadrant. 2. This deflection is made to¬ wards the superficies of the opaque body perpendicularly. 3. Those parts of the diverged radiations, which are deflect¬ ed by the greatest angle from the straight or direct radia¬ tion, are the faintest, and those that are deflected by the least angles are the strongest. 4. Rays cutting each other in one common foramen, do not make the angles at the vertex equal. 5. Colours may be made without refraction. he diameter of the sun cannot be taken with common sights. 7. The same rays of light, falling upon the same point of an object, will turn into all sorts of colours by the various inclination of the object. 8. Colours begin to ap¬ pear when two pulses of light are blended so well, and so --together, that the sense takes them for one.” eowe, also, to Dr. Hooke the first accurate experiments a were made on the subject of thin plates, which, we be- ieve, adbeenfirstobserved by Mr. Boyle.1 He investigated 6 Kuiu’ P^enomena as exhibited in the colours of the ap bubble, and between tw o plates of glass pressed to- p ' .. e discovered that the colours depended upon certain thicknesses of the thin plates, but he failed in de¬ mining the relation between given thicknesses and given SGI colours. He succeeded in splitting mica into plates of ex- Histor treme tenuity, as to give the most brilliant colours, one'Srf giving a yellow, another a blue, and the two together a deep purple. In his Micrographia, printed about seven years before any of Newton’s experiments were made on the same subject, Dr. Hooke has published the following remarkable explanation of these phenomena, which coin¬ cides in a singular manner, with that which is now uni¬ versally received: “ It is most evident, says he, that the reflection from the under or further side of the body, is the principal cause of the production of these colours. ‘Let the ray fall obliquely on the thin plate, part thereofis reflected back by the first superficies,—part refracted to the second surface, whence it is reflected and refracted again. So that, after two refractions and one reflection, there is pro¬ pagated a kind of fainter ray, and by reason of the time spent in passing and repassing, this fainter pulse comes be¬ hind the former reflected pulse; so that hereby, (the surfaces being so near together that the eye cannot discri¬ minate them from one) this confused or duplicated pulse, whose strongest part precedes, and whose weakest follows, does produce on the retina the sensation of a yellow. If these surfaces are further removed asunder, the weaker pulse may become coincident with the reflection of the second, or next following pulse, from the first surface, and lagg behind that also, and be coincident with the third, fourth, fifth, sixth, seventh, or eighth ; so that, if there be a thin transparent body, that from the greatest thinness requisite to produce colours, does by degrees grow to the greatest thickness,—the colours shall be so often repeated, as the weaker pulse does lose paces w ith its primary or first pulse, and is coincident with a subsequent pulse. And this, as it is coincident, or follows from the first hypothesis I took of colours, so upon experiment have I found it in multi¬ tudes of instances that seem to prove it.” Galileo, and the philosophers of the Accademia del Cimento, had proposed to measure the velocity of light by means of a base on the surface of the globe ; but such an attempt w as utterly hopeless, and it was only in a wdder range that this problem could be solved. Baffled in finding an explana¬ tion of some irregularity in the emersion of the first satel¬ lite of Jupiter, Cassini and Roemer had concluded that it R0emrr. depended on the distance of Jupiter from the earth, and Bom 1644. that in order to explain it it was necessary to suppose, that the Died 1710 light of the satellite required ten or eleven minutes to move across the earth’s orbit. This happy idea seems to have first occurred to Cassini, but he speedily abandoned it, while ■ Roemer pertinaciously cherished the hypothesis, and at last immortalised himself by demonstrating in the most rigor¬ ous manner that light moves through the diameter of the earth’s orbit, a distance of 190 millions of miles, in eleven minutes. Passing over the valuable researches of Tschirnhausen, a Saxon nobleman, on caustic curves, which had been pre¬ viously discovered, and the discoveries of Mariotte and de la Hire, respecting the seat of vision, which have not termi¬ nated in any satisfactory conclusions, we are brought to one of the most brilliant periods of optical discovery. In the year 1665, Sir Isaac Newton, when only 23 years Discoveries of age, bought three prisms, but he does not seem to have of Newton, made any particular experiments with them. In 1666,Born T4-- however, he bought another, with which he proposed to re-^e<* peat Grimaldi’s experiment, on the elongation of the sun’s image produced by the prism. In the course of this and the tw o or three subsequent years, he made and perfected his great discovery of the different refrangibility of light, which he communicated to the Royal Society on the 6th of February 1672, having, on the 18th of January, announc¬ ed it as “ the oddest if not the most considerable detection VOL. xvi. Experiments and Observations upon Colours, 1GG3. 2 z 3G2 History, which hath hitherto been made in the operations of nature.” —Having found that refraction could not be produced with¬ out colour, he was led to direct his attention to the perfec¬ tion of the reflecting telescope, and produced the instru¬ ments which we have already mentioned. Another result of this discovery was the completion ot the theory of the rainbow, the origin of the colours of which had hitherto perplexed philosophers. The next optical discovery made by Sir Isaac Newton, related to the colours of thin plates, or of thin transparent bodies, such as the soap bubble. We have already seen that Dr. Hooke had made some progress, both in observing the phenomena and in investigating the cause of such colours , but it is to Newton that we owre an elaborate analysis of the subject. In a letter from Sir Isaac to Dr. Hooke, dated 5th February 1676, he acknowledges that the latter had pre¬ viously observed “ the dilatation of the coloured rays by the obliquation of the eye, and the opposition of a black spot at the contact of two convex glasses, and at the top of a water bubble,” (soap bubble). In the course of his experiments on thin plates, Newton was led to the discovery of the colouns of thick plates, and he devised a theory for explaining both classes of phenomena, known by the name of the theory of fits of easy reflexion and transmission. This theory, re¬ markable for its ingenuity, is now no longer an expression of the phenomena, and has given way to the theory ot un¬ dulations, which Hooke had the sagacity to anticipate as affording the true cause of the colours of thin plates. Early in 1676, Newton communicated to the Royal So¬ ciety his Theory of the Colours of Natural Bodies, in which he ascribes all the varieties of colour exhibited in nature to the circumstance “that the transparent parts of bodies, ac¬ cording to their several sizes, reflect rays of one colour and transmit those of another, on the same grounds that thin plates or bubbles do reflect or transmit those rays. I his theory, perhaps the finest of all Newton s optical specula¬ tions,’has met with much opposition. It was controvert¬ ed by Mr. Delaval, Sir John Herschel, and others, m its leading propositions: but some recent discoveries affoid us reason°for believing that the principal objections to it are groundless, and that with some modifications it may yet be placed among the finest generalizations in science. Sir Isaac Newton’s experiments on the inflexion ot light were never finished by their author. His observations were limited, and his theory incorrect; and indeed it was only from the hands of those who adopted the undulating sys¬ tem that a true explanation of the phenomena could be ex- The experiments of our author on the refractive powers of bodies, from which he anticipated that the diamond “was probably an unctuous substance coagulated, have on this account been regarded with high favour, while his mw ob- servations on the double refraction and polarisation of light have almost disappeared from the history of optics.1 The next great step in the history of optical discovery is the invention of t\\e achromatic telescope, or telescopes which are free from colour. When Sir Isaac Newton found that he could not produce refraction without colour, he aban¬ doned the improvement of the refracting telecide as hope¬ less, and devoted himself to the construction of reflectors. :r"!' Achroma¬ tic tele¬ scope. OPTICS. The opinion at which he had arrived respecting the imprac- ticability of refracting light without colouring it, was, how- ever, an erroneous one, which he had deduced from an in¬ correct observation of the relative length of the prismatic spectra formed by different bodies, when the mean refraction was the same. In less than two years after Newton’s death, namely, in 1729, Mr. Chester More Hall, of More Hall in Es- M; iot( sex, was led by the study of the human eye, which he erroneous-H ly conceived to be achromatic, to consider the possibility of constructing a telescope by an analogous combination oi me¬ dia. After many experiments, he found two kinds of glass capa¬ ble of producing, by their combination, refraction without co¬ lour.2 About 1733 he completed several such object-glasses, which, with a focal length ot twenty inches, bore an aperture of more than two-and-a-half inches, one of which was long afterwards in the possession of the Rev. Mr. Smith of Char¬ lotte Street, Rathbone Place, and was found to be achro¬ matic. Another of Mr. Hall’s telescopes was in the pos¬ session of Mr. Ayscough, optician in Ludgate Hill, in 1754. Mr. Hall, however, kept his invention a secret; none ot his instruments were either sold or exhibited for sale, and those into whose hands they fell do not seem to have discovered either their principle or their value. _ Without calling in question the merits of Mr. Hall, we Co must do justice to those of Mr. John Dollond, an undoubted inventor of the achromatic telescope, who, unacquainted with the instruments of Mr. Hall, proceeded step by step, in a scientific progression, till he invented and constructed the achromatic telescope in 1757. To this eminent individual, and the other members of his family, we owe the construc¬ tion of many of the finest instruments by which the science of astronomy has been so much promoted. Mr. Peter Uol- lond, the son of John Dollond, first suggested and used the triple object-glass, in which a better correction of the sphe¬ rical aberration was effected, by placing the concave flint glass between two convex lenses ot crown glass. The mathematical world owe many obligations to Euler, Clairaut, D’Alembert, and Boscovich, for their able inves¬ tigations of the theory of achromatism, but their investiga¬ tions did not prove of any practical value ; and it has been justly stated by Sir John Herschel, “ that from all the ab¬ struse researches of Clairaut, Euler, and D Alembert, and other celebrated geometers, nothing hitherto has resulted beyond a mass of complicated formulas, which, though con¬ fessedly exact in theory, have never yet been made the basi of construction for a single good instrument, and remains therefore totally inapplicable, or at least unapplied in prac- tice.”3 t, • No attempt had hitherto been made to measure the in¬ tensity of different lights emanating either directly from 1 minous bodies, or when transmitted through or reflected from different bodies. This subject, to which the name ot Photometry has been given, was begun by Huygens ana ; F. Marie, who describes an instrument called a luci > but it is to M. Bouguer and M.Lambert that vve owe the most scientific and complete investigation of this class of facts. ^ , Bouguer’s earliest experiments were published 1 "V eft in his Optical Essay on the Gradation of Light, * ' 7* republished in 1760, much augmented and .mproveiunto the title of TrailedOptique sur la Gradationde la L }e s®® d01'® jn^'win^with the aqu^aU^ of ,beV Gresory's" w LicjM. Dr. Brown’s translation of the preceding passage is very incorrect. ’ Phil. Trans. 1821, p. 222. OPTICS. 363 111'I '51 Sir11- \ liam i.er- Kheij Boru'38 ® Diec:322. I;' Bouguer was followed in this inquiry by M Lambert, an /able German mathematician, who published an account of his researches at Augsburg in 1760, in a duodecimo volume ■of 547 pages, entitled Photometriaseu de Mensura et Gra- • dibus Luminis, colorum et umbrce. It is divided into seven parts : 1. On the modifications and degrees of direct light, and of its brightness and illuminating power; 2. Experi¬ ments and calculations on the modifications of light depend¬ ing on transparent bodies, but chiefly glass; 3. Experiments and calculations respecting the modifications of light de¬ pending on the opacity of bodies; 4. Calculations and expe¬ riments on the sense of light, and its apparent brightness ; 5. On the dispersion of light passing through diaphanous me¬ dia, chiefly the earth’s atmosphere ; 6. Calculations respect¬ ing the illumination of the planetary system ; and, 7. On the modifications and degrees of heterogenous and relative light, or the light of colours and shadow. Passing over the minor labours of Porterfield, Turner, Mazeas, Dutour, Buffon, Scheiffer, Darwin, Melville, Mit¬ chell, and others we come to the period of Sir William Herschel. Since the discovery of the belts and nearest sa¬ tellites of Saturn, no discovery of any importance had been made respecting the natural history of the heavens. At the age of 36, when Sir William was residing at Bath, he devoted much of his time to the construction of telescopes; and the following account of his progress is too interesting to be given in any other language than his own,—“ When I resided,” says he, “ at Bath, I had long been acquainted with the theory of optics and mechanism, and wanted only that ex¬ perience which is so necessary in the practical part of these sciences. This I acquired by degrees at that place, where, in my leisure hours, by way of amusement, I made for my¬ selfseveral two feet, five feet, seven feet, ten feet, and twenty feet Newtonian telescopes, besides others of the Gregorian form, of eight inches, twelve inches, two feet, three feet, five feet, and ten feet, focal length. My way of doing these instruments at that time, when the direct method of giving the figure of any one of the conic sections to specula was still unknown to me, was to have many mirrors of each sort cast, and to finish them all as well as I could, then to select by trial the best of them, which I preserved; the rest, were put by to be re-polished. In this manner, I made no less than two hundred seven-feet, one hundred and fifty ten-feet, and about eighty twenty-feet, not to mention those of the Gregorian form, or of the construction of Dr. Smith’s re¬ fecting microscope, of which I also made a great number. My mechanical amusements went hand in hand with the optical ones. The number of stands I invented for these telescopes it would not be easy to assign. I contrived and delineated them of different forms, and executed the most promising of the designs. To these labours we owe my seven-feet Newtonian telescope stand, which was brought t< its present convenient construction about 1778.” By means of these instruments, with which he surveyed the heavens with unwearied diligence, he discovered the Georgi¬ an Sidus, with six satellites, two new satellites circulating round Saturn, the quintuple belt and double ring of the same planet, and various other astronomical phenomena of the high¬ est interest. In 1783 he finished a twenty-feet reflector, with an aperture of 18T7S inches, and formed the design of con- S a st’B larger instrument. On the recommendation o Sir Joseph Banks, his Majesty George III. agreed to de- ray the expense of a large telescope, and under his munifi- cent patronage, which has never since been imitated by his successors, Sir William began in 1785, and completed on f56 l i ^ '^u^us^ 1789, a reflecting telescope forty feet in oca ength, having its great speculum four feet in breadth thick, and weighing, when newly . ’ . 18 pounds. On the 28th of August, the day after 18 g!gantic instrument was erected, Sir William discovered new satellite of Saturn, and in the same year another sa¬ tellite, both of which were nearer the body of the planet History, than the other five discovered by Huygens and Cassini. In' this manner the telescope, which was a toy in the hands of Galileo, became with Sir W illiam Herschel a vast machine, carrying the observer himself, and directed and moved by appropriate mechanism. An improvement in the achromatic telescope, of great Dr. Blair, value, though not yet brought into practical use, was made A.D. 1787. by Dr. Robert Blair. Although in the achromatic telescope Died composed of crown and flint glass, the colour was as com¬ pletely corrected as it was possible to do with such lenses, yet it had long been observed that there were residual colours, which formed what are called a secondary spectrum, and which arise from the coloured spaces in the spectrum, produced by crown glass not having the same size as those in a spectrum of equal length produced by flint glass. Va¬ rious attempts had been made in vain to obtain other sub¬ stances, in which this irrationality, as it was called, of the coloured spaces did not exist; and Dr. Blair was hence led to attempt the removal of the secondary spectrum by other means. The plan which he adopted was the following. He made each lens of his compound object-glass achromatic, but in such a way that the secondary spectrum produced by the one should be corrected by the secondary spectrum pro¬ duced by the other. Such an object-glass required two fluid media and three lenses of glass, and Dr. Blair succeeded in constructing them so as to be perfectly free from all second¬ ary colour. In the course of his experiments, however, he was fortunate enough to discover that the muriatic acid mixed in proper proportions with metallic antimony, or but¬ ter of antimony, as it was called, gave a spectrum, in which the colours had exactly the same proportion as crown glass ; and hence, by enclosing this fluid between two lenses of crown glass, the one next the object being plano-convex and the other a meniscus, he obtained an object-glass in which the rays of different colours were bent from their rec¬ tilineal course with the same equality and regularity as in reflexions. To such an object-glass he proposed to give the name of aplanatic, to indicate the entire removal of all aberration.- Dr. Robison informs us that one of these teles¬ copes, which did not exceed fifteen inches in length, equalled in all respects, if it did not surpass, the best of Dollond’s achromatic telescopes forty-two inches long. After the death of Dr. Blair, his son, Mr. Archibald Blair, attempted in vain to produce instruments of the same perfection. Had this young man lived, he might have executed something bet¬ ter, but he wras cut off at an early age, and has left to the Royal Society of Edinburgh an account of his father’s me¬ thods, which we hope may prove useful to science. Hitherto the undulatory theory of light as proposed by Dr. Tho- Huygens and supported by Hooke and Euler, had met with mas Young, few adherents; and the reputation of Newton had given to Born 1773. the theory of emission an adventitious authority to which itDied l829- was not entitled. Dr. Young, however, boldly threw down the gauntlet and maintained the theory of Huygens with the greatest ingenuity and talent. In his paper of 1800, entitl¬ ed Outlines of Experiments and Observations on Sound and Light, he shews that light has a strong analogy with sound, and that it is produced by the undulation of a highly elas¬ tic etherial medium which pervades all nature. In another paper, which he published in 1801, On the Theory of Light and Colours, he applies the theory of undulations to the ex¬ planation of natural phenomena; and lays down the follow- ing hypotheses : 1. That a luminiferous ether pervades the universe, rare and elastic in a high degree. 2. That undu¬ lations are excited in this ether whenever a body becomes luminous. 3. That the sensation of different colours depends on the different frequency of vibrations excited by light in the retina ; and, 4th, that all material bodies are to be con¬ sidered, with respect to the phenomena of light, as consist¬ ing of particles so remote from each other as to allow the 364 OPTICS. History, etherial medium to pervade them with perfect freedom, and 'either to retain it in a state of greater density and of equal elasticity, or to constitute together with the medium an ag¬ gregate which may be considered as denser but not more elastic. He then proceeds to demonstrate in nine propositions, some of the leading truths in the theory, applying them in corollaries to the colour of striated surfaces, the colours of thin plates, the colours of thick plates, and the colours pro¬ duced by inflexion. In 1802, Dr. Young published An ac¬ count of some causes oj the Production of Colours not hitherto observed. The cases described in this paper are the colours of delicate fibres and of mixed plates. The first he explains by the interference of two portions of light, one reflected from the fibre and the other bending round its opposite side, and at last coinciding nearly in direction with the former portion. The colours of mixed plates are those produced when moisture, butter, or tallow, are placed between tv-o plates of glass, so that portions of air are intermixed with these substances. A candle seen through such a medium is surrounded with a sort of halo, and Dr. Young considers the colours as produced by the light which passes through one of the media, moving with greater velocity so as to anti¬ cipate the light which comes more slowly through the other. In 1803, Dr. Young published what may be considered as his principal paper, entitled Experiments and Calcula¬ tions relating to Physical Optics, in which he has given an experimental demonstration of the general law of inter¬ ference. By intercepting the rays which passed on one side of a body which formed fringes by reflexion, the fringes disappeared whether the interception was made on one side or the other of the body. This admirable experiment es¬ tablished the truth of his law of interference, and paved the way for those splendid generalizations respecting the undu- latory theory which have so widely enlarged tne boundaries °* In April 1814, in a review of Malus, Biot, and Brews¬ ter’s Experiments on Light, which he contributed to the Quarterly Review, he first published his explanation of the colours of crystallised plates produced by polarised light by the law of interference, an explanation which is now uni¬ versally admitted. In the article on Chromatics,-which Dr. Young contributed to this work, the reader will find a full account of the discoveries to which the law of interference lias been so successfully applied. One of the most impor¬ tant applications of the undulatory theory was published in that article for the first time. Dr. Young has there given an expression of the velocity of reflected light at a perpen¬ dicular incidence from bodies of various refractive powers, which is a simple function of the index of refraction. In giving an account of Sir William Herschel s discover¬ ies, we have not mentioned his discovery of invisible heat- ing rays beyond the red extremity of the spectrum, because we have ourselves succeeded in discovering the luminous rays at that part of the spectrum. In repeating Sir W. Hersch- Ritter el’s experiments, M. Ritter of Jena placed muriate of silver A.D. i 801. in different parts of the spectrum, and found that it soon be¬ came black beyond the violet extremity, less black in the violet rays, becoming still less black in the blue and green, and so on till the blackness vanished. When he used mu¬ riate of silver, slightly blackened or disoxygenated, its white or original colour was partly retained by the red, and still more by the supposed invisible rays beyond it. In these ex¬ periments of Ritter’s, as well as in those of Sir W. Herschel, the solar spectrum, when seen by the eye, as thrown upon paper, is extremely short. A great part of the violet extremity as well as the red extremity is invisible, so that when the thermometer and the muriate of silver seemed to be wholly out of the spectrum, they were completely within the violet and the red spaces, as we have placed beyond a doubt by comparing the length of a spectrum on paper with that which Hist, can be rendered visible by directly looking through a teles-V—y cope at a highly magnified one. Without knowing of the experiments of Ritter, Dr. Wol- Dr. \ laston discovered the chemical effects which exist at thehston. violet end of the spectrum ; but the merit of this expert-I ment decidedly belongs to Scheele, who discovered that mu- led 1 riate of silver was more blackened in the violet rays than in any other part of the spectrum. The principal discovery in "optics, which we owe to Dr. Wollaston is his method of observing the spectrum, and his discovery id five fixed lines in it. The following is his own description of it: “I can¬ not conclude these observations on dispersion without re¬ marking that the colours into which a beam of white light is separable by refraction, appear to me to be neither seven, as they usually are seen in the rainbow, nor reducible by any means (that I can find) to three, as some persons have conceived ; but that, by employing a very narrow pencil of light, four primary divisions of the prismatic spectrum may be seen with a degree of distinctness that, I believe, has not been described nor observed before. “ If a beam of day-light be admitted into a dark room by a crevice -io of an inch broad, and received by tne eye at a distance of ten or twelve feet, through a prism of flint glass free from veins, held near the eye, the beam is seen to be separated into the four following colours only, red, yellow¬ ish green, blue, and violet; in the proportion represented in the figure. “ Xhe line A that bounds the red side of the spectrum is somewhat confused, which seems, in part owing to the want of power in the eye to converge red light. The line B, between red and green, in a certain position of the prism, is perfectly distinct; so also are D and hi, the two limits of violet. But C, the limit of green and blue, is not so clear¬ ly marked as the red; and there are also, on each side ot this limit, other distinct dark lines,/and g, either of which in an imperfect experiment, might be mistaken for the boundary of these colours. “ The position of the prism in which the colours are most clearly divided is when the incident light makes about equal angles with two of its sides. I thus found that the spaces AB, BC, CD, DE, occupied by them, were nearly as the numbers 16, 23, 36, 25. , “ Since the proportions of these colours to eaca otiiei have been supposed by Dr. Blair to vary according to the medium by which they are produced. I have compared with this appearance the coloured images caused by pris¬ matic vessels, containing substances supposed by him to differ most in this respect, such as strong but colourless nit¬ ric acid, rectified oil of turpentine, very pale oil of sassatras, and Canada balsam also nearly colourless, \\ ith eaclio these I have found the same arrangement of the four col¬ ours, and, in similar positions of the prisms, as nearly as could judge, the same proportions of them.1 _ “ But, when the inclination of any prism is altered s to increase the dispersion of the colours, the proportions o them to each other are thus also changed, so that the space AC and CE, instead of being as before 39 and 61, may found altered as far as 42 and 58.” These interesting 1UU11U. clILClClA cto xiXL a —< — * ' in observations are appended to his Method of efaff!- n Re fractive and Dispersive Powers by Prismatic Refiec A , i.i- 1.. .1 u... ZJ/,,7 fnr 1802. which was published in the Phil. Lrans. for 1 — , . In the year 1800, Dr. Wollaston published in the r losophical Transactions some interesting expenmen observations On Double Images caused by _ rival Refraction, and in the same work for 1802, ne municated a series of measures On the Oblique R j of Iceland Crystal in different planes, which he as the measures taken by Huygens had done 1 The observations in this paragraph are quite inconect. reach of doubt. Dr. Blair’s results to which they stand opposed have been placed beyond t H ry. Sort Diec OPTICS. to agree in a remarkable manner with the beautiful law es- ''tablished by the Dutch philosopher. These researches of Dr. Wollaston, but particularly the discoveries of Dr. Young, had about this time drawn the at¬ tention of the philosophers of France to the subject of double refraction. Laplace had considered the deviation of the extra¬ ordinary ray, as due to the action of the attractive and re¬ pulsive forces by which Newton and his successors had endeavoured to explain the ordinary refraction and reflexion of light; and the Institute of France were thus led in 1808 to propose the double refraction of light as the subject of a prize to be adjudged in 1810. Among the few memoirs which were sent in competition for this prize, that of E. L. Malus, colonel of the imperial corps of engineers was the success ful one. and fishes, shells, and the whiskers of a whale. Malus in- v.C!Uir° P1 osecute this subject to a greater extent, but' his brilliant career of discovery terminated by his death on the 7th February 1812. The loss of Malus, great as it was felt to be, was imme-Discoveries diately supplied by his distinguished colleague in the Insti-of M. Ara- u e, M. Arago, who has added to this and other depart-g°- Horn ments of science so many brilliant discoveries. On the1786- 11th of August 1811, before the death of Malus, M. Ara1, Malus announced to the reflexion ° ^ht WaS thus P°larised by likewise discovered the depolarising property in a piece of frli A V h?ht Whlch- Waf althe Same time transmitted flint glass, about three quarters of an inch in thickness ough the surface consisted of a portion of light polarised We owe also to M. Arago the discovery of circular p0l- ^ section, and proportional to that which was arisation in quartz, which he made in 1811. By transmit spfvp* P ’ and °f anothfPortloln n04 modified, which pre- ting polarised light along the axis of the prism he observed omS Llanlf eK°ftdireCt^ht Jhi8 laSt P°rti0n be- the bnts to be different in their nature £m the ordi^ W !c f^ !eSS by transm»ttmg the ray through a num- tints of the mineral, although they increased and diminished wfith the thickness of the plate. When analysed with a prism of Iceland spar, he observed that the true images had complementary colours as in the ordinary tints, and that the colours changed, descending in Newton’s scale as the prism was turned round, so that if the colour of the extra¬ ordinary image was red, it became in succession orange ~~LicuiomiLuiig me ray rnrougn a num¬ ber of plates in succession till the transmitted pencil is wholly polarised in one direction. Malus likewise made several experiments on the polaris- ation of light by metals, and he was led to the conclusion, that the difference between transparent and metallic bodies was, that the former refract all the light polarised in one direction and rPtWiVl w \ . 8. 1*™^ m one orumary image was red, it became in succession orange metallic bodies reflect it bLflw'f “ rd“”fe' ..a"d *»*!» itoportaut metallic bodies reflect what they polarise in both directions. m a series of experiments on crystals and organised substances, communicated to the Institute on the 19th ugust 1811, Malus found that they all depolarised a, pen- Ji-0, Poarised light; that is, a pencil of polarised light 1C ,re uset^ be reflected by another surface properly inference that the differently coloured rays had been polaris- ed in different planes in passing along the axis of the crys¬ tal. M. Arago s duties in the Observatory prevented him from pursuing these valuable discoveries with that contin¬ uity of labour which they demanded. Placed, recoveredIts nnwpr^nf0u TTo ProPerly A very Important discovery was made by M. Arago re¬ transmitted Ihroithrr31 being reflected after being specting the colours of thin plated When the rings of thin crystals which did^ot iS i ll ^01'?^01?'1 substances; AH plates were examined through a rhomb of Iceland spar, the regular wtohedrl f 'a 6 u 6 CUbe °r ¥' Ara^0 ^vered that when the principal section of the ofdep1larTsafion 2? 7h ? PT688 the rh°mb WaS Parallel and Perpendicular to the plane of inci- found to possess the tm! °rganifd substafces which he dence, the intensity of the light in one of the images varied and fibrous nortion* ni l Pr°Perty’ £ere the vtransparent with the incidence, and that this image vanished altogether which cover Pthe bLf ^ mV,fS’ Se l)el]fCS when the pencil of light was inclined 35° to the surfhce, or hairs, scales horn ivnrJ f' .f0 wo°. en bbres, white when it was incident at the maximum polarising angle. — ’ > y. ea rers, the skins of quadrupeds I his result was the same, whether he examined the reflect- Memoires de ITnstitut 1811, part i. p. 93-134. Memoires d’Ai’cuel, tom. iii. Sur les Couleurs des Lames Minces. 366 0 P T 1 C S, History, ed or the transmitted rings. Hence he inferred that the * lio-ht of both the systems of rings was polarised in the plane of incidence, at the polarising angle for glass. M. Arago has likewise shewn that the colours ot the reflected and transmitted rays are complementary, and that their inten¬ sities are exactly equal, completely neutralising each other ~ i .. t i-i Thp most of the plate of air which gave the same tint in Newton’s J torj, ^ m, .i • i A frk xrowitVt tl'io _ scale. ' These thicknesses were found to vary with the na- • ture of the crystal, and were always much greater than the thicknesses of thin plates which gave the same tints. He had at first supposed that at oblique incidences the changes of colour followed the same law as in thin plates, but he sities are exactly equal, completely neutralising eac o^^r found that the tint depended on the thickness or forming white light when they are superposed. ofthe tal traversed by the refracted my and as the interesting experiment, however, made by M. Arago, is that in which he examined the rings when a convex lens was pressed upon a metallic reflector. When viewed with a prism of Iceland spar, as before, one of the two images vanished at the maximum polarising angle ot the glass, but the phenomena were ditt’erent above and below is angle. At less angles, the dimensions and the colours ot the rings were the same in both unag^, w ic iffere ^emTof il/ot'eai/e Polarisation. ticles^of a poised my ate tu the one beginning from a white centre, and the other trom a black one. _ _ , „ We have already seen that Dr. Young first apphea the principle of interference to explain the colours ot crystal¬ lised plates; but he did not explain why these colours are not produced excepting with polarised light. MM. Arago and Fresnel entered upon this inquiry, and obtained a satis . . ^.1 y • cp 1... tliat two rav atterwarus iuuiiu ^ — - of the crystal traversed by the refracted ray, and as the square of the sine of the angle which the direction ot the ray forme*! with the optic axis. In these experiments M. Biot considered arragonite, sulphate ot lime, topaz, and mica, as all having one axis of double refraction like calcar¬ eous spar. . 1 Ti/r re . In order to explain these various phenomena, M. biot communicated to the Institute in 1812* his ingenious theory of Moveable Polarisation. In this theory the par¬ ticles of a polarised ray are supposed to preserve their primitive polarisation till they reach a certain depth in the crystal, when a succession of isochronous oscillations round their centre of gravity take place, the axes of polarisation being carried alternately to each side ot the axis of the crystal. The depth through which the particle is car¬ ried during each of these oscillations, is assumed to be twice the depth through which it has passed before the i 'txTi ~ ■Tvnm flip r'rx’U. factory'solution of the (iifficulty. "Theyimindrii^iw^rays of light polarised in the same plane, fixed polarisatim, (in which the axes ofthe their interference as in common light, that no narticles are arranged in two rectangular directions) as if the ence at all takes place when these planes are at rig g P osciiiation had been completed when it quitted the plate. to each other: and that at an intermediate inclination, the in- las^o^Honn discovered by M. Arago along terference is diminished and the hinges decrease mrMen- colo ^ J ^ ^ J sity. In following out these interesting results, they . „ J , i i—^riiconvortvl that two oppositely polarised pencils will not interfere even when their planes are made to coincide, unless they belong to a pencil which had been wholly polarised in one plane. We owe also to M. Arago the beautiful discovery that on m fQm “igl;t t0 leftj and the two last the quantity of polarised light in the reflected and tra - p ^ 1^ ^ In a memoir laid before the Institute in mitted pencils of common plates are exactly equal. _ ^ h lar votation of the plane We he indebted likewise to M. Arago for *°me .mport- Erectly proportional to the thickness of ant results respecting the interference of ligi. | 1 . ,in(i inversely to the square of the length of the already seen that the interior fringes formed by diffraction t p , — ur„ thai- thisnro- disappear when the light which passes by one side of the inflecting body is stopped. M. Arago observed that these fringes were displaced by making the same light pass through a thin plate of some transparent substance, and that the bands were always shifted to the side on which the plate was placed. The amount of this displacement determines the velocity of light in the interposed medium, and conse¬ quently gives us a measure of the refractive power of that ^ ^ ^ A body with the highest degree of accuiacy. tprtino- the constituents of particular vegetable substances In conjunction with M. Biot, M. Arago published a va - , gchetnical analySis had partly or wholly failed. He able series of experiments on the density and refractive ^h ^ ^ s^nb[e portion 0f plants, or the farina- power of nine gaseous bodies measured m relation to matter of grain and roots, to which he has given the mospheric air taken as unity. Hydrogen stood at the hea dextrine, and which M. Itaspail had considered to ofthe table, with a refractive index equal to 6-61436, (or name of turns the pianes of polarisation 7-0335 if we use the density given by Berzelius) whnst oxy- D0Werfully to the right (hence the name dextrine)^ gen stood at the foot of the table with a refractive index o P ^ sugar; and that all the gums, and the 0.8616. . . . . cvrmw of the suoar of grapes, turn the planes of polarisation M. Biot. Among the most successful cultivators of physical optics, y u9Bio{has also applied the same method ot Bom 1774-M. Biot holds a distinguished place. His attention was ,^ taining the changes which take place mthe first directed to the colours of crystalline plates discovered anflysing the processes of vegetation by M. Arago, and by nice instruments and indefatigable sap o c^ncerned in the growth of wheat and rye. Hi labour he determined the general laws of the phenomenon ^ g are of at practical value in an agricultural point in reference to the thickness ot the plates, and t e c°mP ‘ p • and 0Ught to impress on those whom it most coi sition of the tints as observed in sulphate ot hme and roc ’ important truth, that the most recondite djscove * crystal, calcareous spar, and arragonite. He observed that cerns, 1 or later find an ugeful application- at a perpendicular incidence the two colours correspond to ies^n sc^e most important discoveries made by M. B o those seen by reflexion and transmission in thin plates of nature of the double refraction and po ansati^ air, and he concluded that the thicknesses at wnc ies which Huygens had been unable to develope- colours were developed, were proportional to the thickness m quartz, wmen n yg - — “ 7 T- ' 77) ] 7 7 T iimirrp e-nrouvent en traversant certains cristaux. i Sur un nouveau yenre d'Oscillation que les Molecules de la Lumure eprom the axis oi quartz, weie -j he and M. Seebeck, nearly about the same time discovered the existence of the very same colours in several essential oils and solutions, such as oil of turpentine, oil of laurel, oil of lemons, syrup of sugar, the two first turning the tlic fits as o-iven by Newton. He then concludes that this pro perty of turning the particles of light round their centres of gravity resides in the ultimate particles of solid or fluid bodies, that it is necessary to their very existence, and that it is entirely independent of their mutual distances and mode of aggregation. _ , , M. Biot" afterwards resumed this subject, and extend¬ ed his researches to a great variety of substances ; and e has still more recently employed circular polarisation in de- -• 1*1. /-mlr»v \rorrc*t5iVi]p substances. OPTICS. •i H 7- Sir. id Bret :r. Biot found that it differed from that of calcareous spar, in having the phenomena regulated by a prolate in place of an oblate spheroid, the least refracted image being the ordinary ray in quartz, and the extraordinary one in Iceland spar. Whilst these valuable researches were carrying on in , France, Sir David Brewster was occupied with the same subject in Scotland. In his Treatise on New Philosophical Instruments, published in the beginning of 1813, he has shewn that chromate of lead and realgar exceed the diamond1 in refractive power; that diamond, phosphorus, and sul¬ phur have their high refractive powers in the order of their inflammabilities; that fluor spar and cryolite have their re¬ fractive powers below all solid substances, (excepting ta- basheer), and lower dispersive powers than all other bodies; and that all doubly refracting crystals have a double disper¬ sive power. He shewed that oil of cassia had the least, and sulphuric acid the greatest action upon green light; that a tertiary spectrum is formed, when prisms of the same sub¬ stance but different angles are made to correct the disper¬ sion, by the inclination of one of them; and that achroma¬ tic combinations may be effected by prisms and lenses of the same kind of glass. In the year 1812, he began to study the subject of the polarisation of light, in consequence of having become ac¬ quainted with Malus’s celebrated discovery of the polarisa¬ tion of light by reflexion. He discovered the remarkable property of the agate, by which it gives only a single dis¬ tinct image polarised in one plane ; the property of depo¬ larisation possessed by almost all minerals, and by many animal and vegetable substances ;2 the polarised colours produced by thin plates of mica and topaz ; the partial po¬ larisation of light by polished metals ;3 and the complete polarisation of the exterior and interior rainbows. In the course of these inquiries our author discovered the two beautiful systems of elliptical coloured rings, which we see by transmitting polarised light along the two optical axes of topaz; and in consequence of his using a conical in place of a parallel beam of light in these experiments, he was led to observe the same system of rings, under different modifications, in various other bodies. W hile examining the depolarising effect of a plate of mica at an oblique inci¬ dence, he was led to the discovery of the polarisation of light by oblique transmission through bundles of crystallised or uncrystallised plates; and though Mains had anticipated mm in this discovery, yet he had determined the law of the phenomena, which had escaped the notice of that skilful observer. Hitherto no idea had been formed of the mechanical con- ition of bodies in which the polarising and doubly refract- ing structure were exhibited; but in the years 1814 and o 15, a new light was thrown upon the subject, by three iscoyenes made by Sir David Brewster, namely, that the polarising structure could be produced in glass by heat, and f S° J,raPic*. co°ling that Prince Rupert’s glass drops, orme y rapid cooling, possessed that structure;° and that y of simple pressure, that species of crystallisation com be communicated to soft and indurated jellies, which jorm two apparently polarised images, and exhibits the complementary colours by polarised light.6 e ave already seen that Malus considered the property mr^0 ailSatl0n ^ ^flexion as independent of the other es ° action which bodies exercise upon light. In order investigate this subject, Sir David Brewster made an ex¬ tensive series of experiments to determine the angles of maximum polarisation by reflexion, from the surfaces of bo-' dies, and from the separating surfaces of different media. After encountering many difficulties, he was led to the dis¬ covery of the very simple law that the index of refraction is the tangent of the angle of polarisation, which is rigorously ti ue for all separating surfaces, and for rays of all refrangi- bihties; and hence we obtain an immediate explanation of the perplexing fact, that at the maximum polarising angle the polarisation of the ray is never complete. When this law is ex¬ pressed geometrically, it informs us that when a ray of light is polarised by reflexion, the reflected ray forms a right angle with the refracted ray ; that the sum of the angles of re¬ flexion and refraction is a right angle, or counting from the surface, that the angles of reflexion and refraction are equal. In the same paper, our author has shewn that light may be completely polarised by two, three, or more reflexions, at angles all above or all below, or partly above and partly be¬ low the angle of complete polarisation, a greater number of reflexions being required, as the incident ray approaches either to the refracting surface, or to a line perpendicular to it. In the same paper, it is shewn that every ray of light polarised by reflexion has been acted upon by the refract¬ ing force ; and that total reflexion exercises an analogous action upon light with metallic surfaces. The influence of heat in producing a transient polarising structure in glass, led our author to an elaborate examina¬ tion of the subject in 1815.7 WThen the edge of a thick plate of glass is laid on a bar of hot iron, the heat gradu¬ ally propagates itself along the plate, and its path is marked by the most beautiful fringes of polarised light; but no sooner has the heat entered the plate of glass, than similar fringes appear on its upper edge, where there is no heat at all. After a certain period, the whole surface of the glass is covered with coloured fringes, which are arranged in two similar polarising structures at the edges, separated by two dark lines or axes from an opposite structure in the middle. When the glass is removed from the iron, the fringes gra¬ dually disappear, and are extinguished when the heat is uniformly djifused over the glass. If the plate of glass is made very hot in boiling oil, and is then allowed to cool with its edges against a plate of cold iron, it will exhibit in a fainter degree the fringes above described ; but they are now all reversed, the middle structure having the same cha¬ racter as the external structures had formerly, and vice versa. If, when a plate of glass is covered over with the polarised tints, it is suddenly cut in two by a diamond in the direction of its length, the whole structure is instantly changed, and each piece has the same properties and struc¬ ture as the whole, exactly like a portion detached from the end of a magnet. The same properties he found in muri¬ ate of soda, fluor spar, obsidian, semi-opal, horn, tortoise¬ shell, and various animal and vegetable bodies. The tints thus developed by heat exhibit, by their being made to cross one another and by other modifications, a series of the most brilliant phenomena within the whole range of optics. In continuing these experiments, our author found that when the plate of glass, after being brought to a red hejt, was allowed to cool quickly, it exhibited permanently the same coloured fringes, a discovery which had likewise been made by Dr. Seebeck of Nuremberg. T-his paper is followed by another, published in the same ever, p'laced vfno,?! InSf'V6 povvvers\of soli(]s and fluids’ diamond stood at the head, and water and ice at the bottom. Our author, how- 2 Pi.7 V b tanees ab°ve diamond, and tabasheer far below ice. 3 Th irans' 5’ P ^7- and England neither iliIe-refV,0mmUn'Cate<^-t(i t^le S°c'ety of Edinburgh, and owing to the state of communication between France colours of crystalline nlat dU °r ° eHf meml)ers Society w'ere acquainted with the previous discovery of M. Arago of the 4 T/„7/r^ o]f teS,0r wlththoseofMalusondePolarisatioriaad metallic polarisation. b 1 « 7 Phi Trans IRlfi n , r7. 7 _ * ld‘ Id 6 Id. 1815, p. 60. om, p. 40, and Edinburgh Transactions, vol. vin. p. 383, where the phenomena are represented by formula. 367 History. 368 OPTICS. History, volume of the Transactions} on the communication of the 'structure of doubly refracting crystals, to glass, muriate of soda, ftuor spar, and other substances, by mechanica!, com¬ pression and dilatation; and on the 17th November 1816, our author communicated to the Royal Society ot Edin¬ burgh another paper, on the effects of compression and dila¬ tation in altering the polarising structure of doubly refract- inq crystals? _ , „ . ^ In 1816 he communicated to the Royal Society his ex- periments on mother-of-pearl, explaining the oriS1^ ( fine superficial colours, and shewing that they could be com¬ municated to wax, isinglass, the fusible metals, and even to lead, by hard pressure. In 1815 he published a paper on the multiplication of images, and the colours which accom¬ pany them, in some specimens of calcareous spar, a su ijec which had exercised the sagacity of Huygens Benjamin Martin, Brougham, Robison, and Mams. The last of t e philosophers ascribed the multiplication of the images t the interception of the pencils by fissures within the cry - tal, and the colours to the thin plate of air which it enclos¬ ed • but Sir David Brewster discovered the true cause of the phenomena, and proved that there were no fissures nor plates of air; that the multiplication of the ^ages from one or more veins of calcareous spar, which di ided the rhomb into prisms, so as to form composite crystals, having the axes of crystallization and of double refraction of the two contiguous crystals turned round 180 , so that each of the two pencils formed by double refraction are subdi¬ vided in passing from the one crystal to the other. He ha shewn also that the colours are the polarised tints producer by thin plates crystallized, these plates giving the regular system of coloured rings seen along the axis of calcareous spar, the light being polarised by the first pnsm of spar, and analysed by the last. Hence it follows that the Pola*lff tints of crystals were seen and studied by Huygens and his successors, without having any idea of what they were. The crystalline lenses of animals had hitherto been sup¬ posed to increase regularly in density, from the circum er- ence to the centre, for the purpose of correcting the spheri¬ cal aberration. Sir David Brewster, however, shewed, in 1816 4 that there were often three structures in such lenses, a structure increasing in density from the centre, being ac¬ companied with another diminishing in density, and that these structures displayed themselves m circular rings o polarised tints, traversedbyarectangularblackcross, the tints themselves sometimes rising to a bright yellow of the his order. About the same time he discovered the remai kable property of the diamond, of exhibiting irregular patches o doubly refracting structures, as if it had been m the sta e of gum, subject to irregular pressure, or induration ; and having afterwards discovered gaseous cavities m the same gum, in which the expansive pressure of the included gas had communicated to the surrounding parts a regular doubly refracting structure, he corroborated Ins supposition that it had a vegetable origin,6 which he has more recently con¬ firmed by discovering that many diamonds consist of strata of different refractive powers, a property not possessed by any mineral body.7 . . ., In the beginning of February 1815, when examining the action of metals upon polarised light, our author discovered that complementary colours were produced by one or more reflexions from plates of gold, silver, and other metals; that analogous colours were produced by total reflexion ; that common light was wholly polarised in the plane of incidence by a number of metallic reflexions, this number being greater in silver and gold than in the other metals. Though ex¬ amined with much care both by our author and M. Biot,8 Hist the nature and law of these phenomena were still veiled in ; obscurity. „ Hitherto all crystals were believed to have one axis of double refraction, like Iceland spar or quartz ; but in the year 1817,9 Sir David Brewster discovered that the greater number of crystals, and among these arragonite, sulphate of iron, sulphate of barytes, sulphate of strontian, topaz, fel¬ spar, and nitre, had two axes of double refraction, which he called resultant axes, and which were more or less inclined to each other, as the intensity of the real axes more or less approached to equality. By measuring the deviation of the two pencils in different planes, he found that the double refraction was the same in every part of the same ring, dis¬ appearing along the resultant axis, and increasing with the value of the tints; and by projecting the coloured rings, and measuring the angular distances from the axis at which the same tints were produced, he was led to the true physical law of the tints, and of the deviation of the extraordinary rav. This general law, when applied to the polarised tints, is thus expressed: The tint produced at any point of the sphere, by the joint action of two axes, is equal to the dia¬ gonal of a parallelogram whose sides represent tne tints produced by each axis separately, and ichose angle is double of the angle formed by two planes passing through that point of the sphere and the respective axis. When the law is applied to the phenomena of double refraction, it may be thus expressed : The increment of the square of the velo¬ city of the extraordinary ray produced by the action of two axes of double refraction, is equal to the diagonal of a pa¬ rallelogram whose sides are the increments of the square of the velocity produced by each axis separately, and calcu¬ lated by the law of Huygens, and whose angle is double oj the angle formed by two planes passing through the rag and the respective axis. When the two rectangular axes are of equal intensity and of the same character, the preced- in and to point out the connexion between the optical s ture and chemical composition of crystals. The absorption of common light, m virtue of which c) exhibit different colours, or shades of colour, in di directions, had been long observed by \\ ol]‘lst011’ ’ Bournon, De Dree, and others; but S.r D.vtd B ewster discovered that in a great number of coloured crys , with one and two axes of double refraction, polans e was absorbed, according to regular laws gening on the inclination of the ray to the axis or axes ^c ’ ntiv that in such crystals the two pencils are d^direC. coloured, the difference of colour disappeann| i th ^ ^ tion of the axis, and rising to a maximum at ng ot- it. These phenomena are finely seen m super- ——. 156. 1 Edinburgh Transactions, vol. vin. p. 2 Id vol vdi. p. 2^1. „ . i 3 Phil. Trans. 1815, p. 270, and Edinburgh Transactions, vol. viii. p- 16a- nl. 4 Phil. Trans. 1816, p. 311. a Edin. Trans. 1816, vol. via. p- 167 e Geological Trans 1816 - See our art. Microscope, vol. xv. p- 30. « 77 aite de Phys que, tom. iv. p. 579. 9 Phil. Trans. 1818, p. 199. 1 Hi* OPTICS. . copper, dichroite, Brazilian topaz, and augite. These pro- t-'perries are shewn by our author to be singularly modified by heat, and even communicated to crystals which do not naturally possess it. Absorbing crystals have been called dichroitic, and the property itself dichroism. The subject of circular polarisation was likewise examined by our author in quartz and amethyst.1 He found that heat entirely removed from quartz the power of producing cir¬ cular polarisation, when the substance was reduced to fusion; he discovered it near the resultant axis of chrysoberyl, and in certain specimens of unannealed glass.2 In examining the proportions of the amethyst, he found that this interest¬ ing mineral combines the opposite structures of the two kinds of quartz, being composed of alternate strata of right and left-handed quartz, these two opposite actions destroy¬ ing each other at their junction, where the colouring mat¬ ter of the amethyst is principally apparent. In all the experiments on the polarisation of light by re¬ flexion from crystallised surfaces, their action was supposed to be the same as that of common solids and fluids, and Malus had distinctly stated it as the result of experiment, that Iceland spar had the same polarising angle on all its surfaces and in every azimuth, its action being <£ independ¬ ent of the position of the principal sections,” “ that its reflecting power extends beyond the limit of the polarisin0- forces of the crystal, and that as light is only polarised by penetiating the surface, the force wTiich produces ex¬ traordinary refraction begins to act only at this limit.”3 Doubting the accuracy of these results, Sir David Brews¬ ter instituted a series of experiments on the action of crys¬ tallised surfaces upon light, by which he has established the remarkable fact that the angle of complete polarisation varies from 57° 14' to 59° 32', on the surfhce of the rhomb of calcareous spar, being a minimum in the plane of the principal section, and a maximum in a plane perpendicular to it. But it is not merely the polarising angle that is changed. W hen the ordinary reflecting force is weakened by causing the reflexion to be made from the refracting surface of oil of cassia and Iceland spar, he found that the light was no longer polarised in the plane of reflexion, and that the deviation from this plane depended on the inclina¬ tion of the ray to the axis of the crystal, the deviation becom¬ ing less and less as the refractive power of the fluid was dimi¬ nished. In the same paper he has shewn that by altering ie mechanical condition of the surfaces of crystals, and making the ray enter this surface from fluids of different retractive powers, the ordinary or the extraordinary image may be weakened or extinguished at pleasure.4 m ? Vf ^ear 1^6, Sir David Brewster discovered a re- larTrble fs}'steni of coloured rings in apophyllite, a singu- Y constituted erysta!, one part of which has one axis, Wn heJ ?art haS two axes of doubIe refraction. Dif- erent parts of this crystal possess different degrees of double efraetion, with the same thickness, and at the same incli- at on to the axis; and the beautiful and symmetrical figure atpd inaffer eCt CTtal exhibits by polarised light, deline- whi a hemost SP endid colours, is perhaps the finest sight of rT kingdorn can Prcsent to us.3 By the aid stn rh r d lght-’ °Ur author discovered also a singular reSZm ccjrtaio crystals of chabasie, in which the double vanisbPQ11 ^adually d™imshes in successive strata, then refractS^K-reappearS withan 0PP0site sign> the one double mostrpm i£1i'ig POsltlve and the other negative; but the —____omarkable of all these structures was that of analcime, s TronsTvoi. ix. p. 139. ' 3 Th 'T pffcs' Gardner’s Cabinet Cyclopaedia, n. 128. ’ m r la J0uhle Refraction, p. 240. P ’P >v*T'ans- 1819>P- 145. 369 in which he discovered a new species of double refraction, History, in which the phenomena are related to planes in place oD axes, in which the double refraction disappears.6 In the year 1829, our author communicated to the Royal Society of London six papers. The first of these was on the refection and decomposition of light at the separating surfaces of media of the same and of different refractive powers? The second, entitled, on periodical colours pro- TV J. p. 6 Id vol. x^p'^lgy^’ V°P k P" b anci Trans, vol. ix. p. 317. p.204^’ TranS' 1829>P- 187, or Edin, Jour, of Science, N.S-, vol. i. VOL. XVI. duced by the grooved surfaces of metallic and transparent bodies? contains an account of a new series of periodical colours exhibited by grooved surfaces, which succeed each other in a plane at right angles to that in which the usual spectra are seen, and producing a singular modification of these spectra ; phenomena not yet brought within the pale of the undulatory theory. In the third paper, on the double refraction produced by pressure in the molecules of bodies? he has shewn that the axis of pressure is a regular axis of double lefraction, and that the doubly refracting properties, which are not inherent in the molecules themselves, are produced by the pressure caused by the forces of aggrega¬ tion, which generally differ in intensity in the direction5of the three rectangular axes. The same author has more recently succeeded in producing regular double refraction by the expansive presence of heat. The other three papers ticat of the laws of the polarisation of light by reflexion16 and refraction,11 and on the action of the second surfaces of transparent plates12 upon light. In these papers he has given formulae for computing the quantities oflight polaris¬ ed at all incidences, both by reflexion and transmission; and has explained all the phenomena of partial polarisation, and those produced by any number of successive reflexions and transmissions. In the last of these three papers our author shews that the quantity of polarised light in the light reflected and transmitted by a transparent plate is not equal at all angles of incidence, and that the proposition is true when applied to surfaces alone, the apparent equality in the first case being produced by unexcluded light polar¬ ised perpendicular to the plane of reflexion. We have already seen that Malus, Biot, and Sir David Brewster had been baffled in their attempts to unravel the complex phefiomena of metallic polarisation. The last of these authors had at various times resumed the investiga¬ tion ; but it was not till February 1830, that he communi¬ cated the result to the Royal Society, in a paper entitled, on the phenomena and laws of elliptic polarisation, as exhi¬ bited in the action of metals upon light.1'3 All the pheno¬ mena of metallic polarisation are shewn to be those of ellip¬ tical polarisation, connecting the phenomena of circularly polarised light with those of plane polarised light, the action of silver approaching nearest to that of totally reflecting surfaces by which circular polarisation is produced, and that of galcena to transparent bodies or those not metallic, by which plane polarisation is produced. The colours accompanying these phenomena have no relation to those of crystallised plates, and in the case of silver and gold are extremely beautiful and splendid. Hitherto the analysis of solar light by Sir Isaac Newton had been regarded as complete, and incapable of any far¬ ther development. From this analysis he himself deduced the conclusion, that to the same degree ofrefrangibility ever belonged the same colour, and to the same colour ever be¬ longed the same degree ofrefrangibility. So early as 1822, in a paper, on the monochromatic lamp, &c., 14 Sir David Brewster shewed that some of the colours of the spectrum 8 Id. p. 301, or Edin. Jour, of Science, vol. ii. p. 46. 9 Id. 1830, p. 87, or Edin. Jour, of Science, vol. iii. p. 28. 19 Id. 1830, p. 69, or Edin. Jour, of Science, IS'. S., vol. iii, p. 160. 11 Id. Id. p. 135, or Id. Id v. 2\8. 12 Id. Id. p. 143, or Id. Id. p. 230. 13 Id Id. p. 287, cr Id. Id. No. 5, vo). iv- p. 136, 247. 14 Edin. Trans, vol. ix. p. 433. 370 OPTICS. History, were compound, capable of being analysed by absorbing media, and that different colours had the same refrangibi- Hty. This result stood in direct opposition to the Newton¬ ian doctrine, and our author, in order to support it, under¬ took an elaborate series of experiments the results of which were communicated to the Royal Society of Edinburgh in 1831, in a paper entitled, on a neiv analysis of solar light, indicating three primary colours forming coincident spectra of equal lengths.1 In these three overlapping spectra the intensity of each colour is a maximum at that point where the same colour is most intense in the compound spectrum. Hence it follows that all the colours in the solar spectrum are compound, consisting of red, yellow, and blue light in different proportions, so that if at any point we separate as many rays of each colour as is necessary to produce white light, by absorbing the excess at that point, we should ex¬ hibit the strange phenomenon of white light incapable of being decomposed by the prism. This has actually been done by Sir David Brewster, by means of absorbing media. But in a very recent communication made to the Royal Society, (in June 1837), he has explained a new method of effect¬ ing this by perfectly transparent media, which he calls ana¬ lysis by dissection, and of wdiich we shall give some account in another part of this article. This paper was followed, in 1833, by another, on the colours of natural bodies,2 in which our author shewrs that they have not the same composition as those of thin plates, and demonstrates the truth ol this opinion by a special analysis ot the green colour of plants, the most prevalent tint in nature, and the one which New¬ ton had pronounced to be of the third order. In the same year our author published his Observations on the Lines of the Solar Spectrum, and on those produced by the earth's at¬ mosphere, and by theaclion cf nitrous acid gas,3 but wre must reserve our notice of this paper till we come to describe the discoveries of Fraunhofer. Hr. See- The late Dr. Thomas John Seebeck of Nuremberg, was beck. an active and successful cultivator of the science of Optics. Born 1770 jjis first expexnments on this subject were published in D.ed 1831-gcilweigger’s Journal for April 1813 and December 1814. In 1811 M.Arago observed the polarising structure in thick pieces of flint, and in 1812 Sir David Brewster had noticed the same property in some pieces of plate glass.4 In Dr. Seebeck’s paper of 1813, he observed the regular figure produced by polarised light, when the glass had the regular form of cubes and cylinders. In cubes of an inch in dia¬ meter, he found them to be indistinct, and not produced by fluor spar or rock salt. In his second paper of December 1814, he shews that a plate of glass made red hot, and set upon its edges to cool, exhibits at the part which cools first a series of coloured fringes, which spread over the whole plate, the structure which produces them remaining perma¬ nently fixed in the glass. These experiments are posterior to those made in Scotland on the effects of heat upon glass, and on the polarising structure of glass cooled in wrater. Early in 1816, Dr. Seebeck discovered the property of certain essential oils in producing the polarised tints, the pro¬ perty of single refraction possessed by tourmaline, and the sys¬ tem of coloured rings produced by Iceland spar; but in these discoveries he was anticipated, as we have seen, by others, though he is entitled to all the merit of a second discoverer. In 1809 Dr. Seebeck communicated to the Academy of Sciences at Berlin, an interesting memoir on the unequal production of heat in the prismatic spectrum,b in which he shewed that the place of maximum heat varied with the sub¬ stance of which the prism was made, being in the yellow rays in the spectra formed by water, (and according to Wunsch, in alcohol and oil of turpentine); in the orange in concentrated Hi sulphuric acid, and solution of sal ammoniac and corrosive^ sublimate ; in the middle of the red in crown and plate glass, and beyond the red in flint glass. Dr. Turner6 ascrib¬ ed these results to the different powers of these media to refract the rays of solar heat; but Sir David Brewster ex¬ plained them by supposing that colourless transparent bodies exercise the same variety of absorptive action upon heat tliat coloured bodies do upon light, the body in the last case becoming coloured in consequence of that action. Hence the maximum ordinate of heat will shift its position with the nature of the body, and we shall no doubt find media, several maxima and minima, and points of no heat at all, according as we increase the size of the prism or the thick¬ ness which the heat traverses.7 The best way to carry such researches is to use a prism of glass whose curve of heat is well ascertained, and then to determine the changes which take place in the curve by interposing thick plates of trans¬ parent solids and fluids. This eminent philosopher would have done still more for the science of optics, had he not been attracted to the study of thermo-electricity, in the creation and extension of which he has immortalised his name. We are indebted to Dr. A. Seebeck for a series of instructive Dr. and accurate experiments on the polarising angle of different Seen substances, which confirm the accuracy of the law of the tangents,8 and another on the polarising angle of calcareous spar in different azimuths. We come now to that a uspicious period in the history of presJ optics, when this science was destined to receive the grand- Dorm est accessions from the genius of M. A. Fresnel, engineer Diet of roads and bridges. What Newton did for astronomy, Fresnel did for physical optics; and all Europe will, we are persuaded, confirm the decision which places him pre-emi¬ nently above all the other cultivators of this branch of science. The discoveries of Fresnel, however, are so connected with theoretical considerations, that it is impossible, in a histori¬ cal sketch, to give any thing like an idea of their magnitude and importance. The phenomena of rotatory polarisation in quartz, which had so much perplexed philosophers, have been completely explained by Fresnel. He found that they arise from the interference of two circularly polarised pencils, propagated with different velocities along the axis of quartz, the one revolving from right to left, and the other from left to right, and that a plane polarised ray is equivalent to two circularly polarised rays of half the intensity. These facts he verified experimentally, by an achromatic combination of right and left-handed prisms of quartz, so disposed as to double the refraction of the images. M. Fresnel had also found that light was circularly po¬ larised by two total reflexions from glass at an angle ot about 54° 37', and by placing between two rhombs of glass, each of which polarised the light circularly and had their planes of reflexion at right angles to each other, a crystal¬ lised plate, he observed the light transmitted through this system exhibited phenomena analogous to those seen along the axis of rock crystal. The rhomb of glass so cut, that when the incident rays enter and leave it perpendicularly, they have suffered two reflexions at an angle of 54° 37 , is well known by the name of Fresnel’s rhomb. . Fresnel’s theory of double refraction and polarisation, one of the finest efforts of genius, conducted its author to many important results which had escaped the no ice of the most diligent observers. Hitherto it had been ta en for granted by all, and appeared to be proved by Biots c:'‘ periments on topaz, that in biaxal crystals one of the ra^ f 1 1 Edin. Trans, vol. xii. p. 123, or Edin- Journal of Science, new series, vol. v. p. 197. 2 Id. Id. 3 Id Id. 4 Treatise on New Phil. Inst-; p. 335. 5 Berlin Memoirs, 1818-1819, p. 305, or Edin. Jour, of Science, vol. i. p. 358, No. 2, Oct. 1824. 6 Chemistri/, 3d edit, p 84 _ . r Second Report of the British Association, 1832, p. -94. 8 Edin. Jour, of Sco nce, N. S. vol. v. p. 99. OPTICS. -,ry. followed the ordinary law of the sines ; but it followed ^from Fresnel’s theory that it did not, and by a series of the nicest and most difficult experiments he determined, that neither of the two rays have a constant velocity, both being performed according to a new law. What had been called the extraordinary ray, he found by his theory to be regu¬ lated by the law discovered by Sir David Brewster, and simplified in its mathematical expression by M. Biot, and he shewed that all the phenomena of double refraction could be accurately calculated. The axes of elasticity in Fresnel’s theory are the same as the axes of double refraction in Sir David Brewster’s, and the laws of the composition and re¬ solution of such axes in uniaxal, biaxal, and tessular crystals, which have no double refraction previously given by the latter, are all necessary results of the same theory. But the most remarkable part of Fresnel’s theory is his explanation of the polarisation of light. The hypothesis of transversal vibrations first presented itself to Dr. Young while considering the law of extraordinary refraction in biaxal crystals, as communicated to him by Sir David Brewster. M. Fresnel, however, shewed that it was a ne¬ cessary consequence of the laws of interference, and that the vibrations of a polarised ray are on the surface of the wave, and perpendicular to the plane of polarisation. In un¬ polarised light they are also only on the surface of the wave, and this species of light is conceived to l£ consist of a rapid succession of systems of waves polarised in every possible plane, passing through the normal to the front of the wave.” Hence light is polarised by resolving the vibrations into two sets in two rectangular directions.1 We have already slightly noticed the fine discoveries of MM. Arago and Fresnel on the interference of polarised light, and we can now only refer with admiration to the beautiful series of experiments by which the phenomena of moveable polarisation were properly explained, and brought under the dominion of the undulatory theory. When a polarised ray proceeding from a luminous point was trans¬ mitted through two rhomboids of Iceland spar of equal thickness, whose principal sections were inclined 45° to the plane of primitive polarisation, the emergent light will di¬ verge as if from two near points, and the two portions will be oppositely polarised. MM. Arago and Fresnel found that the light formed by the union of these pencils was plane, circularly, or elliptically polarised, according to the difference of the paths traversed when they met. Following out this principle, MM. Arago and Fresnel were led to an experi- mentum crucis, to determine the accuracy of the theory of moveable polarisation. A homogeneous ray of polarised fight was transmitted through a plate of sulphate of lime, having its principal section inclined 45° to the plane of pri¬ mitive polarisation, and of such a thickness that it should be circularly polarised according to the undulatory theory, and plane polarised according to the other; and the result was decisive against the theory of moveable polarisation. 6 a^S0 ^ -Fresnel the true theory of the inflex¬ ion or diffraction of light. The Institute of France made i® the subject of their physical prize for 1818, and the memoir of our author was the successful one. He had at mst adopted and extended the theory of Dr. Young, that me fringes arise from the interference of the direct and in- ected light; but he was afterwards obliged to admit, that } s passing at a sensible distance from the reflecting body, tlilm6 °!n1their primitive direction, and interfere with n , irect„ This interesting effect he ascribes to a or of elementary waves sent from each portion of the 371 surface of the principal wave when it reaches the reflecting History, body, and he determines the resultant of all the elemen- tary waves sent by these portions to a given point. Upon applying this theory to various cases of inflexion, he found it to agree so well with observation, that, with the exception of the case of diffraction by narrow apertures, the theory did not err more than the 2500th part of an inch. Among the many important discoveries of Fresnel we must enumerate the theory of the reflexion of light. Dr. Young had shewn on the undulatory theory, that at a per¬ pendicular incidence the intensity of the reflected light was a very simple function of the index of refraction.2 ^M. Poisson had arrived by another process at the same result, without knowing, we believe, what had been done by Dr. Young ;3 * and he afterwards extended his inquiries to dif¬ ferent incidences.4 The conclusions, however, at which this distinguished mathematician arrived, were inconsistent with observation ; and Fresnel had the good fortune to give a complete solution of the problem, by combining the doc¬ trine of transversal vibrations with the theory of waves. He assumes, that the elasticity of the ether in the twro media are equal, but their density different, though he also solved the problem on the more general assumption, that the elas¬ ticity was different in the twyo media. He thus obtained formulae for all incidences and all refractive powers, and the law of the tangents, as well as that of the equality of pen¬ cils, polarised by reflexion and transmission, became the con¬ sequences of these formulae. At a perpendicular incidence the formula coincides with that of Young and Poisson, and at 90° the whole light is reflected, a result which has been verified by observation.5 Contemporary with the discoveries of Fresnel were those Fraunhofer of the late M. Fraunhofer of Munich, who made several im- Born 1787. portant observations on the solar spectrum, on the diffraction Died 182<). ot light, on refractive and dispersive pow ers, and on the re- fiangibility of the light of the fixed stars. By using fine prisms entirely free of veins, he discovered that the solar spectrum was crossed by about 590 black lines, and he ex¬ ecuted a beautiful drawing of the spectrum, in which the most important ot these are projected. Fraunhofer was not aware that Dr.Wollaston had previously discovered seven of these lines ; but this slight anticipation does not in the least degree diminish the singularity of this splendid discovery. He discovered similar lines in electric light, and in the spectra of the Moon, Venus, Mars, Castor, Pol¬ lux, Sirius, Capella, Betalgeus, and Procyon ;6 but none whatever in artificial white flames. These lines he found to have a fixed position in relation to the coloured spaces, and, by measuring accurately the distance of prominent lines in the different coloured spaces, he obtained measures of the refractive and dispersive powders of bodies with a de¬ gree of accuracy hitherto unknown. Fraunhofer consider¬ ed these lines as having their origin in the nature of the sun s light; but Sir David Brewster, who by particular methods has discovered more than twice the number of lines reckoned by Fraunhofer, has established the curious fact, that many ot them are produced also by the action of the earth s atmosphere. In his researches on this subject Sir David Brewster discovered the remarkable property pos¬ sessed by nitrous gas of producing analogous lines in great numbers, increasing in width with the thickness of the gas, or with an augmentation of its temperature. “ The power of heat alone,” says this author, “ to render a gas, which is almost colourless, as red as blood, without decomposing it, is in itself a most singular result; and my surprise was greatly 2 Spp ^ ^°C' Pbilomathique, 1824, and Mem. de l'Institute, tom. xvii. 4 Id torn ^1C 6 ^HR0MATICS> written by Dr. Young, vol. vi. p. 650. 3 Mem de lInst. tom. ii. Edin. Jnvrnnl c< • -vr 5 See Ann. de Chim-, 1821. five lines in their sfipnir. Ce’- ‘k xv’ P* 1’ .^ir David Brewster asserts, that all the coloured stars derive their colours from defec- tneir spectra, having found these lines in those most strongly coloured. History, increased, when I afterwards succeeded in rendering the ■^'“Y'^same pale nitrous acid gas so absolutely black by heat, that not a ray of the brightest summer sun was capable of pene¬ trating it.”1 Professors Miller and Daniel afterwards dis¬ covered numerous fixed lines disposed at equal distances, in the vapour of bromine and iodine, and Sir David Brew¬ ster has very recently discovered hundreds of lines under very singular circumstances, in the spectrum of an artifi¬ cial substance, resembling mother-of-pearl ;2 but what is most interesting, these lines are moveable, shifting their place in the spectrum by varying the incidence, and are pro¬ duced by the periodical action of thin plates enclosed in the substance. He has also discovered, that broad dark bands like those produced by absorbing media, but entirely dif¬ ferent from the nearly equidistant bands formed by single thin plates, are produced by a number of thin plates in a state of combination.3 * Considering the lines of the spectrum as produced by in¬ terference, Fraunhofer was induced to make a complete series of experiments on the inflexion of light, particularly on the splendid colours produced by gratings of wires, and grooved surfaces, which were published in the year 1822, in the Memoirs of the Royal Bavarian Academy of Sci¬ ences.^ He afterwards repeated these experiments with a finer apparatus, and communicated an account of them to the Academy of Sciences at Munich, on the 14th June 1823.5 The science of optics owes also to Fraunhofer the art of making the finest glass for achromatic telescopes and prisms, and such was the perfection at which he arrived, that, in a letter to the author of this article, he expresses his willingness to undertake an achromatic object glass teen inches in diameter. Our author wrote also a treatise on halos, parhelia, &c., in which he ascribes the small solar and lunar halos to the inflexion of light, by particles of vapour in the atmosphere, and the great halos of 45° to the refrac¬ tion of hexagonal prisms of ice.6 7 Sir John Among the most distinguished contributors to optical dis- Herschel. covery, Sir John Herschel occupies a high place. The deviations of the polarised tints from the colours of thin plates, or those of Newton’s scale, had been discovered by Sir David Brewster in acetate of lead, tartrate of potash and soda, apophyllite, topaz, and various other minerals. He had divided these crystals into two classes, viz. those that had the red ends of the rings inwards, and the blue ends outwards ; and those that had the blue ends of the rings inwards, and the red ends outwards? In his paper of 1818, he states, that “ in almost all crystals with two axes, the tints in the neighbourhood of the resultant axes, when the plate has a considerable thickness, lose their resemblance to those of Newton’s scale, as will be more minutely described in another paper.” Conceiving that these deviated tints arose from the superposition of systems of rings of different colours, Sir John Herschel examined the coloured rings by homogeneous light, and established the important fact that the inclination of the resultant axes varied in the different colours of the spectrum, the poles or centres of the rings approaching to each other in red, and receding in violet light, in some crystals ; while in others they receded from each other in red, and approached in violet light. In tar¬ trate of potash and soda, for example, the inclination of the axes was 75° 42' in red, and only 55° 14' in violet light.8 These various axes all lie in the same plane, excepting in borax. In the paper containing this discovery, and in other two,9 communicated to the Cambridge Philosophical Society, His he has described various interesting phenomena which he^ j discovered in different specimens of apophyllite and in hy- posulphate of lime,10 and which led him to some interesting conclusions respecting the law of proportional action of these crystals on the different colours of the spectrum. We have already seen that the force which produces cir¬ cular polarisation had been deemed a property of the ulti¬ mate particles of bodies, and totally unconnected with their mode of aggregation. In 1820 Sir John Herschel made the beautiful discovery, that the direction of the circular polar¬ isation in quartz was invariably the same with that of the plagiedral planes round the summit, the direction of the polarisation being retrograde or direct, according as these planes leant forward or backward round this summit. We owe also to Sir John Herschel an interesting inquiry into the aberrations of compound lenses and object-glasses,n a series of curious experiments on the phenomena produced by diaphragens or apertures of various shapes, variously ap¬ plied to mirrors and object-glasses,12 and a great number of original views and valuable experiments, which are con¬ tained in his Treatise on Light, one of the most valuable and original works on science which has appeared during the last century. M. Fresnel was, we believe, the first person who ob-M.Jil served the change produced by heat on the tints of sulphatecherk of lime. It is to M. Mitscherlich, however, that we owe the most complete investigation of this subject. He found that heat expands crystals differently in different directions. Iceland spar is expanded by it in the direction of its axis, while it is in a slight degree contracted in directions per¬ pendicular to the axis. The rhomb thus approaches to the cube, and the double refraction is diminished, hi. Mitscher¬ lich also found that the inclination of the optical or result¬ ant axes, which is about 60°, diminishes with heat till they actually form one axis, when by a farther increase of heat they again separate, and open out, as it were, in a plane at right angles to that of the laminae. We have repeated this experiment, and enjoyed the remarkable sight of observing the one system of rings marching towards the other in the plane of "the laminae, and changing their form and size as they advanced.13 An analogous, and even a more remark¬ able property, was discovered by Sir David Brewster in glauberite. At the freezing point glauberite has two optical axes for all the colours of the spectrum, the inclination of the axes being greatest in red, and least in violet light. When heat is applied, the two axes approach, and those of different colours unite successively, the crystal possessing the remarkable property of being a umaxal one for red, and a biaxal one for violet light. By increasing the temperature, the optical axes open out in the same order, but in a plane at right angles to that in which they formerly lay, and long before the temperature has reached that of boiling water the planes of the axes in all the prismatic colours are per¬ pendicular to their first position.14 Such a crystal would form a delicate chromatic thermometer.15 M. Marx has dis¬ covered an analogous property in topaz, in which the two axes separate with heat, the variation being greater m the coloured than in the colourless varieties.16 Sir David Brews¬ ter has discovered that regular double refraction is produced in some soft substances by the application of heat. Some very excellent and interesting results have bee obtained by M. Rudberg, on the effect of heat upon doublyb - 1 Edin. Trans, vol. xii. 2 Phil Trans. 1837. 3 hi Id. * Vol. viii. 1822. 5 Edin. Journal of Science, No- xiii p. 101, 251. 6 See Phil. Trans. 1814, p. 204, 205, and 1820, p. 95. 7 Edin Jour, of Science, No. xii. p. 348. 8 Phil Trans. 1820, p. 45. 2 Cambridge Trans, vols. i. and ii. 10 Sir John discovered similar deviations in vesuvian or idocrase. — Treatise on Light, art. 1125. 71 Phil Trans. 1821, p. 222. 12 Treatise on Lijit, § 767, 768, Jkc. _ is Land, and Edin. Phil. Mag. 3d series, vol. i- p- 4l/' ,, 14 Edin. Trans, vol. xi. p. 273, and Land, and Edin. Phi - . o 3d series, vol. i. p. 417. J5 Phil. Trans. 1818, p. 108. 16 Jahrbuch der Chimie, vol. ix. OPTICS. m. m- jji y. refracting crystals. He found that the extraordinary ray ^ Win calcareous spar (the line F was used) had its deviation increased 2' 34", as the refractive index increased 0-00043, by a rise of temperature equal to 64°, the refracting angle of the prism being 59° 55' 9", whereas the refractive power for the ordinary ray either does not change at all, or de¬ creases with the temperature by a quantity extremely small. In rock crystal he found the deviation to be 42", or 0-00027, both on the ordinary and extraordinary ray, the angle of the prism being 45° 20' 5". In arragonite he found that the double refraction decreased a little with the temperature.1 We owe also to M. Rudberg a series of valuable experi¬ ments on the refractive actions of the differently coloured rays in crystals with one and two axes of double refraction. His measures were taken in reference to the fixed lines in the spectrum, and the minerals he employed were rock crys¬ tal, calcareous spar, arragonite, and colourless topaz. He confirmed the existence of two dispersive powers in doubly refracting crystals, announced long before by Sir David Brewster; and the variation of the inclination of the optic axes with the different colours of the spectrum, which had also been previously discovered by Sir John Herschel.2 * M. Rudberg was no doubt unacquainted with the previous la¬ bours of these authors, otherwise he would not have passed them over without notice. Like every other branch of physical science, optics owes much to the profound researches of M. Poisson, which are in Bom j3l. general of too recondite a nature to find a place in a popular treatise. The theory of the colours of thin plates was left incomplete by Dr. Young. The two interfering portions from the upper and under surface of the plate were obviously unequal, and therefore could not destroy one another wholly by interference, as they are found to do. M. Poisson re¬ medied this defect by shewing that there must be an infinite number of partial reflexions within the plate, at each of which a very small portion of light was reflected, so that the sum of all these portions of light makes up for the defect of one of the pencils, and makes the interfering pencils equal. Hence M. Poisson has shewn that at a perpendicular incidence, and at points where the effective thickness of the plate is an exact multiple of the length of half an undulation, the in¬ tensity of the reflected and transmitted light will be the same as if the plate were suppressed altogether, and' the bounding media in absolute contact, so that when these me¬ dia have the same refractive power, no light will be reflected and the whole transmitted. By the aid of the property dis¬ covered by M. Arago, that the light is reflected in the same proportion at the first and second surfaces of a plate, M. riesnel extended M. Poisson’s conclusions to all incidences. In treating of the subject of diffraction, M. Poisson was led to the curious result that the centre of the shadow of a small opaque circular disc, exposed to light diverging from a single point, is as much illuminated by the diffracted light as it would be by the direct light, if the opaque disc were removed. By cementing a small metallic disc upon a plate ot Pure and homogeneous glass, M. Arago verified this re¬ markable deduction of theory. M. Poisson’s researches on the propagation of motion in e astic fluids, and their application to light, are too profound o admit of a brief and intelligible analysis. rea(^ to t^ie Academy of Sciences in >• p p ’ M. Ampere has made a valuable addition to the theory M pesne ' ^7 an indirect and not very rigorous process, ’ lla^ been led to the equation of the w ave sur- it^H a • ^mPere obtained a direct demonstration of ’ e. UC1"F ^le ecluation in the manner which Fresnel had re y ln(Lcated, and he derived from this equation the ele- 37 fin per lorn 1 gant geometrical construction obtained indirectly by Fres- History. The undulatory theory of light has been greatly advanced M. Cauchy, bj the researches of M. Cauchy, a French mathematician of distinguished eminence. In determining the law of pro¬ pagation of a plane wave, he shews that a disturbance ori¬ ginally limited to a given plane will give rise to three pairs of plane waves with uniform velocities, and parallel to the original plane, the two waves of each pair moving in oppo¬ site directions, but w ith equal velocities. He shews that the separate pairs will move with velocities represented by the reciprocals of the axes of an ellipsoid, the form of which is regulated by the position of the plane wave, and the na¬ ture of the system, the absolute displacement of the mole¬ cules being parallel to the direction of these axes. Hence a system of plane w aves superposed at the point of original disturbance, will be divided into three corresponding sys¬ tems, and these will generate by their superposition a curved surface of three sheets, each sheet being touched by all the plane wraves of the system. If these principles are estab¬ lished, it will follow as a necessary consequence that a single ray c!f tight will be divided into three polarised rays, one of wdiich will in all cases have little intensity. M. Cauchy, as Professor Lloyd5 remarks, has not pointed out the method or discovering this ray, or stated the precise physical condi¬ tion on which its existence depends ; but it “ would seem to arise from the circumstance that the vibration normal to the wave is not absolutely insensible, so that the actual vibra¬ tions are not accurately in the plane of the wave.”6’ “The Triple re¬ results of M. Cauchy’s general theory,” continues Professor fractio*»- Lloyd, “embrace and confirm those of Fresnel; and the ma¬ thematical laws of the propagation of light are shewn to be particular cases of the more general laws of the propagation of vibratory motion in any elastic medium composed of at¬ tracting and repelling molecules. Considered, however, simply with reference to the theory of light, the solution given by M. Cauchy cannot, I conceive, be considered as a complete physical solution. In other w ords, the phenome¬ na of light are not connected directly with any given physi- cal hypothesis; but are shewn to be comprehended in the results of the general theory, in virtue ot certain assumed relations among the constants which that theory involves. If, indeed, we were able to assign the precise physical mean¬ ing of these equations of condition, we should have nothing more to desire in the general theory of light; for these equa¬ tions must necessarily express the characteristic properties of the vibrating medium. In this point of view, their dis¬ cussion becomes a subject of the highest interest; and it is probable that the important conclusions of which we have yet to speak, may in this manner be confirmed and ex¬ tended.” Before quitting this subject, however, we ought to men¬ tion that there is an essential difference between the theories of Fresnel and Cauchy. In the former a ray is said to be polarised in or parallel to any plane, when the vibrations of the molecules of ether are perpendicular to that line or plane; whereas, in Cauchy’s theory, a ray is said to be po¬ larised in or parallel to any plane, when the vibrations of the ether are performed in a parallel to that plane. The inability of the undulatory theory to explain the dis- Dispeisbn persion of light,was long one of the few exceptions to its uni- of light, versal application. Dr. \ oung supposed that the material par¬ ticles of bodies are incapable of permanent vibrations; that these vibrations will retard those of the ether; and that this retardation will be proportional to their frequency. The Rev. Mr. Challis, adopting Dr. Young’s idea, has endea¬ voured to explain the manner in which the undulations of 1 Lond. and Edin. Phil. Mag. vol. i. p. 409. 3 Id‘ Id- vol. i- p. I, 89, 136, 146. ■dnn. de Chemie, tom. xxxix. 4 British Association, 4th report, p. 391. 5 British Association, 4th report, p. 391, 2. 6 See p.375, (note). 374 OPTICS. History- Mr. Airy the ether within bodies are modified by their material atoms. He supposes that a sensible reflexion takes place at every interruption of continuity in the medium ; and he infers that the mean effect produced by a retarding cause propor¬ tional to the reflective power of the atoms, will be to make the condensation corresponding to a given velocity greater in a certain proportion than in free space, and to diminish the velocity of propagation in the same proportion. Mr. Airy has more recently endeavoured to remove this diffi¬ culty, by supposing that in refracting media there may. be something depending on time which alters their elasticity, in the same manner as in air the elasticity is greater with a quick than with a slow vibration of particles. An anonymous writer in a very recent number oi 1 he Philosophical Magazine,has proposed another hypothesis for obtaining a difference of elasticity. He supposes that the ether accumulates itself round the particles of tiansparent media, and forms spheres of a density increasing towards their centres; and he infers that a succession of vibrations communicated through a medium thus constituted will give rise to new vibrations propagated with various velocities corresponding to those of the different rays in the spectium. The complete removal of this difficulty iiom tne undula- tory theory has been effected by the skill or M. Cauchy. Regarding tire sphere of action of the ethereal molecules as indefinitely small, in comparison with the length of an un¬ dulation, it had been inferred that the velocity of the undu¬ lations must be constant in the same medium; but this restriction being removed as a groundless one, M. Cauchy has considered the problem in a more general manner, and has arrived at the result, that there exists a general relation between the length of the undulations and the velocity with which they are propagated, or the index of refraction; and consequently that rays of different colours will have different degrees of refrangibility. This relation is express¬ ed by an equation involving two arbitrary constants, de¬ pending on the nature of the medium, and determinable by two values of the index of refraction for two waves of a known length. The refractive index for waves of other lengths may then be computed. Professor Powell has done this for several media,1 whose refractive indices lor the fixed lines in the spectrum have been determined by Fraunhofer, Rudberg, and himself; but though there is a general coinci¬ dence with the theory, the difterences are in some cases rather inauspicious. M. Cauchy has more recently deduced from his general theory the remarkable fact, that in a particular case of re¬ flexion the reflected pencil exceeds the incident one in in¬ tensity, a result which has been confirmed by direct expe¬ riment. In examining the two rays produced by the double re¬ fraction of quartz, Mr. Airy was led to a discovery which we consider as one of the most important in its results, and one of the most beautiful in its phenomena, that has yet been made in this branch of optics. The circular polarisa¬ tion of the two rays along the axis of quartz had been studied by different philosophers, and had been explained by Fres¬ nel with singular ingenuity, on the principles of the undu- latory theory. No attempt, however, had been made to account for the existence of this property only in the rays which pass near the axis of the crystal, or to define the limit where the circular polarisation ended, and the plane polar¬ isation commenced. Fresnel, and all who have written on the subject, seem to have shrunk from this difficulty; but Mr. Airy thought that the two kinds of polarisation must have some connecting link, and by the aid of theor-1 and experiment he succeeded in discovering it. In place of the two rays in quartz consisting of plane polarised light, as was 1 Phil. Trans. 1835-37. 2 Cambridge Trans. 1832. 3 Treatise on the Microscope, p.19. universally believed, Mr. Airy has shewn that they both Hist* consist of elliptically polarised light, the greater axis of the ,, ellipse for the one ray being in the principal plane of the crystal, and the greater axis of the other perpendicular to that plane. One of the rays he found to be right-handed elliptically polarised, and the other left-handed elliptically polarised. The proportion of the axes of the ordinary ray is more nearly one of equality than the proportion of the axes of the extraordinary ray, each proportion being one of equality when the direction of the ray coincides with the axis, and becoming more unequal with the inclination, ac¬ cording to a law not yet discovered. The results calculated from the theory are in perfect accordance with those which Mr. Airy has obtained from very nice and difficult experi¬ ments ; so that we may regard this beautiful and singular property of the two rays of quartz as perfectly established. Without knowing of the beautiful experiments of M. Arago, already referred to, Mr. Airy was led to make the same experiment on the coloured rings formed between a lens and a metallic reflector, and to draw the same conclusion from it in favour of the undulatory theory. From a consi¬ deration of the formulae of Fresnel, Mr. Airy was led to expect that if the rings were formed between two substances of different refractive powers, such as plate glass and dia¬ mond, the light being polarised perpendicular to the plane of incidence, they should have a black centre at incidences less than the polarising angle of the glass, and greater than the polarising angle of the diamond; wdiile they should have a white centre at all intermediate angles. These anticipa¬ tions Mr. Airy confirmed by experiment; and in the course of his observations he observed certain peculiarities in the phenomena, from which he has drawn the following conclu¬ sions, viz. _ . 1. When the angle of incidence is less than the maximum polarising angle of the diamond, the nature of its reflexion is similar to that of metallic reflexion ; the phase of vibra¬ tion in the plane of reflexion being more retarded than that of vibrations perpendicular to the plane of reflexion, but perhaps by a smaller quantity than in reflexion from metals. 2. In the neighbourhood of the polarising angle, the na¬ ture of the reflexion is different from any that has hitherto been described. The vibrations in the plane of reflexion do not vanish, but on increasing the angle of incidence by three or four degrees, the phase of vibration is gradually retarded by about 180°. In the reflexion of light whose vibrations are perpendicular to the plane of reflexion, there is no striking difference between the effects of diamond and those of glass. , 3. For angles of incidence greater than the polarising angle, there is no sensible difference between the effects o diamond and those of glass.2 ,, It would be desirable to ascertain if the diamond used by Professor Airy consisted of strata of different reflective and refractive powers, a structure lately discovered in some spe¬ cimens by Sir David Brewster ;3 or if it was a heterogeneous crystal, containing particles of different degrees of density and double refraction, a structure very common in this gem. Hitherto the mathematical theory of light owed almos^ all its development to the distinguished members of the in¬ stitute of France—to Malus, Arago, Fresnel, Poisson, Am¬ pere, and Cauchy; but it was now destined to receive powerful impetus from those eminent members ot 1 y College, Dublin, who have nobly sustained the j10”0^ their country by their genius and discoveries, in 111 say on the Theory of Systems of Rays, Sir Wdham &rW ton has given an elegant analytical form to tha p ,, , theory of Fresnel which relates to the determination velocity and polarisation of a plane wrave ; and he ( ^ 4 See the Art. Microscope, vol. xv. p. 30, and Edin, Trans, vol via. p. 157. Profc Lloyi V. duced the velocity and direction of the ray from that of the "'•''wave, and consequently the form of the wave surface.1 In these researches Sir W. Hamilton was conducted to the dis¬ covery of some new geometrical properties of the wave sur¬ face. He found that this surface has four conoidal cusps at the extremities of the resultant or optical axes, at each of which the wave is touched by an infinite number of tangent planes, forming a tangent cone of the second degree, while at the extremities of the lines of single wave velocity, there are four circles of plane contact, in every part of each of which the wave surface is touched by a single plane. These cusps and circles, the existence of which does not seem to have been suspected by Fresnel, have led Sir W. Hamilton to some remarkable theoretical conclusions respecting the laws of refraction in biaxal crystals. To this new pro¬ perty he has given the name of conical refraction, because a single ray is refracted into an infinite number, forming a kind of cone. Ihis conical refraction is of two kinds, external and internal. In external conical refraction, one internal cusp ray corresponds to an external cone of rays; and in internal conical refraction, an external ray incident at an angle corresponding to the line of single wave velocity within, is connected with an internal cone of rays.2 ,r Sir W- Hamilton requested Professor Lloyd, of Trinity College, Dublin, to inquire experimentally into the exist¬ ence of these two kinds of conical refraction. For this pur¬ pose he selected arragonite, a crystal of great biaxal energy, and having its optic axes inclined about 20°. It was cut with parallel faces perpendicular to the line bisecting the two optic axes. Upon looking at the light of a distantlamp through the crystal, and m the direction of one of the opti¬ cal axes, Professor Lloyd saw a point more luminous than the space immediately about it, and surrounded by some¬ thing resembling a stellar radiation. Hence the direction of the optical axes may be determined by this modification of common light. When the adjustment was perfected, and the light transmitted in the exact direction of the cusp ray, there appeared at first a luminous circle, with a small dark space in the centre, and in this dark central space were two bright points, separated by a narrow and well-defined dark hne. these appearances rapidly changed in shifting the minute aperture next the eye. On examining the emer¬ gent cone with a plate of tourmaline, Professor Lloyd was surprised to observe that only one radius of the circular sec- ion vanished in a given position of the tourmaline, and that he vanished ray ranged through 360°, while the tourma- me was turned through 180°. Hence it follows that all ie rays of the cone are polarised in different planes. On a more attentive examination of this phenomenon, Professor f»Z rco,verei1 ‘fe gmarkable law, « that the angles be- k i„if! p anf °f polarisation of any two rays of the cone he angles between the plane containing the rays fectTr Zl a,Kl th\axLs” Ire found tobe in pei! tect accordance with the theory. 1 PrrfeZff Zc" second kind of conical refraction otessor Lloyd found to be more difficult. The angle of the crvshfwf WhlCh thrry indicated> s^uld be seen within the refracted! & SmSle. e5fe™al ray corresponding with a ray exterm] nS an optical axis, was 1 °55/ inarragonite. The c£e wm ^ d,iVld!d int° tW°’ butwhen critical in- Professor T lrwT?f 11a^ter much care in the adjustment, tinuous Hr 1yC ifaSti-SaW the two ra>7S sPread into a con- SCrtfeZ6 ^ aPparentl>' o P T I C S. I his phenomenon was exceedingly striking. It looked hke a small ring of gold viewed upon a dark ground; and’ the sudden and almost magical change of the appearance lorn two luminous points to a perfect luminous ring, con- tnbuted not a little to enhance the interest. tn light’in this exPeriment, being too faint lith tl >d i T a S3Creen’ 1 rePeated the experiment with the suns light, and received the emergent cylinder upon a small piece of silver paper. I could detect no sen- siWe difference in the magnitude of the circular sections at uitterent distances from the crystal. “ When the adjustment was perfect, the light of the entire annulus was white, and of equal intensity throughout. But when there was a very slight deviation from the exact posi¬ tion, two opposite quadrants of the circle appeared more faint than the other two, and the two pairs were of comple¬ mentary colours. The light of the circle was polarised, according to the law which I had before observed in the other case of conical refraction. In this instance, however the law was anticipated from theory by Professor Hamilton.” In addition to these interesting results, Professor Lloyd has published an account of a new case of interference, in which the experimental exhibition of the fact is much more manageable than in the experiment of two slightly inclined mirrors given by Fresnel. Professor Lloyd causes the light reflected at an angle of 90° from the surface of a single piece of plate glass or a metallic reflector, to interfere with ic c nect ight that passes parallel to the reflecting surface and near it. A screen placed on the other side of the mir¬ ror receives the direct and the reflected pencils, which, meeting under a small angle, after having traversed paths differing by a small amount, interfere. Professor Lloyd also received the two pencils upon an eye-piece placed at a short distance from the reflector, and saw a very beauti¬ ful system of bands, in every respect similar to one half of the system formed by the two mirrors in Fresnel’s experi¬ ment. 1 Professor Lloyd has more recently, in 1836 and 1837 communicated to the Royal Irish Academy the results of his researches, On the propagation of light in uncrystallised media His object was to simplify and develope that part of M. Cauchy s theory, which relates to the propagation of light m an ethereal medium of uniform density, and to ex¬ tend the same theory to the case of the ether enclosed in uncrystailised substances, taking into account the action of the internal molecules. In the first part of his memoir, Professor Lloyd has given good reason for concluding that the theory in its present form is insufficient to explafn the phenomena of light in bodies, and that it becomes neces¬ sary to take into account the action of the material mole¬ cules. In doing this he limits himself to the comparatively simple case, m which the molecules of the ether and the body are uniformly diffused. In the expression for the velocity of propagation, each term consists of two parts, one of which is due to the action of the ether, and the other to that of the body. “ It is not improbable,” says Professor Lloyd, “ that there may be bodies for which the first or principal term is nearly nothing, the two parts of which it is composed being of opposite signs, and nearly equal. In tms case the principal part of the expression for the velo¬ city will be that derived from the second term ; and, if that term be taken as an approximate value, it will follow, that the refractive index of the substance must be in the sub¬ duplicate ratio of the length of the wave nearly. Now it is remarkable that this law of dispersion, so unlike any i 'pjjg _ ■ spherical iTa^ngfy employed to determine the direction and the velocity of reflected and refracted rays It is ST’ the sup%ysition Srre ra\Hn1rilSUf lCe n Z™ f tW° Rheet8 « *>»*>* Acting medium • and a Sace"of three ‘ d-cd- represent tVe SS of ^ *nd ^ 375 History- 4 r - erent directions c lms alvYays a centre roiI"d which it is symmetrical ; and the radii c Msfi Trans, vol. xvii „ laa 'P * tbe velocities of rap to which they are parallel—Maccullagh's Irish Trans- vol. xvii. 1 nil. Trans. 1830, p. 325, or Tdin. Journal of Science, N. S., No. viii-p 259. 1 OPTICS. History. Professor Maccul- lagh. thing observed in transparent media, agrees pretty closely with the results obtained by Sir David Brewster in some of the metals. In all these bodies the refractive index (inferr¬ ed from the angle of maximum polarization) increases with the length of the wave. Its value for the red, mean and blue rays, in silver, are 3’866, 3*271, 2,824, the ratios of the se¬ cond and third to the first, being *85 and -73. According to the law above given, these ratios should be *88 and’79. We are indebted also to Professor Lloyd for an admira¬ ble history Of the progress and present state of physical optics, published in the Fourth Report of the meeting of the British Association, held in Edinburgh ; a history not less characterised by its candour and truth, and absence of all na¬ tional partiality, than by the profound and accurate know¬ ledge of the subject which it everywhere displays. The only cultivator of physical optics to whom Professor Lloyd has done injustice is himself; and we are glad of the op¬ portunity which we here enjoy, of giving a brief and imper¬ fect account of his original and valuable researches. It is with no less pleasure that we proceed to give an account of the optical discoveries of another Irish philoso¬ pher, who, at an early period of life, has placed himself in a distinguished position both as a mathematician and a natural philosopher. We have already seen that M. Ampere gave a direct demonstration of Fresnel’s construction for finding the surface of the wave. His solution, however, was ex¬ tremely difficult and complicated. Mr. James Maccullagh was led in 1829 to believe, from the simplicity and elegance of the results, that there must be some simpler method of arriving at them, and, upon considering the subject with attention, he was led to a concise demonstration of the same theorem, and of some of the other leading points of Fres¬ nel’s theory. He has demonstrated a geometrical construc¬ tion for finding the magnitude and direction of the elastic force arising from a displacement in any direction, and by his construction, with the aid of a few lemmas, he is im¬ mediately led to all the conclusions established by M. Fres¬ nel. The magnitude and direction of this force are repre¬ sented by means of an ellipsoid, having for its semiaxes the three principal indices of the medium, these axes coinciding in direction with, and being inversely proportional to, the axes of Fresnel’s generating ellipsoid. The properties of the wave surface and its use in deter¬ mining the directions and velocities of reflected and re¬ fracted rays, seem to have been discovered independently by Sir W. Hamilton, M. Cauchy, and Mr. Maccullagh, and in a paper entitled, Geometrical propositions applied to the wave theory of light, he has applied the properties of that surface to the geometrical development of the theory of dou¬ ble refraction. Hitherto the remarkable laws of the double refraction of quartz, developed by the successive labours of Arago, Biot, Fresnel, and Airy, were merely a set of independent facts unconnected by any theory ; but Mr. Maccullagh in a paper On the laws of the double refraction of quartz, sent to the Royal Irish Academy, in February 1836, has shewn how they may be explained hypothetically, by introducing dif¬ ferential coefficients of the third order into the equations of vibratory motion. The theory of the action of the metals upon light having been long among the desiderata of physical optics, Mr. Maccullagh thought that it would be important to repre¬ sent the phenomena of elliptic polarisation, discovered by Sir David Brewster, by means of empirical formulae, in a manner analogous to that employed by Fresnel in the case of total reflexion. Mr. Maccullagh has applied his formulae to steel, and in computing from it the intensity of light re¬ flected when common light is used, he obtained the re- Hist markable result, that the intensity decreases very slowly up to a large angle of incidence (less that 75°), and then in¬ creases up to 90°, wLere there is total reflexion. This re¬ sult entirely accords with the remarkable fact discovered by Mr. Potter,2 that the intensity decreases with the angle of incidence as far as 70°. Mr. Maccullagh conceives that experiments alone can decide whether the subsequent in¬ crease indicates a real phenomenon, or arises from an error in the empirical formulae. Mr. Maccullagh deduces also from his formulae the phe¬ nomenon observed by Mr. Airy in the diamond; and he has applied it successfully to the phenomena discovered by M. Arago, respecting the rings formed between a transpar¬ ent and a metallic surface. In this experiment Mr. Mac¬ cullagh and Prof. Lloyd have both discovered a curious ap¬ pearance unnoticed by any other author. Through the last twenty or thirty degrees of incidence, the first dark ring surrounding the central spot, which is comparatively bright, remains constantly of the same magnitude, though the other rings dilate greatly by an increase of incidence. Hitherto the undulatory theory had been unable to give any explanation of the variation of the polarising angle, when the light was reflected in different azimuths from cal¬ careous spar, and other doubly refracting surfaces. Mr. Maccullagh, however, was induced to exercise his mathe¬ matical skill on this interesting subject; and so early as 1834, he communicated to Professor Lloyd an expression for the angle of polarisation at the surface of crystallised media, when the plane of reflexion coincides with the principal sec¬ tion of Fresnel’s ellipsoid; and he found that the law, which he extended by analogy to all cases, represented with much exactness the observations of Sir David Brewster.3 In a subsequent paper, on the laws of reflexion from crystallised surfaces,* he has explained the principles upon which his formula is founded. He was obliged to adopt the view of Cauchy, that the vibrations of polarised light are parallel to its plane of polarisation, and being embarrassed by his third ray, he altered Cauchy’s six equations of pressure, so as to make them afford only two rays, and give a law of refrac¬ tion exactly the same as Fresnel’s. ^ It appears, from a subsequent paper of Mr. Maccullagh s, that M. Seebeck6 had solved the same problem long before, namely, in the case where the plane of incidence coincides with the principal section of the crystal, and had confirmed its accuracy by experiment. M. Seebeck had also pointed out a defect in Mr. Maccullagh’s formulae, No. 2 and 3, which induced the latter to resume the subject; and in a new paper read to the Irish Academy on the 9th Janu¬ ary 1837, a solution of the following problem is given for the first time :—“ Supposing a ray of light, polarised in a given plane, to fall on a doubly refracting crystal, it is re¬ quired to find the plane of polarisation of the reflected ray, and the proportion between the amplitudes of vibration m the incident, the reflected, and the two refracted rays. Ine hypotheses employed by our author are these, viz. " 1. The density of the ether is the same in all media. 2. The vibrations are parallel to the plane of polarisa¬ tion. 3. The vis viva is preserved. , 4. The vibrations are preserved; that is, the resultan 0 the incident and reflected vibrations are the same as e resultant of the refracted vibrations. “ This theory, say- the author, “ represents very accurately the expenmen s Sir David Brewster and M. Seebeck, on the light re ec in air from a surface of Iceland spar.” . . We owe also to Mr. Maccullagh some interesting vie » * Irish Transactions, vol. xvii. 2 Edin. Journal of Science, N. S. No. 4. s Professor Lloyd’s Report on Physical Optics, in the Fourth Report of the British Association, 1834, p. •174, (note;. * Land, and Edin, Phil. Mag. vol. viii. p. 103. * Id. vol. x. p. 42. 6 Poggendorffs Annakn, 183b, no. . M. Le i y- respecting the nature of the light transmitted by the dia- ‘^mond and by gold le^if. He conceives that there is a change of phase produced by refraction, as well as by reflexion, from these bodies, the change being different according as the light is polarised in the plane of incidence, or perpendicular to it. If the incident ray, therefore, is polarised in any in¬ termediate plane, the refracted ray should be elliptically polarised, which was found to be the case in gold leaf. He conceived that the same remark explains the appearance of double refraction in specimens of the diamond which give only a single image, and that other precious stones are likely to have similar properties. Our author has obtained a ge¬ neral formula for the difference of phase between the two component portions of the refracted light, one polarised in the plane of incidence, and the other perpendicular to it. He finds from this formula, that the difference of phase, which is nothing at a perpendicular incidence, increases un¬ til it becomes ecjual to the characteristic, at an incidence of 90°; and when the light emerges into air, the difference of phase is doubled. In submitting this formula to the test of experiment, which Mr. Maccullagh has not yet done, it will be requisite to ascertain that the diamond is not composed of strata of different refractive powers.1 M. Lame, an eminent professor in the Polytechnic School, has recently endeavoured to determine the laws according to which the molecules of ether and of bodies act upon each other. He arrives at the conclusion that “ the action of ponderable matter upon the ether varies in the inverse ratio of the square of the distance, and that the elasticity of the ether itself is proportional to its density.” He concludes that the retardation of the vibratory motion, in penetrating into a dense body, will be greater the less the length of an undulation; so that the refraction will be greater for the shorter undulations, a result which he regards as the true explanation of dispersion. M. Lame, says Professor Lloyd, “ has endeavoured to connect the phenomena of double refraction with an assum¬ ed constitution of the ethereal fluid. He takes the case in which the ether is supposed to be distributed round the molecules of the body in confocal ellipsoidal shells; and he concludes that a vibratory movement, propagated from a vacuum into a body so constituted, will be separated, at its entrance, into two component movements, which will ad¬ vance with different velocities. “ The two component vibrations, he finds, will be at right angles, and parallel to the lines of greatest and least curva¬ ture of the elementary ellipsoids. Thus, the bifurcation of a ray of light on entering a crystallised medium, and the opposite polarisation of the two pencils, are found to be con- Mstmt with a molecular constitution such as that described, i , ese ,resu^ts are °f the highest interest, and will, no u , recen c an early examination from those engaged in raT/rrt1raent of analysis- Their author seems to be persuaded that his methods will lead him to the mathema- cal laws of other phenomena, which he conceives to depend, ike manner, on the motions of the ethereal fluid.”2 in a memoir more recently communicated to the Aca- ? °p Sciences, M. Lame has sought to determine the node ofv1^ ofthe ethereal partides which surround . -IT1 molec,llTes in concentric spherical shells of de- loflipa ^ eiisity* _ He considers transparent homogeneous rib„fJS consisting of a multitude of such molecules, dis- •reatprtlUni sPace’ anc* at distances incomparably ron uli Tf heirCl‘ameter; and he conceives that the waves m rLted fr°m thf molecules adjoining to the surface of up- tlp fi ’^1-pr0duCe by mterferencephenomena resemb- ver kinXed ine- m .the spcctrum.s This opinion, how- lena of fixed lineTn’ inC0mPatible with the actual pheno- OPTICS. 377 in The narrowness of our limits will not permit us to record Introduc in this histoi ical sketch many other discoveries which have tion !’f‘?.rf.(;e"tly fve" to, ^e world, though many of them will e detailed under the heads to which they respectively be- /fop Jhcse discoveries have been made principally by Mr. .L. Talbot, Mr. Potter, Mr. Dove, and other philosophers. Having thus given a condensed sketch of the history of optical discovery from the earliest to the present times; we shall now proceed to the proper subject of this article. As the nature of this work requires that the subject be treated in a very popular manner, we shall pass briefly over those branches of Optics which are generally treated mathemati¬ cally, and which occupy a prominent part in all ordinary treatises, and occupy our limited space with the more in¬ teresting departments of Chromatics, Physical Optics, the Double Refraction and Polarisation of Light, the Explana¬ tion of Natural Phenomena, the Laws of Vision, and the Construction of Optical Instruments. INTRODUCTION. T HE ancients confounded the phenomena of vision with those of light, by supposing that when we see external ob¬ jects something passes from the eye to the object. The phenomena of light, however, are totally independent of those of vision, and have a real existence in nature, whe¬ ther we suppose them to be objects of vision or not. 1. Light is the element by means of which we see ex-Light, ternal bodies. These bodies may be divided, in reference to light, into two classes, self-luminous and non-luminous, or dark bodies. The first class include the sun, the stars, flames of all kinds, and bodies which become luminous by friction, heat, and electrical and magnetical action. Such bodies become visible by the light which they themselves emit, and we then obtain a knowledge of their apparent form. I he sun, for example, is seen to be round, and the flame of a candle to be of a conical shape. The second class of bodies*,however, are never visible but when placed in l!le light of self-luminous bodies. It includes the moon and all the primary and secondary planets, of which we see only those portions upon which the sun’s light directly falls, and all the other objects upon our own globe. When we bring a lighted candle into a room its light falls upon all the objects in the apartment, and they become visible. Ihese bodies reflect or throw back the light ofthe candle and they scatter it mall directions, because they are, gene¬ rally speaking, visible, wherever we place our eye. b But objects also become visible by the light thrown oft’ by non- luminous. When the moon has the form of a sharp crescent we see the obscure part of its circular disc by the light thrown upon it from the earth, which is at that time almost u ly illuminated by the sun. In like manner in the room lighted with a candle, objects are seen in corners and places upon which the light of the candle does not fall. These objects, however are illuminated by the light ofthe candle thrown bacK by the white ceiling and walls of the apart¬ ment ; and hence the reason why the ceilings and apart¬ ments should always be white, and why the walls should be white if we wish to obtain the greatest quantity of light from a given flame. G 2. The light thrown off from all bodies whether self- luminous or non-luminous, is of the same colour as them- Si- ^es" ^ lcc^ hot body, or a stick of red sealing wax, will make a sheet of white paper appear red if held near them. d. But though coloured bodies throw off light of the same colour with themselves, bodies do not appear of the same colour as that of the light which falls upon them. All Id. Id. (note), and Ann. de Chimie, torn. Ivii. 3 u See page 27. VOL. XVI. 2 See Professor Lloyd’s Report, p. 303. 378 OPTICS. t f , bodies which are white in white light, appear of the same from the nearest fixed star to the earth, and probably many Cator, “ colon I that S the 1 gh which talk uponlhem ; but other thousand years from the most remote star seen by the tele- bodTes, such as red wax, appear red elen in white light, a scope. Hence d a remote visible star had been created at property which they derive from a peculiar structure act- the time of the creation of man, it may not yet have be- in upon the different colours of which white light is com- come visible to our system. posed. Bodies of this kind when illuminated with lights 9- When light falls upon any body, whet er rough nr r colours always appear brightest in light of the smooth, coloured or uncoloured, a part of the incident tme colour which they exhibit m white light. Thus a light enters the body, and .s either lost wtthm .t, or trans¬ stick of yellow wax is more luminous than a stick of red mitted through it; and part of it is reflected from its sur- -t. uAhe yellow wax will be less h.minous than the red face, ^^“^“en^ bZ MesTtheh relation0to Tight, are divided into two and is lost, the light which is transmitted through the classesonatme and Iraneparmt. An opaque body is one body, and the light which is reflected from it, suffer cer- SltopTthTlight that fells upon it, sudi as a piece of tain changes in its direction and m its physical proper ,es. cod o? riate of silver , and a transparent body is one It belongs to the geometrical or mathematical part ofophcs, which transmits the light through it, such as glass, water, to assign the laws which regulate the change of direcbon 1c air The most Spaque body, however, may be made which light experiences when it is transmitted through, or transparent b^ making^ it sufficiently thin, and the most reflected from bodies, whose density » uniform, and whose SnsnSlnt one may become opaque by making it suffi- surfaces have a geometrical form; and to yi/iysico/optics, o transparent one may oe i 4 J & explain the changes in the physical properties which light C1£5 The opacity of bodies, or their power of intercepting acquires in passing through bodies, in passing near them, or li„ht gives rise to what is called the shadows of bodies, in being reflected from their surfaces. As the shadows of bodies are of the same size as the bodies, The laws or rules which regulate the reflexion of light, we thence deduce the fundamental optical fact, that light constitute that branch of optics which is called catoptrws, moves in straight lines. The same fact may be proved in and the laws which regulate the changes ot deviation which a thousand ways, but most simply by placing three small light experiences when transmitted through bodies, is called holes in a straight line. In this case the light will pass dioptrics. through them, but if any one of them deviates from the straight line, the light will be stopped. The same thing is paht i. catoptkics, ok the kepeexion op light. finely seen without any experiment, by admitting light into qqie wor(j catoptrics, derived from the Greek words Kara Catos a dark room through an aperture of an inch wide. Its „ , and 6nTOfJLah to see, signifies that department of optics path, marked out by the floating dust which it illuminates, \vh[ch treats of the reflexion of light from the polished and w ill be seen to be a straight line. regularly formed surfaces of bodies, such as water, glass, 6. Light issues or radiates in every direction and from and the metals every point in the surface of luminous and visible bodies. and the metals. The name of speculum or mirror, has commonly been given . i ■■ i i c J rrVilxr nnlichpn This fact is proved by the circumstance, that we see suen ^ bodies that have regularly formed and highly polished bodies wherever we place our eye. However much we surfaces- rPhe word speculum is generally applied to may magnify the bright part of the sun s disc through a p0bshed metals, and mirrors to reflectors made of glass telescope, or a sheet of white paper through a microscope, and coverej wjth an amalgam of tin and mercury, to in- w e shall never see any points destitute of light. crease their power of reflecting light. 7. Light consists of separate and independent parts, There are four kinds of Specuia used in optics, namely, which, when reduced to the smallest magnitude, are called piane, convex, concave, and cylindrical, and when lig t rays of light. A beam of light transmitted into a dark fallg n any of these specula, which we shall always con- room may be actually divided into smaller portions in a gjder j-0 be formed of polished metal, it is reflected accor variety of ways. The smallest portion that we can allow big to the same lawr. to pass may be called a ray of light, and possesses the same General Law of Reflexion. properties^asjhejarger beam.^igs ooo ^ ^ a Let AD be a ray of light which Fig. L This extraordinary property of light has been deduced by falls upon a plane speculwnM. , direct calculation from the immersions and emersions, in and strikes it at the point U, this eclipses of Jupiter’s satellites, which become visible to us ray will be driven back m the di- nearly a quarter of an hour earlier when the earth is nearest rection DB, so inclined to the ongi- Jupiter, than when it is farthest from that planet. The nal ray AD that if we raise from exact velocity of light obtained in this manner, is 192,500 the point D a line , th ansqe ADE. miles in a second ; whereas, Dr. Brinkley and M. Struve lar to MN, the ang e BDE will be equal to the aj ^ have found it to be 191,515 miles in a second, from the The ray AD is called the the Jgk of phenomena of aberrationJ This last determination is un- ray, ADE the angle of and BDE doubtedlythe most correct. The mean, however,of 192,000 reflexion. 1 he two rays A ’ ’ Thisnlane is some- is most easily remembered. , DE. all be m the same plane AEBD. 1 “s plan ^ ^ The velocity with which light travels is so inconceivable, times called the plane of incidence, , , Mthe that we require to make it intelligible by some illustrations, plane of reflexion,, and it is always at ngm a g It moves from the sun to the earth in minutes, reflecting surface MN. _ - - w hereas a cannon ball fired from the earth, would require When the reflecting surface is con- seventeen years to reach the sun. cave as MN in fig. 2, and is part of a Light moves through a space equal to the circumference sphere, whose centre is C, a ray ot of the earth, or about 25,000 miles in about the 8th part of light AD falling upon any point D, a second The swiftest bird would require three weeks to will be reflected in a direction D B, M perform this journey. so as to form the same angle BDC Light would demonstrably require five years to move with a line LD drawn from tfie cen- Fig. 2. 1 See Aberration, vol. i. p. 31. Fig. 3. OPT ■ics. tre of the sphere to the point of incidence D, that the in- ^cident ray AD does, viz. the angle ADC. In this case the line DC is perpendicular to the reflecting surface at D. When the speculum is convex as in fig. 3, and C the centre of its spherical sur¬ face, then if we draw CE, passing through any point D, of the spherical surface MN, any ray of light AD, incident at D, will, after reflection, take a direction DB, having the same inclination BDE to DE, 4 that the incident ray AD has. In this case, also, the prolonged radius of curva¬ ture CE, is perpendicular to the surface MN at D. When the surface is cylindrical, the form of the reflect¬ ing line, or the line lying in the plane of reflexion, is a circle in one direction, a straight line in another, and an ellipse in all intermediate ones, but in every case the re¬ flected ray will take such a direction that the angle which it forms with a line perpendicular to a plane touching the cylinder at the point where the ray strikes it, will be equal to the angle which the incident ray forms with the same perpendicular. This is true of all curved surfaces whatever. The results now stated have been established by direct experiment for all inclinations of the incident ray, so that it is a law universally true, that in the reflexion of light the angle of incidence is equal to the angle of reflexion. Hence it follows, that when the incident ray is perpendicular to any surface, it is reflected back in the direction in which it came, and when the incident ray is parallel to the reflect¬ ing surface, (when plane) or is inclined 90° to it, it will pass on without suffering any change in its direction. The equality of the angles of incidence and reflexion is finely seen in the game of Billiards, in the reflexion of a hand-ball from a wall, and in the reflexion of sound. .By means of the law of reflection we can easily deter¬ mine, even without any calculation, the effects produced upon light by specula and mirrors, and the shape, and mag¬ nitude, and position of the images of all objects seen by reflexion from them. These effects we shall now proceed to consider in their order. Definitions. Parallel rays are those which are paral¬ lel or equidistant, as AD, A'D', fig. 4. Diverging rays, are those which issue or diverge from a point, and separate from each other, forming an angle as AD, AD', AD'', fig. 5. 58 Converging rays, are those which converge to a point, or approach to one another, as AD, A'D', A"D", fig. 6. Sect. I—On the Reflexion of rays from Plane Mirrors. Reflexion of parallel rays. When parallel rays Fig. 4. AD, A'D' fall upon a plane speculum MN at the points D, D' they will preserve their paral¬ lelism after reflexion. Drawing the perpen- - ~ dicuWs DE, D'E, make the angles of reflexion EDB, > D,rVequal t0 the anSles of incidence ADE, A'D'E', and Jt will be found that DB is parallel to D'B'. If the space e ween AD, A'D' be supposed to be filled up with other rays parallel to AD, the space between DB and D'B' will aso e filled up with parallel rays. Hence a beam of para e rays ADD'A', will be reflected into the parallel earn B D'B', the latter being the same as the former u inverted. If the inverted beam suffers another re¬ flexion from another mirror, parallel to MN, it will be re¬ ared to a position exactly parallel to AA'DD', and no longer inverted. I c s. 379 Reflexion of diverging rays. When diverging rays, Catoptrics. AD, A'D', A"D", fall & ' upon a speculum MN, they will be reflected in directions DB, D'B', D"B" found by making the angles BDE, B'D'E,B"D"E" respectively equal to ADE, A'D'E', A"D" E", and the reflected rays being continued back till they meet, they will be found to meet at a point A' so that the line A A' is at right angles to MN, and AN equal to A'N. Hence the rays will have the same divergency after re¬ flexion, as before it, and as if they came from A', the re¬ flected beam being inverted, as in the preceding case. Reflexion of converging rays. When converging rays AD, A'D', A''D", fall upon a speculum MN, Fig. 6. they will converge after reflexion to a point B', so situated, that if BB' is at right angles to MN, B'M will be equal to BM. The reflected raysDB, D'B, D"B", will be found by making the angles EDB' E'D'B', E"D"B", respectively, equal to the angles of incidence, ADE, A'D'E,' A"D"E". nasKSiiM- On the Reflexion of Rays from Concave Mirrors. Reflexion of parallel rays. Let MN be a concave mir¬ ror whose centre of concavity is C, and let Fig. 7. parallel rays AD, AD', A"D", fall upon the mirror, the central ray AD passing through the centre C. From C draw the lines CD', CD". Then since CD' is perpendicular to the mirror at D', the ray AD' w ill be reflected in the same direction D'F, so that the angle of reflexion CD'F is equal to the angle of incidence AD'F. In like manner, the ray AD will be reflected to E, and the central ray AD will be reflected back to F also ; all intermediate rays being like¬ wise reflected to F. If the curvature of MN is not deep, and if the points D',D" are taken near D, it will be found by making the angles of reflexion equal to the angles of incidence, that the rays all meet accurately at F, which is called the focus of the mirror for parallel rays, or its principal focus. This focus is in all mirrors exactly half-way between the centre C, and the surface of the mirror. The point F derives its name of focus from its being the burning point of a mirror, or the point wdiere the parallel rays, issuing from the sun are most condensed, and there¬ fore occasion the most powerful heat. Reflexion of diverging rays. Let AD, AD' AD", be diverging rays issuing from A and falling upon the mirror MN, whose centre is C, and principal focus O. Then it we make the angles of reflexion equal to the angles of in¬ cidence, as in the last case, we shall find that the rays will be reflected to a point F, between the centre C of the mir¬ ror, and its principal focus O. If the radiant point A is removed from the mirror, and the rays fall on the same 380 O P T I C S. Catoptrics, points of it, it is manifest that the incident rays will be 'removed farther from the perpendiculars CD', CD", Fiff. 8. »\>v and consequently the reflected rays which meet at F, will also be removed farther from them. Hence F will approach to O, and when A is infinitely distant, and the rays parallel, F will coincide with O. But if A approaches to the mirror, the incident rays will approach to the perpen¬ diculars, and as the reflected rays will do the same, their point of concourse F will approach to C. When A reaches C, the focus F will also reach C, and the reflected ray will coincide with the incident ray. If A still advances towards the mirror, the incident rays will get within the perpendicular, and therefore the reflect¬ ed rays will be without it, and their point of concourse F will advance from C outwards, in proportion as the radiant point advances from C inwards. When A reaches the principal focus O, the reflected rays will be parallel, as seen in fig. 7, and when A comes still nearer the mirror, the re¬ flected rays will diverge as if they proceeded from some point behind the mirror, this point being called the virtual or imaginary focus of such rays. In all the preceding cases, the points A, from which the rays issue, and the point F where they are collected by re¬ flection, are called conjugate foci, because if we make A the radiant point, F will be the focus, if we make F the radiant point, A will be the focus. The conjugate foci of a concave mirror may be easily found by projection. The following rule will give the focus more accurately when the rays AD', AD" are not far from the central one AD. Multiply the distance of the radiant point from the mirror, or AD, by the radius CD, and di¬ vide this product by the difference between double the dis¬ tance AD, and the radius CD, and the quotient will be the conjugate focal distance required, or FD. If twice AD is less than CD, the conjugate focal point will not be before the mirror, but behind it, the focus being in that case a vir¬ tual one. Reflexion of converging rays. Let AD, AD' AD" be Fig. 9- and the radius CD, and the quotient will be the conjugate Catof focal distance required, namely, /D, the focus f being in front of the mirror. On the Reflexion of Rays from Convex Mirrors. Let parallel rays AD, AD', Fig. 10. rays converging to a point a behind the mirror MN, whose centre is C. Having drawn CD' and CD", make the angles of reflection CY)f CD"/ respectively equal to the angles of incidence AD'C, AD" C; and D/ D'/will be the reflected rays having their focus at f between the mirror and its principal focus F. If the point of convergence a of the rays, or the conjugate focus, approaches to the mirror, the other conjugate focus/will also approach to it, and if it recedes from the mirror, the focus f will also recede, reaching F when a is infinitely distant, in which case AD', AD" are parallel, as in Fig. 7. The following is the rule for finding the conjugate foci when one of them is given: Multiply the distance of the point of convergence from the mirror, or aD by the radius of the mirror or CD, and divide this product by the sum of double the distance oD Reflexion of parallel rays AD" be incident upon the convex mirror MN, whose centre is C. Draw the perpendicular CE, CE passing through D' and D", and making the anarles of reflection EDB, ED"B equal to the angles of in¬ cidence, AD'E, AD"E, the reflected rays will be D'B’ D"B, whose virtual focus F is behind the mirror, and so situated that FD is equal to FC. Reflexion of diverging rays. If we suppose the rays AAA to diverge from any point in the line or axis AD, they will recede from CE, CE, consequently the reflected rays D'B, D"B will recede also ; that is, will become more divergent, as if they came from a focus between F and D, the virtual focus approaching to D as the radiant point A approaches to D. Reflexion of converging rays. In like manner, if the rays AAA widen at A, that is, converge to some point be¬ hind the mirror MN, they will approach to CE and CE, so that the reflected rays D'B, D' B will also approach to CE, and consequently diverge less, or have their virtual focus between F and C. When the converging rays coin¬ cide with CE, CE, they will be reflected back in the di¬ rection in which they came, having C for their virtual focus. When the converging rays pass CE, the reflected rays will also pass to the opposite side, and converge less after reflexion, having their virtual focus beyond C. When they converge to F, the reflected rays will be paral¬ lel as in fig. 10, where we may suppose BD' BD' the inci¬ dent, and D'A, D"A the reflected rays. When the rays converge to a point between F and D, the reflected rays will converge to a point in the axis, and as the point of con- vergency of the incident rays approaches to it on the one side, the point of convergency of the reflected rays will approach to it on the other. It would have been easy by the simplest elements of geo¬ metry, to have demonstrated the preceding truths; but the demonstration would have been rigorous only when the rays fell upon the mirror at points infinitely near D in the axis AD. By finding from projection the foci of rays ot all kinds, and falling upon the mirror at all degrees of ob¬ liquity, the reader will acquire more substantial knowledge of the subject, than he can do either from geometrical or algebraic demonstrations. The same observation is appli¬ cable to the results obtained in the following section. Sect. II On the Formation of Images by Plane, Concave, and Convex Mirrors. Formation of Images by Apertures—In optics an image is a luminous resemblance or picture of any object w ever, formed either on a white ground, such as a slice paper, or suspended in the air. In order to understand how images are formed, ie suppose that a soldier is standing on the outside of an °pe window', with a red coat and blue troivsers, strongly i nated by the sun. The white wall opposite the wmdow isium minated by all the light which enters the window, the mu light of the sky, the green foliage,_ the red coat, an blue trousers, so that it has no distinct colour, bu ture of all these. If we close the shutters, so as to alio OPTICS. 381 •ics. light to fall upon the wall but the red light of the coat, and ■^the blue light of the trowsers, it will be illuminated only by a mixture of red and blue light. But if we close all the shutters SS, and leave only a small hole A, about half an Fig. 11. inch in diameter, then it is obvious that the red rays at and below R, passing through the hole A, will illuminate the opposite wall at and above r with red light, and the blue rays the opposite point at and below b with blue light; and that no red light can fall upon b, and no blue light upon r. Hence we shall have the red body of the soldier rudely shadowed out at and above r, and his blue legs at and be¬ low b, this small image being inverted, because the rays from the upper part of his body fall upon the lower part of the wall, and the rays from the lower part of his body upon the upper part of the wall. If we make the hole A smaller and smaller, the inverted image of the soldier will become more and more distinct, the colours will be better separated, and the picture may be made so distinct, that the features of the individual could be recognised. Now this separation of the various lights that at first fell upon the wall is effected solely by diminishing the aperture through which they pass, for if the aperture is exceedingly small, then as no two rays can proceed from the same point, they cannot fall upon or illuminate the same point, and hence each point of the object is represented on the wall by the colour of the light w hich it throws out. As the coloured rays from the soldier are thrown off in all directions, an inverted image of that soldier may be formed in any part of space, by excluding all the other rays except those which pass through a small aperture. It is manifest, from a simple inspection of fig. 11, that the size of the inverted image will diminish not only with the distance of the aperture from the soldier, but also with the distance of the ground WW from the aperture. Formation of Images by Concave Mirrors.—The effect of a concave mirror in forming an image is the same as that o an aperture ; but it produces a finer effect, and acts upon a different principle. Fig. 12. Let AB, fig. 12, be a concave mirror, C its centre, and Catoptrics. MN an object placed before it. Of all the rays which flow from every part of this object in every direction, we shall consider only those which issue from its extremities MN. The rays from M radiate in every direction, but those which fall upon the mirror, namely, the pencil or cone MAB, are the only ones which require our notice. This pencil of di¬ verging rays will have its focus at a points farther from the mirror than its principal focus, and in like manner the pen¬ cil NAB will have its focus at some point n, pencils inter¬ mediate between M and N having their foci at points inter¬ mediate between m and n. These points may be found by projection, as already described, or by the rule given for diverging rays. The image mn is obviously an inverted picture of the ob¬ ject MN, and its size is to that of the object as the distance of the image from the mirror is to the distance of the object from it, that is, as n\ is to NA, as may be found from pro¬ jection, or from an experimental measurement of the dis¬ tance, when a mirror is actually used. From the doctrine of reflected diverging rays it fdllows, and may be proved by projection, that as the object MN approaches to the mirror, the image mn wall recede from the mirror, till the object and image meet one another at the centre C, where they will have the same size. If MN still moves towards the mirror within C, the image mn will move outwards beyond C, and the image will now be larger than the object. If the object comes to the place mn, and is of the same size as mn, the image of it will be formed at MN, and will have the same size as MN. If the object goes still nearer the mirror the image will go still farther off than MN, increasing in size. When the object reaches the principal focus half way between C and D, the image will be infinitely distant; and when the object goes still nearer the mirror, as in fig. 13, where it is placed at MN, between the principal focus Fig. 13. F and the mirror AB, the rays will diverge in front of the mirror, and form an inverted virtual image, mn, behind the mirror. As the image MN approaches the mirror, the virtual image mn also approaches to it. If we take a concave mirror of some size, and place before it any highly luminous or strongly illuminated object, such as a plaster of Paris cast, we may obtain an interesting ex¬ perimental proof of the preceding results. When the image is formed in front of the mirror, it will appear suspended in the air, and the effect of this wfill be greatly heightened n it is received on a cloud of thin blue smoke raised from a chafing dish below the place of the image. By considering that as the object moves from MN to C, fig. 12, the image mn advances to C, we obtain an explanation of the celebrat¬ ed experiment with the dagger mentioned by John Dee, in our history of the science, in which a person with a drawn dagger striking at the mirror is met by another person, viz., his own image, returning the stroke. 382 Catoptrics. OPTICS. If the object MN is the sun, a small image of his disc will be formed at mn, in which are collected all the rays of light which fall upon the surface of the mirror. It will therefore have such a degree of heat as to melt even the hardest gems and metals. Such a mirror is called a burning mirror, from its effects. Formation of Images by Convex Mirrors.—As convex mirrors often form a part of household furniture, we are more familiar with their properties. They always form erect images of objects, which appear at a distance behind them. Fig. 14. If AB is a convex mirror whose centre is C, and principal focus F, and MN an object placed before it, it is obvious, from our description of fig. 10, that the diverging pencils MAB, NBA, will diverge more after reflexion, as if they came from virtual foci mn behind the mirror, so that our eye receiving such diverging rays will see an erect image mn of the object MN placed behind the mirror, and between its principal focus F and D. If MN approaches to AB, mn will approach it also, and if MN recedes from the mirror, mn will also recede from it, their relative sizes varying as their distances. When the object touches the mirror, the image also touches it, and they are then exactly of the same Fig. 15. Formation of Images by Plane Mirrors—Every person is familiar with the effects of a plane mirror, or looking- glass. The image of any object placed before it is seen behind it of the same size, in the same po¬ sition, and at the same distance from the mirror. In order to un¬ derstand this, let AB be the mir¬ ror, MN the object, and Ethe eye of the observer, situated in any given position. Rays from M and N fall upon every part of the mir¬ ror, but MC, MD are the only ones from M which can reach the eye E, as all the rest are reflected either above or below the eye E. In like manner, the rays NF, NGare the only ones from N which can enter the eye. The extremity M of the object will therefore be seen in the direction Em, and the concourse or virtual focus of the re¬ flected rays will, as shewn in fig. 6, be at a point m, so situ¬ ated, that if M Am is at right angles to the mirror, Am will eye situated so as to receive the reflected rays, will see a series ofimagesof MN all arranged symmetrically. Behind AC, for example, an image mn will be formed, and behind BC another image M'N'. But as the rays which form these images again fall upon the mirrors, we shall see images of mn and M'N' formed by AC and BC, thus mV will be the image of mn formed by BC, and M"N" an image of M'N', formed by A C. In like manner, m"n" will be the image of mV formed by AC, and the image of M"N" formed by BC will also lie upon m"«", so that we shall havetwo images at m"n!' overlapping each other, and forming one exactly, if the angle ACB is exactly one-sixth part of 360°, or 60°; but if it is not, the compound image m!'n" will be seen double and imperfect. The five images above described, reckoning the double one at m"n" as only one, will, toge¬ ther with the object MN, to which all the images are equal and similar, constitute a perfect equilateral triangle, so that if MN is a coloured and an irregular object, the symmetri¬ cal figure composed by it, and all its images, will be highly beautiful and agreeable to the eye. If MN, in place of being perpendicular to the mirror BC, had been inclined to it, no pair of images would have formed a straight line, as in the figure, and the combination would have been more beauti¬ ful. This is the principle of the Kaleidoscope, in as far as the multiplication and arrangement of the images is con¬ cerned; but this instrument has already been so admirably de¬ scribed by an eminent writer, in our article Kaleidoscope, that we must refer the reader to it for farther information. Formation of Images by Cylindrical Mirrors.—It is not easy, in a diagram, to represent the progress of rays in the formation of an image by a cylindrical mirror. As a cy¬ linder is in one direction a plane mirror, in another a convex mirror, and in all others an elliptical one, the eccentricity of the ellipse passing through all degrees, from a circle to a straight line, different parts of a regular figure presented to such a mirror will appear of different sizes, and at different distances behind it. Part of the figure will have the same form and position as in a plane mirror, part as in a convex mirror, and the other parts of the image will have interme¬ diate sizes and positions. Hence the image will be com¬ pletely distorted. If the mirror is placed horizontally, the human face wall appear of the right size from ear to ear, but contracted, as in a convex speculum, from brow to chin. Hence, if a distorted picture is properly drawn, and properly presented to the mirror, that is, if the cylinder is placed vertically before the picture, the image of the distorted pic¬ ture will be rectified ; the length between the ears will be contracted into the same proportional size as the shortness between the brow and the chin, and their shortness will re¬ main unaffected. Such a distorted picture will be after¬ wards represented in the part of this article on Optical In¬ struments. PART n. DIOPTRICS, OR THE REFRACTION OF LIGHT. Dioptrics, from fita, through, and onropai, to see, is that branch of optics which treats of the passage of light throng transparent bodies, and, consequently, of the changes whic i it experiences in entering and quitting such bodies. Sect. I.—On the Refraction of Light. If we hold a drop of pure water or an irregular piece of clear cL\,\Z\JL} LIlclL II I.VJ.ZX//I- lO ClL cill^lUo Lv7 1II111 L/i j XX//C’ Yr 111 XI >» t/ llvJlVA. t* vax v. T’ c*^ 1 - VlrP be equal to AM. For the same reason, the point N will be glass in the sun’s rays, each will have a sort of shadow i ^ seen at n, as far behind the mirror as N is before it; and it opaque bodies. Hence it follows, that light has not P3-88^ is obvious, from the parallelism of Mm and N«, and the equality of the distance of M, m, and N, n from AB, that mn is equal to MN. If two plane mirrors are inclined to each other, as AC, B, fig. 16, and an object MN placed between them, an freely through them, and must, therefore, have suffered some change in its direction, either while entering these or passing through them, or emerging from them, change which it has suffered is called refraction, an nature of this change will be discovered by observing OPTICS. 383 Fig. 17. cs. effects produced upon light by transparent bodies, whose ^surface is flat and regular. For this purpose let AB, fig. 17, be the surface of water in a ves¬ sel, and RC a ray or pencil of light proceeding from a candle or from the sun, through a small hole, and falling upon the water at C. Part of this light will be reflected in the direction Cr, so that the angle rCP, is equal to RCP, PQ being a line perpendi¬ cular to the water at C ; but the greater part of the light will enter the water at C, and in place of going straight on to e, it will be bent or refracted at C, or the ray Rc will be broken bark at C, and proceed in a straight line to E. Drawing a circle PAQB round C as a centre, and from the point E, where the refracted ray cuts it, drawing EK parallel to PQ, it was found by Snellius that CD was to CE or Ce as 3 to 4, and we have shewn in the history of op¬ tics, that if R/and EF are drawn perpendicular to PQ, CD is to Ce as EF is to R/l But R/'is the sine of the angle of incidence RCP, and EF is the sine of the angle EC(4, which is called the angle of refraction. Now, Snellius dis¬ covered by numerous experiments, that whatever was the magnitude of the angle of incidence RCP, the magnitude of the angle of refraction was such that CD was to Ce as 3 to 4, or in a constant ratio. Hence it follows, that the sines of the angles of incidence and refraction R/and EF, are in the case of water in the constant ratio of 4 to 3. Snellius in his manuscripts did not mention the constant ratio of the sines, but merely the constant ratio of CD and Ce, which is the same. The ratio of the sines was first mentioned by Descartes, but there can be no doubt that Snellius knew it perfectly, and that he preferred the use of the ratio of CD to Ce, for the following reason : When a luminous body is placed at E below water, and its light passes through a small aperture at C, it is found to be re¬ fracted or bent into the direction CR, so as to be seen by an eye at R, in the direction Re. It will, therefore, be seen, as it were, elevated from E to D. Hence Snellius preferred giving the law of this elevation, to any other law not connected with the phenomena. As the incident ray RC approaches to the perpendicular PQ, the refracted ray CE approaches also to the perpendi¬ cular, and CD becomes less and less, and when RC coin¬ cides with PC, or when the ray is incident perpendicularly, the refracted ray CE will coincide with CQ,, or the inci¬ dent ray will suffer no refraction at C. When the angle of incidence RCP increases, and RC approaches to the sur¬ face of the water CB, the angle of refraction ECQ, will also increase, the line CD will increase, and the refracted ray approach also to the surface CA, and when RC coincides with BC, Ce will coincide with CA, and no light whatever will enter the water but it will all be reflected. When Ce coincides with CA, CD will be 3, and D will coincide with K. Such are the phenomena and law of refraction when light passes from a rare medium such as air, into a dense medium such as water, the ray being always re¬ fracted from the perpendicular, according to the fixed law' already described. Let us now suppose, that the ray of light passes from a dense medium, such as wmter p aced above AB, into a rare medium, such as air placed be- ~ ^ ow AB, and let PQ, be a perpendicular to the surface of e Water at C. It is found by experiment that the ray Fig. 18. neither goes straight on to e, nor is refracted towrards the per- Dioptrics, pendicular as before, but is refracted from the perpendicular into the direction CE, so that if the line KED is drawn through E, parallel to PQ, and cutting the original direction of the ray Re prolonged, in the point D, CD w ill be to CE or Ce as 4 to 3, and in a constant ratio, or R/the sine of the angle of incidence will be to EF the sine of the angle of refraction in the constant ratio of 4 to 3. When the ray RC coincides with PC, so that the angle of incidence is nothing, the angle of refraction will also be nothing, and the refracted ray CE will coincide with CQ, the incident ray having gone straight on without experiencing any refraction ; but when the angle of incidence increases, and RC approaches towards BC, the refracted ray CE will approach to CA, which it will reach long before R reaches B. When CE reaches CA, the ray RC will no longer emerge from the water into the air, but will suffer what is called total re¬ flexion at C, and at every angle of incidence beyond that at which this total reflexion commences, the light will con¬ tinue to be totally reflected till RC coincides with RB. If we repeat all the above experiments with plate or crown glass, in place of water, we shall find the very same phenomena reproduced, with this difference only, that the constant ratio of CD to Ce, or of the sines R/ to EF, in place of being as 3 to 4 in one case, (see fig. 17,) and 4 to 3 in the other (see fig. 18,) will be as 2 to 3, and as 3 to 2, or in the case of water the ratio will be as 1 to 1*333, and in glass as 1 to 1*500. The number 1*333 is called the Fig. 19. index of refraction fox water, and 1*500 the index of re¬ fraction for glass. In like manner it is found that the index of refraction for taba- ^ sheer is 1*111, being less than that for water; for flint a glass 1*600, for diamond 2*500, and for chromate of lead about 3*00. Hence it follows, that bodies refract light in different degrees, measured by "their indices of refraction. In order to have an ocular representa¬ tion of the different degrees of refraction, we have drawn in fig. 19, the different refracted rays, corresponding to a given incident ray RC, supposing the surface AB to be first air, (the medium above it being a vacuum), then tabasheer, then flint glass, then diamond, and, lastly, chro¬ mate of lead. When the index of refraction of any body is knowm, we can easily ascertain the progress of a ray of light which falls upon such a body, and its direction after quitting the body. The following example of this we shall give for plate glass. Let AB be the surface of a piece of plate glass wrhose index or ratio of refraction is as 2 to 3, or as l to 1*50, and let a ray of light RC fall upon it at C. Prolong RC to e, and upon a scale of equal parts take in the compasses CD, equal to 10 of these parts, and Ce equal to 15, or CD equal to 2, and Ce to 3 parts. Upon C as a centre w ith the radius Ce describe the semicircle AeB, and through D draw KDE, perpendicular to AB, and meeting the semicircle in E, join CE, and CEwdllbe the refracted ray. When the ray passes from a denser to a rarer medium, as in fig. 18, Ce is made equal to 10, and CD to 15, and DK being drawn perpendicular to AB, and a line Fig. 20. S84 OPTICS. Dioptrics, drawn from C to the point E, where DK cuts the circle, ' CE will be the refracted ray. This method, which is ob¬ viously much more simple and elegant than when we use the sines of the angles, is, so far as we know, new, and we shall use it in future for determining the place of the re¬ fracted ray. It is obvious, that when D and K coincide with A, fig. 18, DK becomes a tangent to the circle at A, and the light suffers total reflexion. If the preceding experiments are repeated with various DicpJ solids and fluids, it will be found, that the same law of re-^ fraction takes place with all of them, the index of refraction r varying more or less in each, the refractive power being least in the gases, and less in fluids, generally speaking, than in solids, as will be seen in the following table of refractive powers, collected from various authors, and determined by methods possessing various degrees of accuracy. Table of the Refractive Powers of Gases, Fluids, Solids, and Metallic Bodies. A vacuum. Index of Refraction. ..1-0000 Hydrogen 1-000138 Oxygen 1-000-272 Atmospheric air 1-000294 Azote 1 *000300 Nitrous gas 1 -000303 Carbonic oxide 1 -000340 Ammonia 1-000385 Carburetted hydrogen 1 -000443 Carbonic acid 1 -000449 Muriatic acid 1-000449 Hydrocyanic acid 1-000451 Nitrous oxide I 000503 Sulphuretted hydrogen 1 000644 Sulphurous acid 1 -000665 Olefiant gas 1 000678 Chlorine 1 -000779 Protophosphuretted hydro¬ gen 1B .1 *000789 Cyanogen 1 000834 Muriatic ether 1-001095 Phosgene 1001159 Vapour of sulphuret of car¬ bon ••• 1 *001 oOO Vapour of sulphuric ether, (boiling point at .35° cen- tig.) 1-001530 All the preceding observations were made by M. Dulong, excepting that on atmosphe¬ ric air, which we owe to M. Biot. FLUIDS AND SOFT SOLIDS. Ether expanded by heat to thrice its volume 1-0570 Br. Volatile new fluid discovered by Sir D. Brewster in ca¬ vities in topaz 1-1311 Br. Volatile new fluid discovered by Sir D. Brewster in ame¬ thyst, at 834° Fahr 1-2106 Br. Second new fluid discovered by Sir D Brewsterin topaz 1.2047 Br. Nitrous oxide, liquified f much less ) p by pressure ( than water f Muriatic acid 1 ) 1 gas, do f nearly l much less / ^ Carbonic acid f equal f than water f gas, do J 3 3 r J rather less Chlorine ) liquified by\ than water / Cyanogen i pressure f perhaps less f (. ( than water 3 Ho. do. do 1-316 Br. Sulphurous acid, liquified | same as ) r / F. N. Index of Refraction. f 1 -336 W. Vitreous humour of eye ... •< 1 -3394 Br. U-340 lamb 1-345 pigeon 1 353 by pressure \ water Water 1-336 ) W. C Br. fixed line E* 1-33585Fr. Aqueous humour of the eye 1 -3366 Br. of haddock 1-341 Br. Y. Saliva 1 ‘339 Expectorated mucus 1 -339 Salt water 1 ‘343 C 1 -344 Vinegar, distilled •) 1-372 ( 1 -347 Acetic acid 1-396 Jelly fish (medusa sequorea)... 1 -345 White of an egg 1-351 , , , 11 -359 — a hens do ji.36i Port wine 1 '351 Human blood 1-354 Saturated solution of alum and water 1 '356 Oil of boxwood 1 '356 ^ , f 1 358 Ether \ 1-374 Albumen ...1-36 Brandy 1-360 Rum 1 '360 , , • S 1 '368 Oil of ambergris j j .379 Alcohol 1-37 sp. gr. 0 866 j } |7, f 1 372 rectified spirits... -< 1-374 C 1 377 Saturated solution of salt 1'375 Muriatic acid 1-376 i 104 5 1 392 sp.gr. 1-131 jj.gg! strong 1-401 highly concen- Br. Y. Br. Y. Br. Y. Br. Y. Br. Y. Br. Eul. H. Br. Y. Br. Br. Eul. Br. Y. Br. Br. Y. Br. Y. He. Br. Y. W. Br. Y. W. Br Y. Br. Y. Br. Br. Y. W. N. C. He. Br. Br. Y. C. Br He. Br Y. Br. trated 1-4098 Bi. Br. He. Index of Refraction. Solution of potash, sp. gr. 1-416; fixed line E l’40563Fr. O’410 Br. Y. Nitric acid, sp. gr. 1-48.... Oil of wine 1-379 Sweet spirit of nitre 1-384 Cornea of a lamb 1 ’386 Malic acid 1-395 Br. pus 1-404 Br. Y, _ j. ., j 1-396 Br. Nitrous acid ^ j .4Qq Br. y. Nitric acid 1-406 Br. Crystalline lens of man, outer coat 1-3767 Br. middle coat 1-3786 Br. centre 1-3970 Br. lamb’s eye, outer coat 1 "386 Br. Y. middle coat 1 428 Br. Y. centre 1-436 Br. Y. pigeon 1-406 Br. Y. .haddock’s eye, outer coat 1-410 Br. Y. centre 1-439 Br. Y. (1 3801 w. of the ox < l -447 j ( 1 -463 Eu. Juice of orange peel 1-403 Br. Y. 11-410 1-412 Hydrate of soda, melted by heat 1-411 Hydrophosphoric acid, do 1-423 Phosphoric acid fluid 1-426 Yolk of a fresh egg 1-428 f 1 -429 1 430 1-435 (. I -440 j 1 -433 • ( 1-449 1-437 Hydrophosphoric acid, cold | j.442 Spermaceti, melted j Oil of wax 1-452 Oil of wormwood 1-453 Sulphuric acid, sp. gr. 1-7 Oil of rhue Phosphorous acid.. W. C. Br. Y. Br. Y. Br. Br. Y. N. He. W. Br. Br. Br. Y. Br. Y. Br. Y. Br. W. Br. Y. C. Br. boiling 1-4416 M. Bees’ wax, melted 1 -453 melting 14503 boiling 1-542 f 1-457 \ 1 -476 ( 1 -457 ] 1 -467 (1-475 Tallow, melted 1-460 White wax, melted T462 , j 1-467 Oil of poppy \ 1-483 ) 1-468 l 1-473 rv. f J 1,469 Br- Oil of rosemary ■< j pr_ y. rvi c ! 1-470 Br. Oil of spermaceti < j. jyg pri y, ( 1 469) w> rvi r 1 J T470) Oil 01 almonds -< j Cl-483 Br. Y. Oil of turpentine, rectified ...1-470 Spirit of turpentine, sp. gr. 0-876.. 1-471 1-475 Oil of camomile. Oil of lavender. Oil of peppermint. Br. Y. M. W. Br. Br. Y. Br. W. Br. Y. W. Br. Y. Br. Br. Y. W. Br. Y. Br. W. N. Br. Br. Y. C. w. He- f 1 "47^ Oil of turpentine ^ 1 476 Cl-482 f 1-476 common -! sp. gr. 0-885, fixed line E 1 -47835Fr- f 1-467 N- | 1-469 W- Oil of olives, sp. gr. 0-913 -{ 1-4-70 Br. | 1-4705 He. 1 1-476 Br. Y. f 1-471 Oil of bergamot ] .473 Oil of birch, distilled from I T470 spermaceti. 1-471 Br. Br. Y- Br- Y. Br. 1 Taken when the temperature was 32° Fahr., and the barometer at 29-922. * The fixed line E is given in this Table for several substances, as it is in the green space, and nearly the mean ray. Index of Refraction, ^ Oil of beech? 1*471 Br. "Oil of juniper 1*473 Butter, cold 1 *474 Palm oil 1 ‘480 „ , f1-475 Oil of rape seed j (.475 Naphtha 1'475 Essence of lemon 1 *476 „ . f 1477 Oil of dill seed | j >487 i 1477 Oil of thyme j Oil of cajeput 1478 Naples soap 1 *483 Oil of mace, melted 1479 Oil of spearmint { 1481 1490 \ 1*4 Oil of lemon j j .481 of pennyroyal | j.4 Oil Linseed oil, sp. gr. 0-932. •489 482 1485 1-482 . 1485 Oil of savine 1 487 . 1 1482 Train oil 1 491 Oil of wormwood j | Castoro11 {l485j Florence oil 1490 Oil of fenugreek | J >4gg Oil of hyssop j J Windsor soap 1 •487 r 1490 Nut oil, perhaps impure.... ■< 1 491 ( 1 507 Tallow, cold | J Oil of caraway seeds | j m r ■ ( 1490 Uil ot marjoram -j j ! Oil of nutmeg j j Oil of angelica j J Bees’ wax 1-507 ) Br. Br. Y. W. Br. Y. Br. Br. Y. W. Br. Br. Y. Br. Br. Y. Br. Y. Br. Br. Y. Br. Y. Br. Br. Y. Br. Br. Y. Br. Br. Y. N. W. Br. Y. Br. . Br. Y. cold 1492 j ~~— white wax, cold 1 '535 Balsam of sulphur j j _4jj7 Honey 1495 Grass oil 1496 freacle 1-500 Oil of beech nut 1-500 ( 1 *50° ) Oil of rhodium ^ 1-505 J ( 1 -503 ) 1-503 y Br. Br. Br. Y. Br. Br. Y. Br. Y. He. Br. Y. Br. W. Br. Y. Br. Y. Br. Br. Y. Br. Br. Y. W. Br. Y. Br. Br. Y. W. Br. Y. Br. Br. Y. Br. W. Br. Br. Y. spermaceti, cold 4 ( i 'UOO w . _ C 1.503 7^ v Ju of pimento -] l -510 } -tsr* x* C 1-507 Br. Oil of amber. f 1-505 W. birdlime...... 1*506 | ®r' Oil of sweet fennel seeds... { } f ^r* ( 1-507 Br. Y. lalsam of capivi. ^ l-oO/ W. P l 1-515 Br. Y. t j ( 1 *528 W. "dna(la balsam 0 i -532 Br. Y. C1-549 Br. Br. Y. Br. W. Eu. Br. Y. Eu. W. Br. Y. Br. Y. Eu. Br. Y. Br. Br. Y. Br. Eu. Oil of cinnamon. OPTICS. Index of Refraction. Oil of cinnamon 1 -508 Br. Oil of mace 1 -519 ) f 1 -522 j Oil of sassafras -) j C 1-544 Balsam of Gilead 1 -5-29 f 1 514 Oil of tloves 2 1 -535 C 1 *539 Oil of cashew nut 1-536 ( 1*519 Oil of anise seed 1-536 C 1-601 Petroleum 1-544 Oil of tobacco 1-547 ) Balsam of styrax 1 -584 j f 1 -534 ) 1-589 ) ) 1 -604 C Br. Y. L 1 -632 ) Balsam of Peru, mean 1-600 ) ^ Essentialoilof bitter almonds 1-603 } “r* { ^ G26 ) g y Oil of cassia ■< J ' (l 647 f-Br. Sulphuret of carbon I -678 j Muriate of antimony, vari¬ able, about 1 8 W. SOLIDS. Tabasheer from Vellore 1-1111 Br. Nagpore 1-1454 Br. ditto 1 1503 Br. whitest kind 1-1825 Br. f 1-3085 Br. (1*310 W. Cr),oli,e ----I US! Carbonate of potash, lowest refr 1 -379 Gluten of wheat, dried 1-426 {S Alum 1-457 sp. gr. 1-714 ^ Ice Br. 1 -488 Br. Br. Y. W. Br. W. W. Br. Y. Sulphate of magnesia | J*^ j Br., Borax,sp.gr. 1-7149 { ^C* Pluellite 1-47 W. Gum Arabic, sp. gr. 1-375... 1467 N. Gmelinite 1-474 J R Opal, partly hydrophanous ...1479 | "r* Arseniate of soda, least 1479 ( „ greatest ...1481 f a* Sulphate of ammonia and magnesia 1483 Ca,"phor j 1*196 Br. Y. sp. gr. 1-0996 1-500 C. N. Obsidian 1488 Br. Iceland spar, ext 1-488 W. ditto 14833 M. fixed line E, do. 1-4887 Ru. ord 1-657 W. ord 1-6543 M. fixed line E, ord 1 -6636 Ru. ord 1-667 N. ord 1-665 Sulphate of iron, greatest 1-494 Sulphate of potash j J Rochelle salt, mean, green... 1-4985 He. red 1-4929 He. tartrate of potash and soda 1 *515 Br. Br. Br. W. Br. 385 V n r 1 index of Refraction. Dioptrics- Yolk of an egg, dry J -500 Br. Y. \ P Triple oxalate of chromium and potash, least 1-506 ) ^ > Br. greatest ...1-605 W. Glass plate, English 1-500 » — French 1-50 f English, ext. ) 1-5133 He. redray / 1-514 Bose. Dutch 1.517 ) crown 1-525J W* ~~— crown, prism Dollond, ext. red ray 1.526 He. crown, prism Dollond, 1-5109 Br. crown, Fraunhofer, No. 13, sp. gr. 2-535, fixed line E> 1-5314 Fr. do., No. 9, fixed line, sp. gr. 2-535 1 -5330 Fr. Fraunhofer, sp. gr. 2-756, fixed line E, 1-5631 Fr. bottle 1-582 Starch, dry 1 504 Stilbite 1-508 Gum scammony 1-510 Gum Arabic 1-512 •— not quite dry { Human cuticle Br. Br. Y. Br. Br. Y. Br. Br. Y. W. {!'!!?} Nitre, least index 1-335 Br. greatest 1-514 Br. —™ sp.gr. 1-9 1 -524 N. Dantzic vitriol, sulphate iron 1.515 N. Nadelstein from Faroe 1-5153 Br. Mesotype, least 1-516 ) greatest 1-522 4 Br. Sulphate of zinc, ordin. refr. T517 3 Myrrh gum j Br' Y' Tartaric acid, least 1 -518 C Br. greatest 1 -575 3 Wavellite 1-52 Gum dragon, (tragacantb), | |.gg° Glass—borax, 1 ; silex, 2 T528 j 1-521 Gum or shell lac ' 1 -525 1 (. 1 528 j C 1-524 Caoutchouc -] 1 -534 C 1 -557 Selenite, sulphate of lime 1 -525 W. Br. W.1 Br. W. Br. Y. W. Br. Br. Y. W. greatest refraction 1-536 A selenites, sp. gr. 2 252 1-488 Citric acid 1-527 Leucite l -527 Crystalline of ox and fish, dried I -530 f 1-531 Pitch J 1*581 ) 1-586 C 1-58 Sulphate of copper, least f 1-531 1 refraction j 1.552 J Br. N. Br. Br. W. W. Br. Br. Br. Br. Y- Br. Olibanum gum i ^ ^ 1 *54?4 Glass of phosphorus, phos¬ phoric acid fused 1-532 ) Solid phosphoric acid 1 -544 C Br. Glass of borax, fused borax... 1 532 3 Manna 1-533 Br. Y. Arragonite, ext. index I 5348 M. ord 1-6931 M. 1st axis of elasticity 1-5326 Ru. 2d ditto 1-6863 Ru. 3d ditto 1-6908 Ru. Arseniate of potash 1-535 W. 3 c VOL. XVI. Dr. Wollaston informed us that he had mistaken Dragon’s Blood for Gum Dragon. 386 Dioptrics. Fahl unite .1-535 1-535 Elemi gum 1 547 ' 550 1-535 549 568 35 546 1 535 549 ■553 536 1 541 Mastic gum , Anime gum Copal gum. Index of Refraction. Br. W. Br. Y. Br. Y- W. Br. Y. Br. W. Br. Y. W. Br. Br. Y. W. Br. Y Br. Y. Br. f 1-5 ( It fl-S Jl-i [l-l 5 1-53 ’ l 1-54 li: (V Sugar, white. melted 1-548 Felspar 1 536 Mellite, least 1 '538 } greatest 1 '556 ^ T . | 1-538 Jumper gum j j 541 Carbonate of barytes, least...1 540 Boxwood 1 -542 Colophony 1 543 Apophyllite, 1 -5431 Carbonate of strontian, least 1 -543 4 greatestl-700 > Br. Dichroite, lolite 1-544 ) Rock salt, sp. gr. 2-143.... Chio turpentine, mean 1-551 Sagapenum gum 1-545 Turpentine 1-545 Burgundy pitch, mean 1-558 Gum thus, mean 1-550 Rock crystal, ord 1 -547 ext 1 -562 — ditto 1 -563 Amethyst 1-562 Quartz, ord. ray 1-5484 M. ext 1-5582 M. ord., line E 1-5471 R. ext. ditto 1 -5563 R. Amber 1-547 sp. gr. 1 -04 1 -556 Resin, mean 1 554 Glue, nearly hard I -553 Chalcedony 1 -553 Comptonite 1-553 ^ i 1-559 Hyposulphate of lime, mean red ray 1-561 mean green 1 -566 Dragon’s blood 1 562 TT f 1 -565 Horn— i 158 Wernerite, ext 1 563~] ord D594 j Baryto-calcite, least 1-565 |> Br. greatest 1-701 | Glass, pink coloured 1-570J Assafcetida D575 m 1-576 Flint glass, var. specimens Br. Br. Br. Y. Br. W. W. He. Br. Br. ' Br. Y. Br. W. Br. W. W. W. N. Br. Br. Y. Br. Br. Br. Y. W. He. He. Br. Y. Br. W. OPTICS. Index of Refraction. Prussiate of potash 1-586 Br. Anhydrite, ord 1-5772 Bi. ™.™.™™„ext 1-6219 Bi. Gum ammoniac 1 "585 Hyposulphite of lime, least... 1-583 greatest 1 -628 Emerald 1-585 Benzoic gum, mean D591 Tortoise shell 1*591 f 1 -596 Guiacum gum 1-600 (1-619 Beryl 1 '598 Balsam of Tolu D60 mean 1 618 Siliceo-carbonate ot zinc and iron, least D6005 Br. greatest 1-8477 Br. Hopeite, ord DOOl'l Glass, ruby red 1601 | Meionite 1 -606 Br. Iron sinter ...1-606 | Glass, purple coloured 1-608 J Resin of jalap 1-608 Br. Y. Hyposulphite of strontian, least ‘SI Re. greatest 1-651 J Topaz, colourless 1-6102 Bi. . 1st axis of elasticity... 1-6145 Ru. 2d ditto ditto 1-6167 Ru. 3d ditto ditto 1 -6241 Ru. bluish, from Cairngorm 1-624 Br. Brazil, ord 1-6323 Bi. ext T6401 Bi. blue Aberdeen 1 -636 ^ yellow 1-638 V Br. red 1 -652 ) Siliceo-carbonate of zinc from Aachen, least 1-6173 Br. — greatest 1 -6395 Br. , rr,rr from Bohemia, least 1-600 greatest I -848 t 1-5 ]!•£ ( 1-5 Br. Y. Br. He. W. He. Bose. Br. He. 578 583 f 1-584 j 1-594 extreme red <( 1-596 | 1-601 L1 -604Br. Bose Fraunhofer, No. 3, line E 1.6145 Fr. No. .30, line E, 1 -6374 Fr. No. 23, ditto 1-6405 Fr. No. 13, ditto 1-6420 Fr. Glass, bright green, ]-6l5\ t> Castor, 1 -623 j Sulphate of barytes, ord T6352 M. ext 1 -6468 M. ord 1-6201 Bi. ord. yel¬ low, green rays 1-6460 He. — another specimen, redrays 1 6459 He. yellow, green rays 1 6491 do-topazus, sp. gr. 4-27....T643 N. do. do...1 646 W- Muriate of ammonia 1-625 Br. Aloes 1-634 Br. 1 Glass, opal coloured 1 635 Br. Euclase, ord D6429 Bi. ext 1-6630 Bi. Sulphate of strontian ,...1-649 Glass, hyacinth red 1647 Mother-of-pearl 1-653 Spargelstein T657 Epidote, least 1-661 }■ Br. greatest 1-703 Tourmaline 1 -668 Chrysolite, least 1 660 greatest 1 -685 Chioruret of sulphur 1-67 p Nitrate of bismuth, least T67 C He. greatest 1’89 ) Glass, orange coloured I -695 1 t> Boracite D701 J r’ Index of Refraction. Glass, tinged red with gold...1 •715'] deep red 1 729 | Euchroite, least T709 }- Br. Nitrate of silver, least 1-729 | greatest....!-788J Hyposulphite of soda and silver, least 1 -735 He. greatest 1 -785 He. Axinite 1-735-1 Nitrate of lead T758 / « Cinnamon stone 1-759 C r’ Chrysoberyl 1-760 J C 1-756 He. Spinelle K 1-761 Br. (1-812 W. Felspar, greatest refr D764 Br. Sapphire, white P768 W. — blue 1-794 Br. u . i 1-768 He. Kubellite y Ruby 1-779 Br. Zircon, orange coloured 1-782 Br. Glass lead, (flint) 1 "787 Ze. Pyrope 1-792 Br. Labrador hornblende 1"80 He. Arsenic 1 "84 W. Carbonate of lead, least 1-813 Br. greatest...!-084 Br. Garnet 1-815 Br. Borate of lead, fused, extreme red ray 1-866 He. Sulphate of lead 1 ■925 Br. Withamite, least 1931 Br. greatest 1-960 Br. Glass, lead 2—sand 1 1-987 W. Zircon 1-95 W. least refraction 1-961 Br. greatest ditto 2-015 Br. f 1 958 Hair c , , J 2-008 Br. 1 Sulphur, native < 2.04 w. (.2-115 Br. melted 2-148 Br. Calomel 1-970 Tungstate of lime, least 1 '970 > Br. greatest....2-129) Glass, lead 3—flint 1 2-028 Ze. Scaly oxide of iron 2-1 Y. ‘1-889 N. Diop. Glass of antimony. Silicate of lead, atom to atom, extreme red 2-123 f 2-125 Phosphorus, -j 2.204 Blende 2-260 Nitrite of lead, biaxal, in six- sided prisms, ord. ray 2-322 (2-439 Diamond, sp. gr. 34 -j 2-470 brown coloured... ^2-775 5 from 2'04 Plumbago | t0 2-44 . Chromate of lead 2-479] another kind, j least refraction 2'503 | another kind, do.2-508 Br. another kind, greatest refraction 2-97l another kind, do..2'926j W. Octohedrite 2"500i Realgar, artificial 2"549 J- Br. Red silver ore. 2-564 ) H, Hauks- calculated the indices from Sir David Brewster’s observations. Deduced from its polarising angle, which was 65°. OPTICS. 387 i ’s. If light is regarded as consisting of material particles, it must move with greater velocity in bodies than in vacuo, in the proportion of the sines to which the refraction of these bodies is proportional. The power of bodies, there¬ fore, to refract and reflect light, must be inversely propor¬ tional to their specific gravities ; for if a body of small spe¬ cific gravity has the same index of refraction as a body of great specific gravity, the former must have exercised a greater absolute force upon light than the latter. On the hypothesis of emission, it has been shewn by Sir Isaac Newton, that the absolute refractive power of bodies is proportional directly to the square of the cosine of their Dioptrics, maximum angle of refraction, and inversely to their specific gravity; that is, calling R the absolute refractive power, m the index of refraction, and D the density of the body, we m 2 1 shall have R=——, a formula by which the following table of absolute refractive powers has been computed. The numbers marked Dulong, were, we believe, computed by Sir John Herschel, from the refractive indices given by Dulong in the preceding table. Table of Absolute Refractive Powers. Index of Refraction. Tabasheer 0-0976 ^ Cryolite 0-2742 C Brewster. Fluor spar 0-3426 ) Index of Refraction. Dulong. Dulong. Newton. Dulong. Biot. Newton. Oxygen 0-3799 Sulphate of barytes.... | Q.ggy^ Sulphurous acid gas 0-44.55 ' Nitrous gas 0-4491 j ( 0-4528 Air ] 0-4530 ( 0-5208 Carbonic acid gas 0-4537 | Azote 0-4734 > Dulong. Chlorine 0-4813 J Glass of antimony 0-4864 Newton. Nitrous oxide 0-5078 4 ^ , Phosgen 0 5188/Dulon£- Selenite 0-5386 Newton. Carbonic oxide 0-5387 Dulong. Quartz 0-5415 Mains. Common glass 0 5436 \ Newton- Muriatic acid gas 0-5514 Dulong. Sulphuric acid 0-6124 Newton. cx,Qr 5 0 6424 Malus. Calcareous spar j 0-6536 Newton. IVUro j 0 6440 Brewster. * »™I!0 Newton. Muriate of soda f 07100 Brewster. Alum 0-6570 Newton. Nitric acid 0-6676 Brewster. Borax 0-6716 Newton. Hydrocyanic acid 0-7366 Dulong. Ruby 0-7389 Brewster. Sulphate ofiron 0-7551 Newton. Muriatic ether vapour. ...0 7552 Dulong. Brazilian topaz 0 7586 Brewster. Rain water 0-7845 Newton. Flint glass, mean .0-7986 Brewster. Cyanogen ,..0 8021 7 n , Sulphuretted hydrogen...0-8419 } u ong. Gum Arabic 0 8574 Newton. Sulphuret of carbon va- 'j pour 0-8743 | Sulphuric ether vapour...0-9138 |> Dulong. Protosulphuretted hydro¬ gen 0-9680J Index of Refraction. Ammonia 1 -0032 ) Alcohol, rectified 1-0121 | Uulong- Carbonate of potash 1-0227 Chromate of lead 1 0436 Olefiant gas 1 0654 Muriate of ammonia 1-0788 Carburetted hydrogen.... 1-2204 Camphor 1-2551 Oil of olives 1-2607 Oil of linseed 1-2819 Spirit of turpentine 1-3222 3 Bees’ wax 1 -3308 Amber ...1 3654 Octohedrite 1-38161 Bi sulphuret of carbon...1-4-294 J Diamond 1 4566 Oil of cinnamon 1-4944'} Oil of cassia1 1 6184 1 Realgar 1 -6666 Ambergris 1-7000 Sulphur 2-2000 Phosphorus 2 8857J Hydrogen 3-0953 Dulong. | Brewster. Dulong. Brewster. Dulong. > Newton. Malus. Newton. Brewster. Newton. Brewster. The results given in the preceding tables are susceptible of increased accuracy, not only by taking accurate mea¬ sures of the indices of refraction of the bodies, in relation to the fixed line E of the spectrum, but also by obtaining more accurate measures of their specific gravities. Sect. II.—On the Refraction of Rays by bodies with plane and spherical surfaces. Having shewn how to find the refracted ray, when the incident ray is given, and the constant ratio of refraction which belongs to any transparent body, we may trace the progress of rays through bodies of any form whatever, pro¬ vided we have the lines given which are perpendicular to the surface of the body at the points where the rays fall upon it. In all spherical surfaces this perpendicular is a line drawn through the point of incidence and the centre of the spherical surface; and in all other cases it is a line perpendicular to a line touching the surface at the point of incidence. The names of prisms and lenses have been given to those transparent bodies which are most useful in optical experi¬ ments, and in the construction of optical instruments. Sec¬ tions of these different refracting bodies are shewn in the annexed diagram. Fig. 21. B O DEPGHI 1. A prism, represented in the figure at A, is a solid piece of glass, having three plane surfaces, AR, AS, RS, which are called its refracting faces, the light passing through any two of them. 2. A plane lens, B, is a lens, the centre of whose surfaces are infinitely distant. Its sides are therefore parallel like a piece of plane glass. 3. A spherical lens, C, is a lens whose surfaces have the same centre, and is consequently a sphere or a part of one. 4. A double convex lens, D, has two convex spherical surfaces, whose centres are on opposite sides of the lens. It is said to be equaily convex when the radii of its two sur¬ faces are equal ; and unequally convex when the radii are unequal. 5. A plano-convex lens, E, is a lens which has one of its surfaces flat or plane, and the other convex. 6. A double concave lens, shewn at F, is a solid bounded by two concave spherical surfaces. It is equally concave when its surfaces have the same radius, and unequally con¬ cave when they have different radii. 7. A piano concave lens, G, has one of its surfaces con¬ cave and the other plane. 8. A meniscus lens, H, has one of its surfaces concave and the other convex, the two surfaces meeting if continued. The convexity predominates, and it acts as a convex lens. 9. A concavo-convex lens, I, differs from the meniscus only in the circumstance that the two surfaces do not meet if continued. Hence the concavity predominates, and the lens acts as a concave one. 1 Assuming the specific gravity to be 1-044, the same as oil of cinnamon. 388 OPTICS. Dioptrics. 10. A cylindrical lens is shewn 'at M; it is merely a cylinder of glass, or any other transparent body. 11. A •piano-cylindrical lens, shewn at N, has one of its surfaces plane and the other cylindrical. 12. A transverse cylindrical lens, shewn at O, resembles two piano-cylindrical lenses, plane transversely, or with their lengths at right angles to each other, and joined together by their plane sur¬ faces ai a b c d. Refraction through Prisms. Fig. 22. As prisms are essential parts of optical instruments, and are of peculiar value in experiments on light, it is necessary to have a correct idea of the phenomena which they exhibit, in refracting rays of light. Let ABE be a prism of two equal sides BA, BE, and made of glass whose index of refraction is 1-500, or whose ratio of refraction is as 1-500 to 1, or as 3 to 2, and let IIC be a ray incident on its first surface at C. It is required to determine the path of this ray after it has suffered re¬ fraction at both its surfaces AB, BE. From any scale set off CG equal to 10 divisions, and CR equal to 15, and through G draw GD per¬ pendicular to AC. From the point C, and on the line CD, set off CD equal toCR, and through DandCdrawDCc,—Cc will be the refracted ray. From a scale on which Cc is 10, set off CcGequal to 15 parts, and drawing gd perpendicular to BE, make coequal to cC, and draw through d and c the line dcr,— cr will be the path of the ray refracted by the second sur¬ face BE of the prism. When the radius Cc will not reach the perpendicular gd, the ray Cc will not be refracted at all, but will suffer total reflexion. When total reflexion com¬ mences, the point d will fall in the line EB, and the per¬ pendicular gd will touch the circle described with the radius cC round c, at the point d. At all greater angles of inci¬ dence the ray Cc will be totally reflected. The sine of the angle of incidence at c, when the ray Cc is not able to emerge from the prism, but suffers total reflexion, will be found in the case of plate glass (whose Fig. 23. index of refraction is 1-500), to be equal to or -, or 1-500 3 0-666 ; the angle corresponding to which is 41° 48'. The total reflexion which thus takes place within trans¬ parent bodies, is a very remarkable and highly interesting phenomenon. The light is far more brilliant than what is obtained from the brightest silver, which gives more reflect¬ ed light than any other metal; and it possesses curious phy¬ sical properties, which will be explained in a subsequent part of the article. The phenomenon of total reflexion may be finely seen by filling a tumbler-glass with water, and placing it above the head so as to see the image of a candle reflected from the lower side of its surface when at rest. The brilliancy of the image surpasses that of every other species of reflexion. Diamonds, precious stones, and the glass ornaments of chandeliers, &c. &c., are often cut so as to send to the eye light that has suffered total reflexion. Di0», The brilliant white lustre of dew-drops arises from totally reflected light. To a person under perfectly still water, the vision of ob¬ jects either out of the water or on the bottom, must be very singular. The whole visible heavens, in place of being a hemisphere, will appear like a cone, with an angle of 97°. “ All objects,” says Sir John Herschel, “ down to the hori¬ zon, will be visible in this space, and those near the horizon much distorted and contracted in dimensions, especially in height. Beyond the limits of this circle will be seen the bottom of the water and all subaqueous objects, reflected, and as vividly depicted, as by direct vision. In addition to these peculiarities, the circular space above mentioned will appear surrounded with a perpetual rainbow of faint but delicate colours.” In order to understand this, let MN be the surface of the water, and E an eye at the bottom. Let DE be the direction in which a horizontal ray ND, would be Fig. 24. refracted at D, and CE the ^ ^ direction in which MC would be refracted at C. Then it is clear that all objects on the horizon will be seen in the di¬ rections ED, EC, and as the same is true in every azi¬ muth, ACEDB will be a section of the cone, which will comprehend within it all objects in the visible horizon. The sun and moon will appear to rise at A and set at B. They will have the appearance of ovals, with their smaller diameters vertical. They will quit the horizon, and descend to it again very slowly, as the angle of refraction varies very slowly from 90° of incidence downwards. If a man fishing near N stands up to his knees in water, his knees will just be seen above the water, in the direction EB, and his body standing within the cone BE A, while his legs will be seen bright, and inverted in the direction of about EN, by the total reflexion of the lower surface MN, of the water. If we draw Cc and De?, making the angles cCE, JDE, equal to CED, then all objects in the water, to the right hand of d, and to the left hand of c, will be seen by total reflexion from the inner surface MN of the water, in the space surrounding the cone AEB. An object at c will be seen by reflexion from the point C, in the direction EC, and an object at d by reflex¬ ion fi’om D; but none of the objects between c and d will be seen by reflexion to the eye at E. Hence we see the reason why the fisherman’s legs, like other objects under water, will be seen by total reflexion in a direction near to EN. The circular rainbow, or rather fringe of colours, which separates the objects out of the water from those which are beneath it, and seen by total reflexion, is that band of colour which always bounds light that is totally re¬ flected. It frequently happens, both in optical experiments and in optical instruments, that light is refracted at the surfaces of two media placed in contact, such as water and glass, and in compound lenses of flint and crown glass, either touching one another or united by a cement. In all such cases, it is necessary to determine the refraction which light experiences at their refracting surface. It is found by experiment, and may be proved theoretically, that the index of refraction for the sepa¬ rating surfaces of media is equal to refractive, divided by the least re¬ fractive medium. Thus, the in¬ dex of refraction for the separat¬ ing surface of water and plate glass will be or 1'122, which is r33b nearly the same as that of tabasheer. In ord r, therefore, to find the re¬ fracted ray in this case, let MN be Dio OPTICS. cs. a parallel stratum of water resting upon a piece of parallel glass OP. A ray RC, will be refracted in the direction Cc', and may be found by the method formerly given. In order to find the change produced in the direction of the ray at d, take a point/, in the line cT, so that if c'C is H22, c'ff' shall be 1-000, then drawing y'd' perpendicular to the refracting surface, make c'd' equal to c'C ; and hav¬ ing drawn through the points d', c' the line d'cY, c'c will be the refracted ray. This ray being incident on the second surface of the glass plate at c, will be refracted in a direc¬ tion cr, which may be found by the method formerly de¬ scribed. It will be found both by projection and by ex¬ periment, namely, by looking through the compound plate MNOP, and observing any distant object, that the finally refracted ray cr is parallel to the incident ray RC. If the angle RCA, fig. 23, the complement of the angle of incidence, is increased, the point c, where the refracted ray emerges from the side BE of the prism, approaches to E, and the angle rcE diminishes, till at a particular inclination of the incident ray, the angle RCA will become equal to the angle rcE. When this happens, the refracted ray Cc, will be equally inclined to the refracting faces of the prism BA, BE, and will be parallel to the base AB. This will be obvious by considering Cc as an internal ray incident on both sides of the prism, and at equal angles to each, in which case it will suffer equal degrees of refraction, and therefore be equally inclined to the refracting faces. If the eye is placed at v to receive the refracted ray cr, it will see the luminous body, such as a candle, from which the ray RC proceeds^ in the direction rc, and the angle which this ray rc forms with RC, will be the deviation of the ray produced by the refraction of the prism. Let us now suppose the candle to be fixed, and the prism turned icund, so that the angle RCA may be increased, it will be found experimentally, and may be easily proved by projec¬ tion, that the deviation of the ray rc is least when the angle KCA is equal to rcE, or when Cc is parallel to AE, and in¬ creases when Cc deviates on either side from this mean po¬ sition. Now this position may be easily ascertained by p acing the eye behind the face BE, and turning the prism till the refracted image of the candle, or other object, be- comes stationary. When this takes place, Cc is parallel to Ah or CcA is an equilateral triangle; and it may easily be shewn, by similarity of triangles, or by projection, that IIP finer p ~ ^ 389 which the image of the candle becomes stationary, the in-Dioptrics dex of refraction will be found as before. Refraction through Plane Glasses. Every person is acquainted with the fact that light which passes through plane glasses, or glasses which have their two surfaces flat and parallel, like MN, in the annexed figure, does not suffer any very perceptible change, either Fig. 27. in its general direction, or in the parallelism, convergency, or divergency of its rays. If AB, A'B', for example, be two parallel rays incident on the plate of glass MN, they will suffer equal refractions at B, B', because they are incident at the same angles, and the refracted rays BC, B'C', will there¬ fore be parallel. These parallel rays again falling upon the second surface at C, C' will suffer equal refractions there, and will emerge parallel in the lines CD, C'D'. Hence we conclude that parallel rays after transmission, at any obli¬ quity, through a plane glass, will emerge parallel. But as the rays DC, D C , will, to an eye at D and D', be seen in the directions DCa, D/C/a', their absolute directions in space are altered, and the difference between the real and the visible direction will increase with the obliquity of the rays AB, A'B', and with the thickness of the plate of glass. If we suppose MN to be part of a looking-glass, silvered on its lower side CC', then the refracted rays BC, B'C', will, after i eflexion at C,^C', in the directions Cc, C'c', be refracted at c, c', into the parallel directions c<7, c'd. But the rays AB, A'B', will be reflected, though in a much fainter degree, in the directions A&, A. b, so that an eye placed so as to receive these rays, will see the bright image reflected from the sil- fj,p C "y piujeuuun, uiHi vered surface, in the direction dc, and the faint ima«-e re- L m k {/the mil “ r ^ABE "Sf"* “ '“f fected/rom fost «■*&<*, to the direction 6B, at a dis- ft,,. T J tne prism, oi 2 ABE. Hence we obtain the tance from each other depending on the obliauitv of the l aviml meT15 G/U ul01 findmg the index of refraction, after reflexion, and on the thickness of the plate. A candle for ofl- f, easured>w Ah a goniometer or otherwise, the angle example, will be seen double at a short distance from’the £Sne S° 'iCT1?'emfnt0< ,thersleRCA- Dh*fe mlrrOT; a larger object, in order to bl seen donble! uwle of th > * g 6 0i, by the sine of half the must be viewed at a greater distance. At great obliquities •efraction PriSm’ ^ ^ qUOtient wdl be the index of and when the objects are very luminous, such as gas-burn- F , • . . ers, &c., other images will be seen . . PurPOse of measuring indices of refraction, we do by reflexions at c, c', and subse- arps ,qT regu fr PJ^ms of considerable size. Two small quent reflexions from the other 'e S^aiHilaial tolerably polished, are sufficient for this side of the plate. If the two '111 D0S(\ I „ 0 n.i tL Fig. 28, >urpose. They need never be arger than the pupil of the eye, and nil answer well enough if they are *1 tne size of a pin’s head. If we wish 0 measure the index of refraction fluids, we have only to place a mp of the fluid at the angular point £ , of twopieces of parallel glass fixed aWle by a Piece of wood or ax Enough of the fluid for *e purpose will be retained, by faces of the plate are not exactly parallel, the bright and faint ima¬ ges above described, will change their distance, sometimes over¬ lapping each other, and some¬ times separating, according to the part of the plate on which they fall, though the angle of in¬ cidence may remain the same.1 When diverging and converg¬ ing rays pass through a plane miliary nH,.o . m9 rays pass through a plane ioan-leBAF Til -e p0mJ and after measuring glass, their degree of divergency » AE of the prism, and the angle of incidence at and convergency is altered by it, ' rtie!6 ^differed frolTaufcel ^ t0 US * Semleman> who valued it on account of its remarkable pro- m uuui au tne rest m nis possession, only in its being the worst. 1 390 OPTICS. Dioptrirs. and also the position of the points of divergency and conver- Hence we have for different refractive bodies the follow-Dhp; t a RR' ho ci npnril nf ravs diverffinsr from A, and mg results .— 'gency. Let ABB' be a pencil of rays diverging from A, and incident upon the plane glass MN. The emergent rays CD, C'D', will, after their second refraction at C, C', proceed as if they had come from the point 6, and their angle of di¬ vergency will now be 6BBr. Hence a plane glass biings the divergent point of diverging rays nearer to it, and in¬ creases the angle of divergency. For the same reason, if D&D' is a converging beam of light, its point of convergency b, will be removed to A by the plane glass, or its angle of convergency will be diminished. When there is only one refraction, as in the case of stand¬ ing water, whose surface is BB', and bottom GC', then the very reverse will be the result. A diverging beam ABB will have its divergent point removed to a, and a converging beam would have it brought nearer the surface. Refraction of Rays by Spheres. When a ray of light falls upon a curved surface of any kind, the infinitely small part of the surface which it occu¬ pies may be considered as coinciding with the tangent to the surface, or with a plane surface touching the curve at the point of incidence. When the surface is spherical, tins tangent plane is perpendicular to the radius, or the line drawn from the centre of the sphere to the point of inci¬ dence. Hence it is always given when the centre is given. Let MN be the section of a sphere of glass, whose index of refraction is 1*500, as before, RS/ a ray passing through Feet. ...301 ...153 ...141 ... 36 ... 0 Inches. 11 Fig. 29- ins results Index of refraction. Tabasheer, FSisto ES as 1*111 is to 0*222 Water, FS is to ES as T336 is to 0*672 Glass, FS is to ES as 1*500 is to 1*000 Zircon, FS is to ES as 2*000 is to 2*000 Hence it appears that in the case of zircon, and all other bodies whose index of refraction is 2*00, the focus F falls exactly on the posterior surface of the sphere at E, and it therefore follows that in diamond, phosphorus, &c., and all bodies whose refractive power exceeds 2*000, the principal focus falls within the sphere, the focus advancing from E towards S, as the index of refraction increases, and reaching the centre of the sphere S, when the index of re¬ fraction becomes infinite. It may be interesting to trace the distances E of the prin¬ cipal focus F from the sphere, in bodies of various refractive powers, supposing the radius of sphere to be one inch, and placed in vacuo. Distances E F. Hydrogen, 3623 inches Oxygen, 1838 — Atmospheric air, ...1701 — Phosgen, 432 —- Tabasheer, 4 Water, 0*98— Glass, 0*50 — Zircon, 0*00 — Diamond, within the sphere. In spheres of diamond and other substances of high re¬ fractive power, a refracted ray Cc may fall so obliquely upon the inner surface of the sphere, that it would he totally reflected, and would therefore be carried round the surface of the sphere, without the possibility of making its exit. It the length of the refracted ray Cc should cut off an arch which is an aliquot part of a circle, the ray would describe a regular polygon, being always reflected from the same points; but if it was not an aliquot part of a circle, the points of reflexion would vary in every revolution of the ray. The following is the rule for finding the principal locus ui a sphere, or its focus for parallel rays:—Divide the index of refraction by twice its excess above unity, and the quo¬ tient is the distance of the principal focus from the centre of the sphere. , , „ When the rays RC, RC, in place of falling on the sphere i . rvrnPPPn 2 9 0 4 1 nearly, •^an inch. 0 its centre S, and therefore unrefracted, because it is inci- ;o - dent perpendicularly on both surfaces, and RC, RC, other of a sphere, orits focus for parallel rays, rays parallel to, and equidistant from, RS/ it is required to nf refraction bv twice its excess above i find the path of one of these RC, through the sphere. Join SC which will be perpendicular to the surface at C. From a scale on which RC is three parts, set off RC equal to 1, vvnen tne rays ‘“P— iher nroceed i i cd parallel to CS, (which is the same as drawing in directions parallel to the axis, or to one anot > P “pernenafcukr to the Sementary surface, or tangent to the from a near object, anti always from a pomt m the ax,S K E, sphere at C) Make Cl) equal to CR, and through D and their focus may be found by the very C draw the line DC£ meeting the posterior surface of the we have already given When the point vv;nbea sphere at c, and the axis of the sphere at/. The point/would rays diverge is very distant, the focus of sue my have been the focus, had there been no second surface to re- little farther from the sphere than I, and a P fact the my Cc a second time. On a scale in which Cc is approaches to the sphere, the locus F",1' "i two parts, set off Cg equal to 1 part, and having joined Sc, will be more fully explained when we t ea P draw gd parallel to Sc, and make cd equal to cC. Through c draw dcF, meeting the axis of the sphere in F. As the ray RC, below RS/ falls in the very same manner on the sphere MN, it will have its refracted ray in a similar direc¬ tion, and the two rays will meet at F, which is called the focus of the sphere for parallel rays, or the principal focus of the sphere. . „ , If we determine the path of the ray RC, and find the foci f and F for both surfaces; by using different indices of refraction, we shall find that in every case the distance EF of the nrincipal focus of the sphere is exactly one- half of the ^distance E/ of the focus for the first surface, falls upon the second surface, and that FS is to ES as the sine of incidence or the index at a different point, and at a of refaction U to the difference between twice the sine of different angle, the effect of incidence and twice the sine of refaction; that is, in glass which is to produce a change nS is to 3*000—2*000, or as 1*500 to 1*000. in the position of the focus. of rays through lenses Refraction of Rays by Convex Lenses. The action of an equally convex lens in refracting theParal rays of light, is exactly the ■ 1 rig. 3U. same as that of a sphere, with this difference only, that the two surfaces are brought nearer each other, and in consequence of this the ray refracted by the first surface OPTICS. 391 ;s. Let LL be a double and equally convex lens of glass, a ’^line A/passing through the centre C, or middle point of its greatest thickness, is called its axis. Let parallel rays AB, A'B', fall upon the first surface, at the points B, B ; these will be refracted in directions BD, B'D', which will be determined by the method shewn in fig. 28. Had there been no second surface, these rays would have con¬ verged to a focus at f but as they meet the second sur¬ face of the lens at D and D', they will there be refracted, as shewn in fig. 28, for the sphere, so as take the directions DF, D'F', and have their principal focus at F. The following is the rule for finding the principal focus of a glass lens unequally convex :—Multiply the radius of the one surface by the radius of the other, and divide twice this product by the sum of the same radii. If the glass lens is equally convex, and has its index of refraction 1*500, the distance CF, or its principal focal dis¬ tance, will be equal to the radius of any of its surfaces. The following is the rule for finding the principal focal distance of a plano-convex lens of glass. When the convex side is exposed to parallel rays, the focal distance, reckoned from the plane side, will be equal to double the radius of the convex surface, diminished by two-thirds of the thick¬ ness of the lens. When the plane side of the lens is ex¬ posed to parallel rays, the distance of the focus from the convex side w ill be equal to twice the radius. When the rays AB, AB are oblique to the axis, the mid¬ dle ray AC passing through the centre C, will obvious- Fig. 31. ly suffer refraction at B, but as it falls upon the se¬ cond surface at the same angle, it will be refracted a second time in an oppo¬ site direction, so that it will proceed in a direction df parallel to AB. The rays AB, AB will suffer refrac¬ tion at the points B, B', and also at the points D and D/, and it will be found by projection that they meet in a focus F in the axis d f. •g In the preceding case the parallel rays are supposed to issue from some very distant object; but if the object from which the rays proceed is near or not very distant from the lens, its focus will recede from the lens, in proportion as the object or point of divergence approaches to it. This fact scarcely requires to be proved, for it is manifest that as the radiant point approaches to the lens, the rays fall more and more obliquely on the first surface, and less and lessobliquely on the second, so that the deviation produced by refraction is not sufficient to bring them to a focus so near the lens as the point F, in fig. 30. This will be better understood from fig. 32, where LL is a convex lens, whose focus for parallel rays is F. Let RL, RL be rays diverging from a candle or other body, at then, if we Fig. 32. trace the refract¬ ed rays by the method already given in fig. 27, we shall find that they will meet at a pointy farther from the lens than F, and that if the point R advance to R', the focus f will advance to f, and so on, ^he focus/' receding from the lens as R approaches to it. When the distance RC is equal to tw ice CF, or twice the principal focal distance, the distance of the focus/' from the ens will be equal to the distance of the radiant point from lh or Q// be equal to CR'. When R comes nearer C, / goes rapidly away from it, and when R comes to F', which is called the anterior focus, CF' being equal to CF, the rays will be parallel, or what is the same thing, the focus/will Dioptrics, have retired to an infinite distance. When R comes nearerv y ' to C than F', the rays will diverge, after passing through the lens, as if they came from some point in front of the lens, and this point, or virtual focm, as it is called, will approach to the lens as R approaches it, in moving from F' towards C. The points R and / and R' and f, are called conju¬ gate foci, because it may be shewn that rays diverging from /will be refracted to R, and rays diverging from f to R'. It is indeed a general truth in all the phenomena of refrac¬ tion and reflexion, that if the refracted rays are supposed to be the incident ones, the incident rays will be the refracted ones; for the ray experiences the very same action in an in¬ verse order, by retracing its path. The following is the rule for finding the focus/ or the conjugate focal length of a convex lens of glass for diverg¬ ing rays : Multiply twice the product of the radii of the two surfaces of the lens, by the distance of the radiant point or RC, for a dividend. Multiply the sum of the two radii by the same distance RC, and from this product subtract tw ice the product of the radii for a divisor. The quotient of the dividend divided by the divisor will be the focal distance C/ required. When the lens is equally-convex, multiply the distance of the radiant point RC, by the radius of the surfaces, and divide that product by the difference between the same distance and the radius, and the quotient will be the focal dis • tance C/ required. If the lens is plano-convex, divide twice the product of the distance of the radiant point RC, multiplied by the radius of the convex surface, by the difference between that distance and twice the radius, and the quotient will be the distance of the focus from the centre of the lens. When converging rays fall upon a convex lens, they are Converging always refracted to a point between the lens and their point ^y8- of convergence. Let RL, RL, be rays Fig. 33 converging to any point r, behind the lens LL, it ffs very evident that refrac¬ tion must always make them cross the axis RCr of the lens somewhere between r and the lens, and always between the principal focus F and the lens. The exact point may be found by the methods already given. As the point of convergence r recedes from the lens, the focus / will approach to the principal focus F, and when r is infinitely distant, the rays RL, RL, become parallel, and / will coincide with F. When r approaches to C, / will also approach to it. The focus of a double convex glass lens, when its thick¬ ness is small, for converging rays may be found by the fol¬ lowing rule : Multiply twice the product of the radii of the two surfaces by the distance rC of the point of conver¬ gence for a dividend. Multiply the sum of the two radii by the same distance rC, and add to this product twice the product of the radii for a divisor. The quotient obtained by dividing the above dividend by this divisor, will be the focal distance fC required. When the lens is equally-convex, multiply the distance rC by the radius of the surfaces, and divide that product by the sum of the same distance and the radius, and the quotient will give the focal distance/C required. In plano-convex lenses we must divide twice the product of the distance rC multiplied by the radius of the convex surface, by the sum of that distance and twice the radius, and the quotient will give the focal distance required. Refraction of Rays by Concave Glasses. In order to shew how to find the refracted ray when the 392 OPTICS. Dioptrics, light is incident on a con- care surface, let LL be a double and equally concave lens of glass, and RB, R'B' two rays parallel and equi¬ distant from the axis RC of the lens. From a scale on which RB is 1*5, take BG equal to 1, and from G draw GD parallel to SB, the radius, and consequent¬ ly perpendicular to the first concave Fig. 34. ^ surface of the lens. Make^D equal to BR, and through D and B draw IM, which will be the ray refracted by the first surface. On a scale where 5B is 1, make b¥>g equal to 1"5. From <7 draw gd parallel to bs, the radius of the second surface, and con¬ sequently perpendicular to that surface at b. Make bd equal to 6B, and through b draw dbr, br will he the ray re¬ fracted by the second surface. In like manner the other ray RB will be refracted by the first surface in the direc¬ tion Wb', and the two refracted rays br, b'r' will diverge as if they had proceeded from a point F, found by continu¬ ing br, b'r' backwards, which is called the virtual focus of the concave lens, LL. If we trace oblique parallel rays through a doiible con¬ cave lens in the same manner as we have done for a con¬ vex one in fig. 31, we shall find that they will be refracted as if they diverged from a focus in the axis 01 ray which passes through the centre of the lens. The rules for find¬ ing the virtual focus of paralell rays refracted by a double or&plano-concave lens, are the same as for convex lenses. When diverging rays RB, RB, fall upon a concave lens LL, they will be re- - - ’• * Fig. 35. fracted in lines br, b'r', more divergent than parallel rays, as if they proceeded from a vir¬ tual focus/ nearer the w lens than its principal focus F. As the radi¬ ant point R approach¬ es to C, / w ill approach to C. The following are the rules for finding the virtual focus of a concave lens of glass for diverging rays. Multiply twfice the product of the radii by the distance RC of the radiant point R for a dividend. Multiply the sum of the radii by the distance RC, and add to this twice the product of the radii for a divisor. Divide the dividend by the divisor, and the quotient will be the virtual conjugate focal distance/C. If the lens is equally-concave, multiply the distance of the radiant point R by the radius, and di¬ vide the product by the sum and the same distance and the radius, and the quotient will be the virtual focal dis¬ tance required. If the lens is a plano-concave one, multiply twice the radius by the distance of the radiant point, and divide this product by the sum of the same distance and twice the ra¬ dius, and the quotient will be the virtual focal distance. When converging rays fall upon a concave lens, their virtual focus will be without the principal focus on one side, if the point of convergence is without the principal focus on the other side. This case is shewn in fig. 36, where the rays RB, R'B', con- Fig- 36. verging to/with¬ out the principal focus F, will be r —- ^ refracted in the ^ direction br, b'r', if they had When/C is equal to twice the principal focal distance CF, If ^ the virtual focus of divergence /will be at the same dis- ^ ■x. tance on the left hand of C as the point of convergence /' is distant on the right hand. When / approaches the lens on the right hand, the virtual focus /will recede from it on the left. When / reaches F, the virtual focus will be infinitely distant, or the refracted rays will be parallel; and when /advances from F to the lens, the refracted rays will converge on the right hand ot the lens, and the focus will advance towards the lens, as the point ol convergence advances towards it. The rule for finding the conjugate focus of a converging beam, for a doubly concave lens, is the same as that for diverging rays in a doubly convex lens. It the lens is plano-concave, the rule is the same as for diverging rays falling upon a plano-convex lens. Refraction of Rays through ]\Ieniscuses, and Concavo- Convex Lenses. It would be quite unprofitable to trace the progress ol different rays through these various forms of glasses, both because they are but little used, and because the very same methods which are applicable to convex and concave sur¬ faces, are applicable also to them. When used by them¬ selves and for ordinary purposes, these lenses are inferior to the common convex and concave lenses, and therefore are seldom met with. We shall therefore content our¬ selves with giving the rules for finding their foci. In a meniscus the focus for parallel rays is obtained by dividing twice the product of the two radii by their dif¬ ference, and the quotient will give the focal distance. In the same kind of lens the focus for diverging rays will be thus found: Multiply twice the distance of the ra¬ diant point, by the product of the radii of the two surfaces, for a dividend. Multiply the same distance by the differ¬ ence between the two radii, and to their product add twice the product of the two radii for a divisor. The quotient arising from dividing the dividend by the divisor, wall be the focal distance of the meniscus. This rule will answer also for converging rays. In concavo-convex lenses the very same rules will apply, but the rays have a virtual focus in front ol the lens, as in concave lenses. as diverged from a focus at f on the other side of the lens In treating of the passage of oblique rays through a double convex glass, as shewn in fig. 31, we have stated that there is a point C, called the centre of the lens, through which the ray that passes suffers the same refraction at both surfaces, or emerges parallel to its original direction. In equally double convex lenses, this centre C is accurately in the middle part of the thickness of the lens; but in other forms of lenses it is not. Hence it is necessary to point out the method of finding this centre. In double convex or concave len- Fig. 37. ses, the centre C, see fig. 31, 37, and 38, lies within the two surfaces of the lens. In plano-convex and r- plano-concave lenses, it is coincident wdth the vertex of the con- \q vex or concave sur¬ faces, and in menis- cuses and concavo-con¬ vex lenses it lies with¬ out the thickness of the lens, and nearest to the surface which 1 has the greatest cur¬ vature. Let R, r, figs. 37—40, be the centres 93 OPTICS. ics. ofthe convex and concave surfaces of the lenses, and HE?’ thpir fnm« t ^ oo _ t!5’ *-*r> tfieir locus at h. Every intermediate portion ofthe lens Dioptrics. will have a similar focus somewhere in the line FF', and i Fig. 39. we suppose all the rays to proceed from a distant object, such as the sun, there will be an image of the sun, or a luminous focus in every point of the line EE', and FF' will be a brilliant line of light. This property of a cylindrical lens to form a bright line of light has been ingeniously applied by Captain Kater in the construction of his azimuth compass, which we have described in our article Magnetism, vol. xiii. p. 765. In cylindrical lenses diverging and converging rays will have the same foci as in common and concave lenses of the same curvature; and therefore the rules for finding their foci are applicable also to them. Cylindrical lenses have been recently applied by Sir David Brewster for improving the vision of objects that are rectilineal, such as the defective lines in the solar spectrum. When these lines are not visible, or are very impertectly visible, on account of the imperfections ofthe telescope, the application of a cylindrical lens, either solid or tiuid, renders them more visible when the axis of the lefrac 1 eyli iT 'fig. 37,38, or RrE, fig. 39, 40 are their axes. Taking any point A in one surface, draw RA, and parallel to this draw res, which will cut the other surface of the lens in a. Join Aa, and continue it till it meets the axis RER in same point E ; this point E is called the centre of the lens, because every ray that passes through it will have its incident and emergent parts par¬ allel, such as QA, and qa. From the simi¬ larity of the triangles REA, rEo, and the composition and division of rata, cvhndel oTZTJrlZ ,T ^ When ,«he axis °f the we have RAz+=m : m=RE=j=rE (or Rr): rE hence rV J r cy1{ndnLal surface is accurately perpendicular must be invariable like the other lines and on whatever * t ^ fin-68’ ^ Pris.ra ^as a similar effect. Both of them point the parallel radii RA! rTare drawn, the tne L bv " g UP ^ irreSulai;ities of the edges of the line must cut the axis Rr in the same point E If we sun Innb accession °i images of other parts of the line. If we pose the ray Aa to pass out of the lens in both directions, rope, throuXl' nri^Vor cvf T^’ °T a T - ^ ^ it wall suffer the same quantity of refraction in onnosite di i . a Prism or cylmder, whose length is perpen- rections, because .he angles of indde.me " AR C are s‘‘0 ^uSCre'v or rT: "i6 ed8es of both "m equal. Hence the incident and emergent parts AQ Z f^ poshed cylinders. will be parallel. ° ,. P tent wa& tuken out several years ago by a Parisian When the lens is small in diameter, or of a great focal in fio- 5[ansv^s^ c>'Jindri(:aI lens similar to that shewn length, or its thickness inconsiderable from other causes the fio- in dT ’ dlfferS ?°m the cylmdrical lens in path of the rayQAag,may be taken ina straight lineTai ng flis of he cvlinder ^ vT?. C,'indriCal SUr,aCC haS t,K t rough the centre E ofthe lenses. This if evident from fte axis of Se cvHnta T’ P^endicular to the circumstance that the perpendicular distance between The effort f ^ylinder of whmh the first surface is a part, the lines AQ, aq diminishes both with the obliquity of the So convex iS equiValent t0 a incident ray, and the thickness of the lens. ‘ therefore it dnf«Tt° 10 Same ra--™^^ doubly concave, one of the surfaces being spherically con¬ cave, and the other cylindrically concave, and of such a curvature as to bring to the same point the vertical and horizontal foci of the cornea. An artist of the name of buffer, at Ipswich, constructed for Mr. Airy lenses of the proper dimensions, which enabled him to read the small¬ est print at a considerable distance with his defective eye, as well as he could do with the other. He found that vi¬ sion was most distinct when the cylindrical surface was turned from the eye, and he placed the lens as near the eye i m, e " fS P08,., There is another application of cylindrical portion of the lens will have lenses which we believe has not hitherto been made. In / ^ x-/ v/J. * I~IvyII« 11> ryrn consequence to give a general account of their properties. Let LLL'L' be a double convex cylindrical lens, composed of two cy- Fig. 41 bndne surfaces, one of which is^ ninV Then if Mm be three“- fftr U a,nd horizontal rays passing ough the thinnest portion of the tfftrPart the kns, it is obvious^L at they will be refracted to a focus-5 lens * ^ • 6 same distance from the R'R'R'Stog^Sw'S, In.like-manner the-ra>s VoJxlr5 ““ alS0 in 0r- Tho,,'as Yom,e’5 but “ “ injure his vision. El Eat. Phil. vol. ii. pp. 578, 9. 3 D 394 OPTICS Dioptrics, all preparations of natural history, objects which are gene- ' — — ''rally preserved in cylindrical bottles or vessels^ containing fluids, the objects are always seen distorted, being magni¬ fied to the greatest extent in a plane perpendicular to the length or axis of the cylinder, while in a rectangular dnec- tion, the object is not magnified at all. In order to see t le obiects of their true shape, and have them equally magni¬ fied in all directions, a cylindrical lens of a suitable locus should be employed, so that the axis of the cylinder may be at right angles to the cylindrical axis ol the vessel. SECT. m On the Formation of Images by Lenses, and on the vision of objects through them. In the preceding section we have treated of the formation of images by rays transmitted through small aperture , hav^consid Jred the formation ofimagesby reflecting surfeces. In order to explain the formation of images by convex lenses, whether double, or plano-convex, or memscuses, let LL be a convex lens, MN an object farther from it than its principal focus. Let MLL be a cone of divergent rays Diop: ; 'ceding from M, and having their focus at m behind theW , lens • and NLL another similar cone from the other ex¬ tremity N of the object, and having their focus at n. Every other part of the object will send out rays in all directions; but only those which fall upon the circular surface of the lens LL, will be refracted by it, and they will all have their focus between m and n. These refracted pencils, how¬ ever, cannot be shewn in the figure without crossing one another. As every part of the object MN, will therefore send to corresponding points of the image wm rays ot their own colour, an image of MN resembling it in all respects will be formed at mn, and as the rays from the upper part M of the object to m, and from the lower part to n, this image will be an inverted one, and if we draw lines through the centre of the lens from M to m, and N to rc, it will be evi¬ dent from the similarity of triangles that the size ot the image will be to the size of the object, as the distance of the image from the lens is to the distance of the object. Fig. 42. If we place the eye behind this image mn, we do not see it suspended in the air at mn, but it appears as it it were in front of the lens. That the image, however, xs formed at mn may be proved by viewing it on smoke raised at that place, or on a piece of ground glass, or semi-transparent naner • or if we bring the eye in front, we shall see it dis¬ tinctly painted on any white ground, such as a piece oi white” paper. We shall suppose it, however, to be seen o smoke by the eye placed behind it at A or B. It wil seen exactly at mn, as if it were a real object; and in orde to see it distinctly, the eye must view it at the same i - tance as it views other objects, and it may be viewed a any other object is, through a pair of spectacles or a mag- “Sfeays from M, N cross each other at the points m n of the image, the very same rays radiate from those points that radioed from M, N, and consequently the ve^ same effect must be produced m the eye as if these ra\ proceeded from a real object at Hence by Pacing an¬ other convex lens at a proper distance behind mn, a dis tance greater than its principal focus, we image of this image, in the conjugate focus of the secon 1UIf we wish to form a magnified image of an object by any lens, we have only to place the object nearer the lens and it follows from the rules for conjugate foci that the finale will increase. If MN, for example, is brought nearer LL, the image mn will recede from the lens, a increase in size. When ML is equal to twice the princi- nal focal distance of the lens, the distance of the image \u L and the size of the image will be the same as that o the object MN. If MN comes still nearer the lens, mn will recede still farther, and continue to increase m size till it becomes infinitely large and infinitely distant. W he this barmens the rays which form it will have become pa- ralleh PIf during all these changes the eye is withdrawn from the lens so as to be at least six inches behind the place where the image is formed, it will observe the image distinctly before it. But when the rays become paraM the eye may then be placed immediately behind the lens, and ft wilWee the object distinctly in the anterior princi¬ pal focus of the lens, and magnified m proportion to Sl1 In^he* precedir^g^aragraphsfwe hav^described the prin- ciples of the camera obfcnra ciples of the camera ooscura, ue w, the image and the operation of the single microscope. When the im^ mn is distinctly formed on paper, the lens LL ^ camera obscura, painting all objects their tural colours, in their just proportions, and mth^thar movements, on a white ground placed behind it. e image mn has become greater than the object advance of the latter to the lens, the eye view^ ^ fied picture, and the effect is the same as in the , microscope, whose object-glass is LL,and whose eye-g^ a focal distance equal to that of tbe eye- ^ ^n the ^ ^ is infinitely distant, and the rays enter t J P fth lens object being then in the anterior LL, and the eye behind it, the lens is then acting r/&When obfects are within our reach, su^h ^“^obsSa, objects, or near objects presented beforeaca it is always in our power to illuminate them s;but light, and thus make dark objects give xg ^ objects when this cannot be done, m consequ bri„iltness of being out of our reach, we can increase the the iens. the image by increasing the area or supe ^ doubled, it If the area of the lens LL, for e^P^aXw from every would collect twice the quantity of ray t tbe correspond- point of an object, and concentrate them at the ing points of the image mn. . , tbp telescope and L order to understand the principle of the W ^ u single microscope, we must be acquainted witi Dio lPi': OPTICS. If we hold a Fig. 43. Fig. 44. Jawi¬ ng pc T xplaiil. called the apparent magnitudes of objects, sixpence A at the distance of six or eight inches from the eye E, then it ' will exactly cover or appear equal to - a shilling placed at B, a half-crown placed at C, and a crown at D. If ‘ - we remove the sixpence A, the shilling will just cover the half-crown. If we remove the shilling, the half-crpwn will just cover the crown. Hence all these coins placed as they are in the figure, are said to have to an eye placed at E the same apparent magnitude, because they are all seen under the same angle DEF, and would all cover the same portion of the sky, or of any distant object. If the sixpence A is brought thrice as near the eye E as in fig. 44, its angle of apparent magnitude wall now he GEF thrice as great as DEF, fig. 43, and it will appear thrice as large as DF. The sixpence has therefore been magnified; and if we interpose a lens between it and the eye, so as to make the rays refracted by the lens parallel, it will appear distinctly and the lens which we interpose will be a single microscope. Objects within our reach, and capable of being placed where we please, may be therefore magnified to any extent, by placing them very near the eye, and in the anterior fo¬ cus of a small convex glass, which, by making the diverg¬ ing rays parallel, render the object as distinctly seen under a great angle, as if it were a large object placed at a dis¬ tance, and subtending the same angle at the eye. But when objects are at a distance, and beyond our reach, such as remote terrestrial objects, and the planets and stars, we can magnify them, or represent them to our eye under a greater angle of apparent magnitude, by a different princi¬ ple. If the object is the dial-plate of a clock, at the distance of 12,000 feet, we place a lens whose focal distance is six feet, in the end of a tube about six feet long, and having direct¬ ed it to the dial-plate, a distinct inverted image of the dial- plate will be formed in the focus of the lens, at a distance of six feet from it, and if we view this image with our eye placed six inches behind it, we shall see the image of the dial-plate distinct and magnified. Now, as the distance of the dial-plate is 12,000 feet, and that of the image only six feet from the lens, the image will be —or 2000 times o smaller in diameter than the object, not in apparent magni¬ tude, but by real measurement; and if we were to take the image and place it beside the dial-plate, and view them both at the distance of 12,000 feet, their apparent magnitudes would, like their real magnitudes, be in the proportion of 2000 to 1. But the image is fortunately within our reach, and we can ao with it what we choose. Let us first view it with the naked eye, which, generally speaking, sees ob¬ jects most distinctly at a distance of six inches, and as we see it at tlm distance of six inches, it will appear as much greater as it would have done at the distance of 12,000 eet, as 12,000 feet is to six inches, or as 24,000 is to 1. ence it follows, that though the image is diminished in the ocus of the lens 2000 times, yet it is magnified from its proximity to the eye 24,000 times, that is, it is magnified nn i, i 24,000 me wnole or twelve times. Now, this magnify¬ ing efect will be found under all circumstances to be equal to the focal length of the lens employed, divided by the focal istance of the eye, or the distance at which it sees small objects most distinctly, which is six inches, that is, in the 72 inches 395 Dioptrics. present case six feet 72 inches or twelve times. A six inches’ 6 inches s ort-sighted person, whose eyes have a focus of only three inc es, would be able to see the same image of the dial- P ate at the distance of three inches, and in his case the magnified effect would be ' 7—s, or 24 times, and an 3 inches old person, or one whose eyes were long-sighted, so as not to be able to see objects distinctly, nearer than 12 inches, would see the dial-plate magnified only six times. But both these persons could put on highly magnifying specta¬ cles, so as to see the image at very short distances, or what is the same thing, to look at the image of the dial-plate through a magnifying glass, which would enable them to see it at the distance of one inch. In this case the magni¬ fying effect would be or 72 times. But the instrument which we have now fitted up is pre- Teleaoopes cisely a telescope, the large lens being its object-glass, and the small one used by the observer its eye-glass, and hence the magnifying power of such an instrument is always equal to the focal length of the object-glass divided by the focal length of the eye-glass. The image formed by such a teles¬ cope is inverted, which is of no consequence when we look at the heavenly bodies, and it is therefore called an astrono¬ mical telescope ; but in looking at the dial-plate, and at ter¬ restrial objects, the inversion would be disagreeable, and it is therefore usual to make the image erect, by using either a concave eye-glass, or three or more convex eye-glasses. In the former case it is called the Galilean telescope, and in the latter a terrestrial telescope. When the distance of the object is not very great, or when the focal length of the lens bears a considerable proportion to the distance of the object, the magnifying power of a lens, w hen the eye views the image formed by the lens at the distance of six inches, is the following. Sub¬ tract the focal distance of the lens in feet from the dis¬ tance between the image and the object, and divide the remainder by the same focal distance. By this quotient divide twice the distance of the object in feet, and the quotient will express the magnifying power, or the num¬ ber of times that the object has been increased in apparent magnitude by the lens. The very same observations apply to images formed by concave mirrors, and hence a single concave mirror be¬ comes the simplest form of the reflecting telescope, the eye viewing the image which it forms. In the case of such images the body or the head of the observer must be placed between the object and the image, so that in order to use a single concave mirror, we must either make the mirror so large that the observer’s head will not obstruct all the light, or we must make the reflexion a little obliquely, or, what is done in practice, we must by means of a small plane mirror or a prism reflect or refract the rays to one side, so as to allow the observer to look at the image formed by the concave mirror, without obstructing the rays in their pas¬ sage from the object to the mirror, the quantity obstructed by the plane mirror or prism being too small to do any in¬ jury. If we view the image through a convex lens, so as to magnify it still more, the mirror and the lens will consti¬ tute a reflecting telescope. PART III. ON SPHERICAL ABERRATION AND CAUSTIC CURVES. The rules which we have already given for finding the Spherical foci of lenses and mirrors, are strictly applicable only to rays aberration, that pass near the axis of the lenses and mirrors ; and this may be readily proved by the method of finding the refract¬ ed and reflecting ray which we have explained and used. Sect I.—On Spherical Aberration of Lenses. In order to prove and illustrate the preceding truth, we shall suppose parallel rays to be incident on a mass of glass MNOP, in which there is only refraction at its first surface,, and we do this both to avoid the confusion of lines, and be¬ cause it is perfectly sufficient for the purpose of explanation. Let RS be the axis of the spherical surface MN, passing 396 OPTICS. Spherical through S, its centre aberration. Df curvature; and if we consider it a ray, also, it will go on to F without any refraction. Let RB be a ray fall¬ ing on the refracting surface at a distance from the axis RS, and parallel to it. From the point of incidence draw BS, which will Fig. 45. be perpendicular to the surface at B, and take BG three fourths of BR, BG being to BR as 1 is to 1-500, the index of refraction. From G draw GD parallel to Bb, and making BD equal to BR, through the points D and B, draw B/C for the refracted ray. Do the very same thing for the ray RB' falling on the point B', and parallel to Rfe, and equidistant from it, and B/A will be the refracted ray If we now take two rays rb, r'b' near the axis, and parallel to and equidistant from it, and apply the same method ot projection to them, we shall find the refracted rays to be 6F, b'F crossing the axis, and converging at a point £, more remote from the refracting surface than/. Ifwe diaw through F a line AEG, perpendicular to the axis, then A and C being the points where the marginal or most remote rays which fall on the surface MN, and F being the locus of those nearest the axis, the distance/F is called the longitudinal spherical aberration, and AC the lateral sphe¬ rical aberration of the lens. These results may be obtained experimentally by cover¬ ing up with a circle of black paper, all the central parts ot the spherical surface, leaving a clear marginal ring corres- ponding with BB'. If the surface thus limited is exposed to the solar rays, we shall find a pretty distinct picture or image of the sun formed at/ which, from a cause which we shall soon explain, will be highly coloured at the edges. If we now remove the black circle from the surface MJN, and cover the outside surface with black paper, excepting a small opening in the vertex of the lens, where the axis RS cuts it, and expose the lens to the sun s rays, we shall find the image of the sun distinct at F, and it will be less coloured than the image formed at/from another cause. If we now expose successive rings of the surface MJN to the sun’s light, shutting up all the rest of the lens, we shah find that the ring nearest the axis will have its focus near/, between/and F ; the second ring, its focus still nearer ; the third, its focus still nearer F ; and so on,^ till the last ring will give its image of the sun close to F. Hence it follows, that there will be distinct images of the sun formed by each ring, and occupying the whole space / t ; and, therefore, if' we expose the whole surface MN to the rays, the image of the sun must be extremely confused and indistinct; and if received upon a sheet of white paper placed at AC, it will consist of a bright disc at F, surround¬ ed with a broad halo of light, becoming fainter and fainter towards A and C.1 As this is true of every spherical surface whatever, it follows, that every ‘image formed by a spherical surface or lens, and every object seen through it, must be indistinct, from the confusion of rays produced by spherical aber¬ ration. As this indistinctness increases with the aperture Spherics of the lens, or the distance of the marginal rays from the&berrati: axis, we may remove it to a certain degree by limiting the^Vr aperture, or using smaller lenses; but excepting in the case of the sun or any highly luminous body, this dimi¬ nution of the aperture would injure vision, from the want of light, especially in microscopes and telescopes; and hence it becomes an object of the highest importance in optics, and it is one which has occupied much attention, to discover methods of diminishing or correcting the sphe¬ rical aberration of lenses. Philosophers have, therefore, been led to calculate with accuracy the amount of spherical aberration in lenses of different forms, and having different sides exposed to the incident rays. The following are the results which they have obtained, and they may be readily verified either by experiment, or by tracing the refracted rays through large diagrams of lenses of different shapes. 1. In a plano-convex lens, (such as that shewn at E, fig. Forms: 21 )’ whose plane side is turned to parallel rays, or to lenses distant objects, if it is intended to form an image of them ^ in its focus ; or with its plane side turned to the eye, if it^^ is to be employed as a single microscope or magnifier, the spherical aberration is 4^ times its thickness, or the greatest that can be obtained from it. This is called its worst position. . 2. In a plano-convex lens, whose convex side is turned to parallel rays, the spherical aberration is only l-J^thsof its thickness, or the least that can be obtained from it. This is called its best position. . . 3. In double convex lenses with equal convexities, the spherical aberration is lTfi5sths of their thickness, greater than that of a plano-convex lens in its best position. 4. In double convex lenses, having their radii as 2 to 5, the spherical aberration will be the same as in & plano-con¬ vex lens in its worst position, if the flattest side, or that which has its radius 5, is turned towards parallel rays ; and it will be the same as that of a plano-convex lens m its bed position, if the surface whose radius is 2 is turned to paralle rays 5. The lens of least spherical aberration is a double convex one, the radii of whose surfaces are as 1 to b, hav¬ ing the surface whose radius is 1 turned towards pa¬ rallel rays. In this, which is its best position, the aber- ration is only lj35th> of its thickness. But .f the s.Je with the radius b is turned towards parallel rays, the aoer ration will be S/^ths of its thickness. , i If we determine the virtual focus of the central an marginal rays for a concave surface, as in fig- > ^ shall find that the spherical aberration is exactly same for concave as for convex lenses ; and hence, a preceding results are equally applicable to them. 1 If we suppose that the lens of least spherical aberr > as in art. 5, has an aberration expressed by unity, the com parative aberrations of other lenses will be as follows. Double convex or concave with radii as 1 to 6, j pQOO in best position • •; •: * 1.0gi Plano-convex or concave in best position Double equi-convex or equi-concave.... g Plano-convex or concave in worst position « The effect of aberration,” says Sir John Herschel, “may be very prettily exhibited by cownngj a largenConveXe paper behind the c n i r-orr.ilorlw aisnnspfl. rtnd exnosinir it to the sun, receiving the co g ) fnrm spots 1, "may oe very pieuuy — - o - ° Daner bemn philosophers have sought to correct t ic sp e i tion of convex lcnSeS, by the opposite aberration of con¬ cave ones. We have already given drawings of three doublets without spherical aberration, according to the ca culations of Sir John Herschel; and we shall now give an account of the method used by Dr. Blair of coirectmg the spherical aberration in his compound they possess some historical interest, we shall give the same diagrams which he employed. Let AB, fig. 48, represent a convex lens receiving a pencil of diverging rays from the object S, and let D be the focus of marginal and F that of rays in¬ cident near the axis, such as ST. The greatest longitudinal aberration will therefore in this case be DF. Let GH, fig. 49, be now a concave lens, upon which are incident parallel rays SHRK. Let P be the virtual focus of marginal rays, such as SH, and N the focus of rays near the centre, such as UK, so thatPN will be in this case the longitudinal aberration. 1 he con¬ vex lens in fig. 48 is in the position which gives the least spherical aber¬ ration, and the concave lens in fig. 49 is in the position which gives the greatest aberration. Hence in order to make the aberrations equal, we must make the focal distance of the convex glass much shorter than that of the concave one, and if it is requi¬ site to have the distance of the points F and N from the convex and con¬ cave lenses the same as it is shewn in the figures, the object must then be placed much nearer the convex lens. Hence the image of the near object S is placed at the same dis¬ tance from the convex lens in fig. 48, or the virtual focus of the con¬ cave lens in fig. 49, where it is shewn as refracting parallel or infinitely dis¬ tant rays. When the focal distance KIN, therefore, for parallel rays is equal to the distance TF for rays diverging from S, and when the aberration DF and PN are equal, then if the two QXJ ^ „ lenses are combined, as in fig. 50, parallel rays SH, KK tail¬ ing upon them, will be refracted to the focus S, without any spherical aberration. For if we suppose all the rays from S, which the convexlens, fig. 48, converges to D and F, to be re¬ turned back from these points to the lens, they would be re¬ fracted accurately to S. But the parallel rays SH, KK, after refraction by the concave lens, ng. 49, in the directions HX, KV, are exactly in the same relative situation as the rays which v-e have supposed to be returned directly back from F and D are in at their incidence on the convex lens. Hence when these lenses are combined, as in fig. 50, parallel rays falling on the concave lens, and after refrac¬ tion incident upon the convex lens, will be refracted accurately to S without any snherical aberration.2 1 The difficulty of getting rid of the aber¬ ration of spherical surfaces, induced opti¬ cians at a very early period to propose the construction of lenses that were not spheri¬ cal, and that had such forms as to be en¬ tirely free of spherical aberration. As the marginal parts of spherical lenses refract the rays which fall upon them too much, the spherical aberration would obviously be re¬ moved or diminished, by giving the surface Fig. 50. Sphere | aberrat Lensei) spherij Fig. 49 any curvature, in which the marginal parts become less con- vex. Now, this is the character of two well known curves, viz." the ellipse and the hyperbola, which, as Descartes disco¬ vered, may be employed in the formation of lenses in the following manner:— If a lens LL, fig. 51, has the form of a meniscus in which the convex sur¬ face LAL is part of a pro¬ late spheroid formedbythe . . revolution of an ellipse, whose greater^ axis AD is to its ec¬ centricity or distance between its foci F, f as the index o refraction is to unity, and if the other surface LaL is concave, and part of a sphere whose centre is F, the remoter locus of the spheroid, then rays RB, RA, RB parallel to the axis RF of the spheroid or the ellipse will be refracted by the convex spheroidal surface alone to the remoter focus T, and as these rays fall perpendicularly upon the second surface LaL, they will suffer no change whatever by its action, and continue their progress to the focus F. The same property belongs to a concavo-convex \ensLL, whose anterior or concave surface is part of a prolate sp ie roid of the same dimensions as for the meniscus, and having its convex side of any radius. In this case, al rays > RA parallel to the axis and incident at b, b, will be made to diverge from the same virtual focus F, and will suffer change of direction in passing out of the second or convex surface, as they all fall upon it perpendicularly. These truths may be proved by the most elementary P ciples of the conic section, or by drawing a tangen the elliptical surfaces at B, b, and determining the refracted rays by the method already described. Upon the same prin- ciples a plano-convex Fig. 52. lens may be construct¬ ed without spherical aberration, as shewn in fig. 52, provided its pos¬ terior surface LaL is part of a hyperboloid formed by the revolu- . . . fi;stance tion of a hyperbola LaL, whose greater axis is ^ pa. between the foci as the index of refraction is to un )• Art. Microscope, vol. xv. pp. 34, 35. 2 See Edinburgh Transactions, vol. iii. p- 27. OPTICS. ipht J rail el rays RB, RA, R'B', will suffer no refraction at the jerr; '• plane surface BAB', but at the points of the convex surface ^ l' will be refracted accurately to F, the further focus of the hyperboloid. In like manner, a.plano-concave lens having its concave sur¬ face part of a hyperboloid will diverge all rays so as to have their virtual focus in one of the foci of the hyperboloid.1 The following elegant method of determining the figure of a refracting surface which shall refract marginal and central rays to the same focus is due to Huygens. Let R be the focus of diverging rays, and F Fig. 53. 399 the focus to which it is required to refract them with accuracy. Take any point A as the ver¬ tex of the refracting surface required; the surface must be such that the incident and re¬ fracted rays RB, BF have such a ratio to each other, that the ex- errati roirro cess of RB above RA shall be to that of FA above FB, as the index of refraction is to unity. In order to find the curve BAB which possesses this property, take in the axis RF any point D, and let DA be divided at the point C in such a manner that AC is to AD as unity is to the index of refraction, and from R and F as centres, describe the arches of circles BOB', BCB', with the radii RD, FC, their points of intersection B, B' will be in the required curve. In like manner, any other points in the curve may be found, and in order to convert it into a lens, we have only to describe a spherical surface LaL, round the focus F as a centre, so that the refracted rays BF, B'F may suffer no change by passing through it perpendicularly. The curve BAB gradually approaches to an ellipsoid as the radiant point R becomes more distant from the lens, and when it is infinitely distant, the curve is the section of an ellipsoid, whose further focus is in F.2 Various attempts have been made to execute lenses of other forms than spherical, but without decided success. Descartes has described machines for this purpose in the tenth chapter of his Dioptrics, but though he succeeded to a certain degree in his experiments, yet the art has never been acquired of producing figures sufficiently accurate for nne telescopes and microscopes. Sect. II—Spherical Aberration of Mirrors. It has aiready been stated under Catoptrics in this article, that in all reflexions from spherical surfaces it is only for the ray near the axis that the rules for finding their foci are cor¬ rect, those which fall farther and farther from the axis hav- ing their foci nearer the reflecting surface. Hence all the images which are formed by spherical surfaces are indistinct £TeriCal ?ben;ation’ like those formed by lenses, with ns difference, that the images are not confused with the differ- alwayS acc°mpany the refraction of lenses. it will obviously become greater as the diameter of the mir- Spherical lor is increased, its focal length or its curvature remaining;aberration, the same, and with its curvature when its diameter or aper¬ ture remains the same. In all cases but om>, the marginal rays have a shorter focus than the central ones, or what is the same, have their focus nearest the reflecting surface. This case takes place when the radiant point issituated between the surface and the principal focus on the concave side of the mirror, in which case the focus of marginal rays is farther from the mirror than that of central rays. There are only two cases in which spherical reflecting surfaces have no spherical aberration, namely, when divem- mg rays radiate from the centre of a concave mirror or spherical surface, in which case they are reflected back with¬ out aberration to the point from which they came, without any aberration, and when they converge to the centre of a convex mirror or spherical surface, in which case they Will be reflected back in lines diverging from the centre or virtual locus behind it without any aberration. • ^tbese p3568* namely, the first, is not an ideal one, but is actually applicable to practical purposes. For example, if rays diverging from F Fig. 55. the centre of curvature, (not the focus) of the reflecting mirror MN, fall upon the mirror, they will be reflected to F, and pass through F towards a lens LL, which will refract them into a parallel beam If MN, fig. 54, is a concave mirror, by which parallel rays RR are reflected from its mar¬ gin and r,r, from near its axis, it . be found from a simple projection of the reflected rays hat R, R will invariably be re¬ acted to a focus F nearer the Fig. 54. “ tbe focus/ of the central rays. The space F/ tne longitudinal or linear spherical aberration, and LLRR; it FL is the focal length of the lens, or into a con¬ verging beam, so as to illuminate strongly any near object, if FL is greater than the focal length of the lens. This contrivance has been proposed for light-house illumination, where, in addition to the beam FLL radiating directly from F the lens LL, receives also the other beam FMN, both of which it unites in one parallel beam LLRR. In the accu¬ rate illumination of objects for the microscope, this contriv¬ ance is also applicable; and hence for this purpose a spheri¬ cal mirror is better than a mirror of any other form. As we cannot in the case of reflectors diminish their spherical aberration as we did in lenses, by giving a diffe¬ rent shape to the two surfaces, it becomes of great import¬ ance to form the reflecting surface in such a manner as to remove the spherical aberration altogether. It is evident from the inspection of fig. 54, where CB is a perpendicular to the mirror at B, RMC the angle of incidence, and CBF the angle of reflexion, that if the reflecting surface should be such that the line BF drawn to a fixed point, F should always form equal angles with a line CB perpendicular to the mirror at the point of incidence, the parallel rays would all converge to the point F. Now the parabola is a curve which possesses this property as shewn in fio-. 56. Let AEB be a parabola which form a re¬ flecting surface by its revolution round its axis RFE, and let R, R, R be parallel rays incident upon the paraboloidal surface at the points A, E, B. 1 hen if F is the focus of the parabola, and GH a line touching the curve at A, it is a pro¬ perty of the parabola,3 that the angle GAR is equal to HAF, but GAR is the complement of the angle of incidence, and therefore HAF will be the complement of the angle of reflexion, and Fig. 56. 2 ®ee Descartes’ Dioptrica, cap. viii. • <£ f'p1 « "oorH3.ye'n’S ^ P' 11 ^ &C' 400 OPTICS. Spherical consequently AF the reflected ray. As this is true for every aberration. ray parallel to the axis RFE, it follows that all parallel rays '—-v—' incident upon the surface of a paraboloidal mirror will be reflected accurately to the focus of the paraboloid. It may be shewn, in like manner, that convex parabolo¬ idal reflectors will reflect parallel rays, so as to make them diverse from the virtual focus ot the paraboloid. If, 56, we continue the line RA to R, and also F A to r , i follows, from the above reasoning, that R AH is equal to raC, and that the reflected ray is Ar, diverging accurately from the focus F. -a. When we wish to reflect diverging rays to a focus, with¬ out aberration, we must have recourse to another solid ot revolution, namely, a prolate spheroidal surface formed by the revolution of an ellipse round its greater axis. In this case, rays diverging from one of its loci will be reflected accurately, without aberration, to the focus F. fhis wi be understood from fig. 57, where R, F are the foci of an ellipsoid, AEB a section °f t“e ellipsoidal surface, and HH a line touching the ellipse at A, then if rays diverging from one of its foci R, fall upon the re¬ flecting surface at A, E, and R, they will be reflected accurately to the focus F, or if they radiate FAt i! if" propertyofthe ellipse,'that the angle GAR is equal to HAF^ then since GAR is the complement of the angle of incidence, HAF mist be *e compleme^ ^ the angle ot reflection, and AE * tll;llsoidal surface, Srr^rlfS^pon b^^gnlirf"^;%ucingRA? R^ and RB to R' that , dal mirror, and converging to o focus# ^hat as if they diverged accurately from -jj b reflected in “tifnsTR'fBR',diverged ftom R as their "If fhfconcave surface of a mirror is a portion of a hjper- ioS a soild generated by the revolution of a hyperbola about its axis, rays converging to one focus will be reflected to the other focus. Let AEB be ^ tion of the hyperboloid, and RAR, RBR', rays converging to its lo¬ cus ; these rays w ill be reflected to its other focus F. Let G.H be a tangent to the hyperbola at A, then by a well-known property of the hyperbola,i 2 the angle GAR is equa to HAF; but the former being the complement to the angle ol incidence, and the latter the complement to the angle of reflection, AF will be the re fleeted ray. For the same reason, if the rays (to^ from the focus F, they will, after reflexion diverge m the direc¬ tions AR, BR, as if they came from the other locus R • In a similar manner, it may be shewn, that in a convex hvperboloidal mirror AEB, rays diverging from one locus R', w ill be reflected in directions Ar, Br, as if they diverged from the other focus F. ... .-i „ The preceding truths are of great practical "ac m the construction of optical instruments. In all reflecting tele- single focus, it is necessary that the figure of the reflecting Cat, "surface should be that of a paraboloid ; and as in the spe- ^ cula of such telescopes the portion of the paraboloid which is requisite, does not differ much from the same portion of a sphe¬ rical surface that has the same focal length, artists have con¬ trived particular methods by which the marginal parts of the spherical surface shall be worn down in the act of polishing, so as to convert the spherical into a paraboloidal surface. In the reflectors of light-houses, where a large surface is required to be used, a copper plate thickly plated with sil¬ ver is hammered by means of a gauge to as correct a para¬ boloidal figure as possible, and a lamp being placed in its focus, the light which it radiates is reflected in a beam of considerable brilliancy. In the construction of reflecting microscopes, where the image of a small object placed in one spot has a magnified image of it formed in another point, an ellipsoidal speculum is used; and Mr. Cuthbert, an eminent London artist, has succeeded in giving to such small specula an accurate ellip¬ soidal form. Mr. Potter has also succeeded, as we have mentioned elsewhere,3 in giving specula a true ellipsoidal form, and has published an account of the method by which he was able to effect this important object.4 Sect. III. On Caustic Curves formed by Spherical.lk- Jlecting and Refracting Surfaces. When two or more rays of light cross one another at any Cse point, they illuminate any reflecting substance placed in cun that point with their united light. Flence it follows, that when spherical surfaces converge the rays which tall upon them to different foci, these different foci must form so many illuminated points, if they are received on smoke, on white paper, or on water with any reflecting particles suspended in it. The lines which pass through these luminous foci, or rather the lines formed by the union of a great number ot them, are called caustics, or caustic curves. As these curves are in reality a visible representation of the phenomena ot spherical aberration, they possess considerable interest, as experimental illustrations of that class of facts. When diverging rays fall upon a spherical mirror, whose surface exceeds a hemisphere, the caustics formed by re¬ flexion are exceedingly beautiful. Let ACB be the sectio of such a spherical surface, whose centre is C, and whose Fig. 59. scopes^ where parallel rays are required to be reflected to a principal focus for parallel and central rays is at / M * beam of light RAC, diverging from R, be ■n™en ^ upper part AC of this mirror, the beam . jJ’ t]ie re. individual rays Rl, R2, R3, &c., up to » making the fleeted rays 1,1; 2, 2; 3, 3, &c., be fomi - jiculars angle of reflexion which they form with the peri i See Conic Sections, vol. vii. p. 229, prop. y. cor. 4. * Id. Id. p. 241, prop, v- Art. Microscope, vol. xv. p. 42. Edin. Jour, of Science, N. S., bo. 12, p. i a C* OPTICS. :s. drawn from 1, 2, 3, See., to C, equal to the angles of inci- ^dence which they form with the same perpendiculars. We shall then have the directions, and also the foci and inter¬ sections of all the rays. The ray 10,10 does not meet the axis RC at all, but falling on the mirror at the point 3, will there suffer a second reflexion. The ray 9, 9 has its focus exactly at C, the vertex of the mirror, where it will suffer a second reflexion, and so on with all the rest, up to 14, which is the last which will suffer a second reflexion. All the re¬ flected rays, after 9, 9, cross the axis, or have their foci at points gradually approaching to f, which is the focus of the central ray Rl. As all the rays proceeding from R, but not drawn in the figure, which fall upon the other half CB of the mirror, at points corresponding to R 1, R2, &c., will have their foci in the same points between C and/ there will be along that line a series of foci constituting a line of light becoming more intense towards/ Rut the rays RlO, R9, R8, cross each other after reflex¬ ion, and before they reach the axis, as shewn in the figure, and hence there will be a beautiful curve of light Af, called a caustic, formed by the intersection of these rays. The other half of the mirror CB will form a similar caustic, and the projecting points/are called the cusps of these caustics, and Cf their tangent. If a small pencil of light, consisting of two contiguous rays, moves from R A towards the position RB, being incident successively at 9, 8, 7, 6, &c., the conjugate focus of this pen¬ cil, or that formed by the intersection of the two rays of which it consists, wall move along the caustic curve Af, while the points where it crosses the axis RC, or its focus formed by its union with a similar pencil similarly incident on the other half of the mirror, will advance from C to/ If we now consider ACB as a convex spherical surface, and place the radiant point R as far to the right of the ver¬ tex C as it is to the left of it in the figure, and if we project the reflected rays, we shall find that when traced backwards, they will intersect the axis and each other, in the very same manner as they do in the figure, forming an imaginary or virtual caustic, in place of a real one, the two being in every respect the same. 17 If, while the radiant point R remains as in the figure, we suppose the convex surface ASB to receive the incident rays, it will then be found, by projecting the reflected rays, that they will form an imaginary caustic ApB, less than A/B, and joining it at the points A, B. This difference in size arises from the radiant point being in this case much nearer the convex surface than before. Let us now suppose that the radiant point R recedes from the corecaw mirror ACB, the point/of the cusps will gra¬ dually approach to F, the tangent C/diminishing at the same time; and when R is infinitely distant, or the rays parallel the point/ will coincide with F, the focus of parallel Jr S' Ann Sarae .wiI1 ta!<;e PIace in the case °f the convex irror ACB; but in the case of the convex mirror ASB, the point? o, the cusps will approach to F', and will coincide ’Vith !t when R is infinitely distant. n • I p the case of the concave mirror ACB, the radiant * K no^ approaches to the mirror, the cusps f will ap- i ac i to the centre E of the mirror, the caustic curve Af thprT'ufkflatter an in consequence of all the rays scc/jLreueC*ed back t0 the centre, all their foci and inter- sectnm having united in that point. proaches6 f *m in}a3inary caustic Af and RB, RB other rays nearer the axis, and refracted in the directions BF, BF. If we join CD, CD, and drawing the semicircles DFC, DLL make the lines DE, CE' in the same proportion to CD as unity is to the index of refraction, the caustic will begin at EE and extending in the directions E, F', F will approach to the axis RC till it meets it at the principal focus F. The caustics formed by the two refractions of a sphere, or of a cylinder (in a plane perpendicular to its axis) are shewn in fig. 64, where ACB is the spherical section, E its Fig. 64. Fig. 62. centre, R the radiant point, and RC the ray which touches the spherical surface. This ray will be refracted by the first Surface in the direction 6,6, and by the second sur¬ face of the sphere at 6, the other rays Ro, R4, &c. will be all refracted in the directions indicated by the nume^s 5, 4, &c. and their various intersections will form the caus c 6 4, 3, 2, 1, ( each ray crossing the next ray before it the axis,/being the focus or the point where the ray nearest the axis cut it. The luminous figure bounded the intersection of the successive rays is compo^d of two bright caustic curves. Within these caustics there is also much light arising from the intersections be caustics and the axis; but as thfr,\are, without the caustics they are bounded by abso ute darkno| When parallel rays fall upon the spherical section AC , the caustic commences at the extremity of a diamete p pendicular to the axis of the section, because Ae extt ray suffers refraction at that point, and will intersect 1 nearest a little within it, and they extend, as ™ \ the principal focus of the sphere for rays ne^thejs The real caustic will be the surface forme by t ^ tionofthe curves round the axis E/the section curve will be a luminous Pomt f A on the surface it will be a luminous circle vmdiy dep 1 d. ^ sphere. M. Delarive has Pointed/^/XrS or ofhoh mining the index of refraction of solid fPhe ’ the low spheres containing different fluids, b) ™ luids diameter of this luminous circle, which is sn 11 , of high than in those of low refractive power. nomena of caustics formed by refraction, m > ^ a strong exhibited by exposing to the rays of the s ^ g s0. artificial light, a globe of glas/bUf wl hnfa"yrofluUi;d glass de¬ lid transparent sphere, or the widest par luminous canter. With all these bodies ^e whole of the^u figure will be clearly seen. If we use a cyhnd jroi ics ter, such as a tumbler or a cylindrical bottle, we shall see ** '■''the caustic curves formed upon a white surface held paral¬ lel to the surface of the fluid, the light falling upon the cy¬ lindrical surface in the same plane. PART H. OX THE REFRACTIOX OF COMPOUND LIGHT, OR THE DOCTRINE OF COLOURS AND THE PRISMATIC SPEC¬ TRUM. OPTICS. 403 1 ics L\ the preceding pages we have considered white light, whether emanating directly from the sun or from artificial flames, or consisting of the same rays reflected and modified by other bodies, as a simple element all the particles of which had the same index of refraction, or suffered the same change of direction when refracted by any transpa¬ rent body. This, however, is not the nature of light. White light as emitted by the sun or other luminous bodies, is" a very compound element, all the parts of which possess very different properties, and these properties are of a very re¬ markable and interesting kind. The power which causes the reflexion of light from polished metallic bodies is not capable of decomposing it, unless when it enters the sub¬ stance of the metal, but the power which produces refrac¬ tion is peculiarly influential in separating compound white light into its elements. The same decomposition may be effected by the interference of rays of light by absorption, and by another principle of analysis, which has been called dis¬ section. The two first of these processes of analysis de¬ compose compound light of different degrees of refrangibi- lity; while the two last decompose compound light whose rays have the same refrangibility. Sect. I—On the decomposition of light, and the different refrangibility of its rays. i The constituent parts or colours which compose white light, are seven in number, red, orange, yellow, green, blue, in¬ digo, and violet. These colours have been long observed and studied in the rainbow, and in the refractions produced by lenses and prisms, but till the time of Sir Isaac New¬ ton, no satisfactory explanation had been given of their origin and properties. Descartes had found that colours similar to those of the rainbow were produced by prisms, and he endeavoured to explain them by saying, that the - particles of the medium, or matter which transmits light, endeavour to revolve with so great force, that they cannot 1 move m a straight line, whence comes refraction ; "and that those particles which endeavour to revolve more strongly produce a red colour, those that endeavour to move a little i more strongly, produce yelloiu, and so on with the other colours. Now this explanation, as Mr. Whewell1 has justly remarked, though it contains a gratuitous hypothesis respect- l mg the cause of refraction, yet it proves that Descartes con- i ’ihered the different colours as produced by different de- ?rees of refraction. In like manner Grimaldi, as the same mtnor has. observed, explains colours by saying, “that iLC°T 18 brighter where the light is dense;'and the ght is denser on the side from which the refraction turns e ray, because the increments of refraction are greater r he rays that are more inclined that is, that the blue ays are more refracted than the red rays. We cannot agree, iatinTrf nth ^:,Whewe11 in the opinion, that this expia¬ tion of Grimaldis might give an explanation of most of Inpnf cr?1* 0ne much more erroneous than a develop- ent of Descartes’s views would have been.” It appears o us quite manifest, that both Descartes and Grimaldi had gue sentiment that the different colours were produced ios Herfnt1egrees of refraction> and that Grimaldi’s is the is met y expressed of the two ; but we cannot for a “aXswaffed veiteaalh°r ab°Ve Newton, by examining all those lights with a pnsm they were faint, or transmitting them through the p in section 1, when they were sufficiently intense. ^ ^ 3. The light of the sun consists of rays differing flexibility ; and those rays that are more refrangible others are also more rcflexible. pfi . • A nr' liQ +H7r> oncrlPS at its Ddsc A prism ABC, fig. 6*8, whose two angles at its base 1 - ■' 11 Tright ones, and the u were equal to one another and half i I Fig. 68. wticsat A a right one, I placed in a beam FM of the sun’s light, let into a dark chamber through a hole F, one-third part of an inch broad; and turning theprismslowly about its axis until the light which went through one of its an¬ gles ACB, and was refracted by it to G and H, began to be reflected into the line MN by its base BC, at which till then it went out of the glass ; I observed that those rays as MH, which had suffered the greatest refraction, were sooner reflected than the rest. To make it evident that the rays which vanished at H were reflected into the beam MN, I made this beam pass through another prism VXY, and being refracted by it to fall after¬ wards upon a sheet of white paper pt placed at some dis¬ tance behind it, and there by that refraction to paint the usual colours at pt. Then causing the first prism to be turned about its axis according to the order of the letters: ABC, I observed that when those rays MH, which in this prism had suffered the greatest refraction, and appeared blue and violet, began to be totally reflected, the blue and violet light on the paper which was most refracted in the second prism received a sensible increase at p, above that of the red and yellow at t: and afterwards, when the rest of the light, which was green, yellow, and red, began to be totally reflected, and vanished at G, the light of those co- ours at t, on the paper y, received as great an increase as the violet and blue had received before. Which puts it past dispute, that those rays became first of all totally re¬ flected at the base BC, which before at equal incidences with .. e res “Pon the base BC had suffered the greatest refrac- ‘“f 1 ,d° nothere take any notice of any refractions made n the sides AC, AB, of the first prism, because the light en¬ ters almost perpendicularly at the first side, and goes out al¬ most perpendicularly at the second; and therefore suffers none, or so little, that the angles of incidence at the base BC are not Ltltf by u ;,esPecially if the ^gles of the prism at he base BC be each about 40°. For the rays FM begin to be otal ymfleeted when the angle CMF is about 50°,and there- ore they will then make a right angle of 90° with AC. MN Jfau S°ifrT exPeriments, that the beam of light fim’bvfrp Cd by thr base°f the Prism, being augmented less reft nt-m°re refranglb]e 'ays, and afterwards by the ess refrangibJe is composed of rays differently refrangible. Wh°Se ra,ys are a11 alike refrangible, I call sim- some aT s^m^ar > and that whose rays are JitSL others’1 csl1 camp,mxd’/ W of homogeneous Ughts I call prmary, homo- V neous, and simple; and those of heterogeneous lights pS«Uf7 antl ““ Fof these Je dTys S pounaecl of homogeneous lights. rathermK^?* bght and rays which aPPear red> ™ which mat ft?eCtS aPPear so, I call red-making; those 1 calhS, a^6ar yellow’ 9reen, blue> and violet, oftherest A^T blue-makind> vioiet-making; and so as coloured nr a at/ny time 1 sPeak of hght and rays stood to sneak nni ° CoIours’ 1 would be under- properly are norVl U OS"Phlcally- For the rays, to speak else than a rertn- ° oured’ and m them there is nothing sation of this or that0cmlour"” disp°sition to Produce a sen- °fcompound>Ugh/'r0m ^ anotber the heterogeneous rays 1 rirdetnsweS 7^2 are,e(lualIy refrangible fall upon experiment by lid by™ * wdl be,Pr^ed U I 1 C So 405 Fig. 69. apiS Let AG, fig. 69, represent the circle which all the mn wil1 compound varied, so that in the passing of every tooth over the lens - i1 these colours, red, yellow?green, Le, znd puX Z always succeed one another. I caused therefore all the teeth to pass successively over the lens, and when the mo¬ tion was slow, there appeared a perpetual succession of the colours upon the paper : But if I so much accelerated the motion, that the colours by reason of their quick succession could not be distinguished from one another, the appear¬ ance of the single colours ceased- There was no red, no yellow, no green, no blue, nor purple, to be seen any long¬ er, but from a confusion of them all there arose one uni¬ form white colour. Of the light which now by the mixture of all the colours appeared white, there was no part really white. One part was red, another yellow, a third green, 'Pted, and lot-^ /C11B Uf aiLeriiaifc;iy inier~ a fourth blue, a fifth purple, and every part retains its pro- ill not suffer anv gam’C vf0 * colour on the paper per colour till it strike the sensorium. If the impressions I ;veral sorts of rave & w? ^reby, as it ought to do if the follow one another slowly, so that they may be severally jb ac e upon one another in the focus perceived, there is made a distinct sensation of all the co- i an uiaugc, aim men u me intercepted co- 9u,rs e Pass they will fall upon this compounded orange, M together with it decompound a white. So also if the M and violet be intercepted, the remaining yellow, green, I ™ blue, will compound a green upon the paper, and then red and violet being let pass, will fall upon this green, together with it decompound a white. And that in n1S ““Position of white the several rays do not suffer an£e iu their colorific qualities by acting upon one I ler’ j are only mixed, and by a mixture of their ientsS pr°duce w^tei may farther appear by these argu- wiPape^ be P^aced beyond the focus G, suppose at ’ . , lc'n die red colour at the lens be alternatelyinter- -Pted, and Ipi *i .• / . i J 408 OPT Chromaticslours, one after another, in a continual succession. But if 'the impressions follow one another so quickly that they can¬ not be severally perceived, there ariseth out of them all one common sensation, which is neither of this colour alone nor of that alone, but hath itself indifferently to them all, and this is a sensation of whiteness.” . Such is the account which Newton himself has given ot the great discovery of the different refrangibility ot light. In examining the prismatic spectrum it is difficult to dis¬ cover the terminations or boundaries of the different co¬ lours. They pass into one another by insensible shades, and if any person were to lay down their apparent limits by the nicest observations, he would find, what has been very recently discovered, that these limits vary with the state of the atmosphere, and with the altitude of the sun. Sir Isaac Newton, however, did make the attempt, and the following are the results which he obtained, we believe with crown or plate glass. We have added the results obtained long afterwards by Dr. Wollaston1 and Mr. Fraunhofer2 with flint glass, which shews the difficulty of this class of observations. Newton in Fraunhofer in Crown Glass. Flint Glass. Red 45 ^ Orange 2/ Yellow ”40 Green hO Blue 60 Indigo 48 Violet 80 ..27 ..27 ..46. ..48. ..47 ,.109. Wollaston in Flint Glass. 57*6 ...82-8 .129-6 ..90 360 360 360 Imperfec¬ tion of re Fig. 73. The influence of these discoveries on the progress of op¬ tion of re- tical science was very remarkable. They led Sir Isaac to fracting te* discover that the cause of the imperfections ot the retract- lescopes. jng telescopes was the differ¬ ent refrangibi- x.- lity of the rays of light. IfLL, for example, is a lens without spherical aber¬ ration, upon which parallel ICS. towards a and b, and very intense in the centre c, so thatChro, there is formed at c a sort of general focus indistinct and^ coloured. Every part of an object, therefore, will have its ima-e formed in the foci of such a lens similarly indistinct and'similarly coloured, and hence we see the reason why refracting telescopes had such great imperfections, that it was necessary to make them of enormous lengths, in order to obtain a sufficient magnifying power. From these causes, Sir Isaac Newton despaired of the improvement of refracting telescopes, and set himself at an early period of his life to execute reflecting telescopes. His successors, however, Mr. Hall and Mr. Dollond, studied the object of refraction as produced by prisms made of dif¬ ferent substances, and found, as we have already folly stated in our history of Optics, that Sir Isaac Newton was mistaken in supposing that all refracting media gave spec¬ tra, or separated the colours of white light m the same proportion as their refractive powers, and that different bodies had different dispersive powers, as well as different refractive ones.3 This grand discovery we shall now pro¬ ceed to explain. Sect. II.—On the different Dispersive Powers of Bodies. The term dispersion has been employed to denote theDisJir separation of the different rays of white light into that di-o v vergent beam which constitutes the prismatic spectrum, the differently coloured rays having been dispersed or scattered by their different refrangibihty. Sir Isaac New ton believed that all bodies whatever, whether water, or erovm, or plate, or dint glass, dispersed light in an equal degree, provided the mean refraction, that is, the refraction of the mean or middle ray of the spectrum (the green ray, viz.), of these bo¬ dies was equal, or, in other words, that the dispersion, or the angle formed by the extreme red and the extreme violet ray was in different bodies proportional to the mean refraction. As Sir Isaac Newton submitted to experiment a numbe of fluid substances, in the form of prisms, it is perhaps one of the most remarkable oversights'in the history o scie“ ’ that he did not think of comparing the length of the specU which they formed ; and it is equally strange that for mw than a century he and all his successors should never have thought of forming the spectrum from any other lun— body less in diameter than the sun, or even from any bmi nous line of small breadth.'1 The consequence of these ove sights was, that the most important discoveries retov light, and to optical instruments, were reserved for anotlie a° In our History of Optics, •ml ™ the article Achbomaxic Glasses, we have given a detailed history i {j labours of Hall, Dollond, Euler, and others, by finch the achromatic telescope was invented and perfected. If we perform the experiment shewn m fig. 65, with t prisms, the one of/«, and the other of J measure in each the length of the spec ^ FT,^ wmcn parallel ->* x. ravs R. R, R of white light are incident, then it is obvious that the violet, or most refrangible rays will be most refracted in directions Lr, U’, crossing the axis at v, and there giving a violet focus of light. In like manner the red, or the least refrangible rays, will be refracted in directions Lr, Lr, crossing the axis at r, and there giving a red focus of light. In like manner all the other rays will have toci of their own colour between r and r. If we draw the line ab, meeting the intersection of the extreme violet rays after the lateral aberration of refrangibihty, or the diameter o orm mean refraction of the prism, and the^ the circle of diffusion, all the coloured rays being diffused angle wi w s]iaq then find, that while over the circlefof which ab is the diameter. The space the angular hiding the greater Ta r b is called the sphere of diffusion ; and the section crown glass the quotient obfo ^ ^ refraction to of it shewn in the figure may be regarded as a parallelo- o-ram, on account of the smallness of the angles rhv, rLv, which are greatly magnified in the figure. Hence it may be easily shewn, that the longitudinal aberration nr, is to the lateral aberration as the focal distance of the lens is to its radius or half its aperture _ - . -i (* V /T*__ ’ crown glass the quotient obtained by on in g ^ by the lesser angle, or the part of the mea” r. 'S,A renumber varying with the nature of the g s. is number varying witn tnc 0 This result may be exhibited to the eYe, bJ {’ p 0fsuCh ie lateral aberration a«, as me ^ — - m of cr^vn glass C, another of flint gla^s fo oi ^ to its radius or half its aperture. ? ~ tn nroduce any deviation by refract > . Tn the circle of diffusion ui, the light becomes very famt - nngl^n^produce^e^^^^ 3 See our Article Achromatic Glasses, See page 406, col. 1. Cgp tjrijg 414, col* These results are taken from his coloured figure of the spectrum. OPTICS. green ray produced by the Fig. 74. •s angle of deviation of the ^crown glass prism C, being compen¬ sated by an equal and opposite de¬ viation produced by the flint glass prism F; that is, the green ray B/y will emerge paral¬ lel to the incident ray R A. When this has been effected it will be seen that there is still a spectrum rv, which will colour the edges of any object which is viewed through the prism, and in which will have the same position as if they had been produced by a small flint glass prism placed in the same man¬ ner as the flint glass prism F. If we now take two prisms, one of crown, and the other offlint glass, of such angles, that all objects seen through them are colourless, or that a ray of light ¥>g, when refracted by them, as in fig. 74, shall be white, it will be found that tlie white pencil ?no will be refracted towards the base of the crown glass prism, the flint glass having corrected the colour produced by the crown glass one, but still left a con¬ siderable balance of refraction produced by the latter. Hence it is manifest that the colours produced by a con¬ vex lens of crown glass, as shewn in fig. 73, may be cor¬ rected by a concave lens of flint glass, while the rays pro¬ duced by the unbalanced refraction of the convex glass are still converged to a focus. Such a combination of lenses is called an achromatic object-glass, and a telescope in which such an object-glass is used is called an achromatic tele¬ scope. Nothing is easier than to determine by experiment, wdten we have obtained good glass for the construction of these lenses, the proper radii to which they should be ground, in order to correct the aberration of colour; but it may be readily shewn, and the reader may easily prove it by the methods already described, that the aberration of colour pro- duced by a convex lens of croicn glass will be corrected by a concave lens of flint glass, provided the focal lengths of the two lenses are proportional to their dispersive power. Thus, in fig. 75, if LL is a convex lens of crown glass, whose locus for green rays is at f, and for violet and red rays at 409 » and r, and if F is the virtual focus of a concave lens ll of Chromatics flint glass, for the mean green Rig. 75. ray, then paral¬ lel rays AAA w ill be refract¬ ed to a single focus at RV, where the vio¬ let and red rays will be united, provided the focal length of//, viz., EF, is to E/J the focal length of LL as 0-068, the dis¬ persive power oiflint glass, is to 0-033, the dispersive power of crotvn glass. The dispersive powers of various glasses, and of some fluids, Dispersive had been measured with considerable care, in reference to powers of the improvement of the telescope, but no attempt was made bodies, to investigate it as a branch of physics, exhibiting new and interesting properties of transparent bodies. Dr. Wollaston set the example of beginning this inquiry, and he deter¬ mined in a very general manner the dispersive qualities of thirty-three substances, which he arranged in the order of their dispersive powers, without giving any numerical esti¬ mate of their value. In this state of the subject, Sir David Brew ster, by a new method of measuring dispersive powers, which presented considerable facility of observation, made a very extensive series of experiments on the subject, which, in a physical point of view, presented several curious results. In laying the following table of his observations before our readers, we must warn them that they were made, often w ith the most imperfect specimens of the minerals and fluid sub¬ stances, from the difficulty of getting any other, and that they were intended only to indicate the general properties of bo¬ dies in dispersing light. The want of fixed points in the spectrum, in reference to which the measures could be taken, rendered it necessary to use the extreme points, which va¬ ried w ith the intensity of the light employed, and with the absorbing action of the bodies themselves, when they hap¬ pened to be coloured or imperfectly transparent. The dis¬ covery of the fixed lines, and their use in measuring disper¬ sive powers, introduced by Fraunhofer, has given a new impetus to this subject, and wnen it is practicable to obtain good prisms of the substance under examination, no other method will or should be adopted. ^able of the Dispersive Powers of various Solid and Fluid Bodies. Part of the whole re- XT fraction to Names of substances. which the dispersion is equal. Chromate of lead (great¬ est refraction), estimat¬ ed at 0-770 Chromate of lead (great¬ est refraction), must exceed 0-570 Kealgar, a different kind, meited 0-394 Chromate of lead (least refraction) 0-388 Kealgar, melted 0-374 Oil of cassia 0-089 jhilphur, after fusion 0-149 Phosphorus 0-156 sulphuret of carbon 0-077 Balsam of Tolu 0-065 oaisam of Peru 0-058 “-aibonate of lead (great¬ est refraction) +0 091 •jarbadoes aloes 0*058 Essential oil of bitter al- ®0rds". 0-048 j ot anise seeds 0-044 wetate of lead, melted...0 040 jalsam of styrax 0-039 VOL. XVI. Dispersive power. 0-400 0-296 0-267 0-262 0-255 0-139 0-130 0-128 0-115 0-103 0-093 +0-091 0-085 0-079 0 077 0-069 0-067 Part of the whole re¬ fraction to Dispersive Names of the Substances, which the power. dispersion is equal. Guiacum 0 041 0-066 Carbonate of lead (least refraction) 0-056 0 066 Oil of cummin 0 033 0-065 Essential oil of tobacco...0-035 0-064 Gum ammoniac 0-037 0-063 Oil of Barbadoes tar 0-032 0-062 Oil of cloves 0 033 0 062 Green coloured glass 0-037 0-061 Sulphate of lead 0-056 0-060 Deep red glass 0-044 0-060 Oil of sassafras 0-832 0-060 Opal-coloured glass 0-038 0-060 Muriate of antimony (refr. pr. 1-598) 0-036 0-059 Rosin 0-032 0-057 Oil of sweet fennel seeds 0-028 0-055 Oil of spearmint 0-026 0 054 Orange-coloured glass....0-042 0-053 Rock salt 0-029 0-053 Flint glass, Boscovich’s, highest 0-0527 Caoutchouc 0-028 0-052 Oil of pimento 0 026 0 052 Flint glass 0-032 0-052 Names of substances. Part of the whole re¬ fraction to which the dispersion is equal. ....0-031 Deep purple glass Oil of angelica 0-025 Oil of thyme 0-024 Oil of fenugreek 0 024 Oil of wormwood 0-022 Oil of pennyroyal 0-024 Oil of carraway seeds ....0-024 Oil of dill seeds 0-023 Oil of bergamot 0.023 Flint glass 0-029 Chio turpentine 0-028 Gum thus 0-028 Oil of lemon 0 023 Flint glass 0 028 Oil of juniper 0 022 Oil of chamomyle 0-021 Gum juniper 0-025 Carbonate of strontites, (greatest refraction)...0-032 Oil of brick 0-021 Flint glass, Boscovich’s, lowest Nitric acid 0-019 Oil of lavender 0-021 Balsam of sulphur 0 023 Dispersivg power. 0-051 0-051 0-050 0-050 0-049 0-049 0-049 0-049 0-049 0048 0-048 0-048 0-048 0-048 0-047 0-046 0-046 0-046 0-046 0-0457 0-045 0-045 0-045 3 F 410 OPTICS. Chromatics Names of Substances. Part of the whole re¬ fraction to which the dispersion is equal. Tortoise shell 0'027 Horn Canada balsam 0-024 Oil of marjoram 0-022 Gum olibanum 0-024 Nitrous acid 0-018 Cajeput oil 0-021 Oil of hyssop 0 022 Oil of rhodium 0 022 Pink-coloured glass 0-025 Oil of savine 0-021 Oil of poppy 0-020 Zircon (greatest reft-.)...0-045 Muriatic acid 0-016 Gum copal 0-024 Nut oil O'022 Burgundy pitch 0*024 Oil of turpentine 0 020 Oil of rosemary 0-020 Feldspar 0022 Glue 0-022 Balsam of Capivi 0-021 Amber 0 023 Oil of nutmeg 0-021 Stilbite 0-021 Oil of peppermint 0-019 Spinelle ruby 0-031 Calcareous spar (greatest refraction) 0-027 Oil of rapeseed 0"019 Bottle glass 0.023 Tartrate of potash and soda 0-020 Carbonate of potash (great¬ est refraction) 0-013 Gum elemi 0 021 Sulphate of iron 0-019 Diamond Dispersive power. Names of Substances. 0-045 0-045 0-045 0 045 0-045 0-044 0-044 0-044 0-044 0-044 0-044 0-044 0-044 0 043 0-043 0-043 0043 0-042 0-042 0-042 0-041 0-041 0-041 0041 0-041 0-040 0-040 Part of the whole re¬ fraction to which the dispersion is equal. Dispersive power. 0.040 0-040 0040 0-039 0-039 0-039 0-039 0 038 Oil of olives 0-018 Gum mastich 0-022 White of an egg 0-013 Oil of rhue 0-016 Gum myrrh..... 0 020 Beryl 0-022 Obsidian Ether 0-012 Selenite Alum 0-017 Castor oil Sulphate of copper 0-019 Crown glass, very green 0-020 Gum Arabic 0-018 Sugar, after being melted and cooled 0-020 Jelly fish, body of, {me¬ dusa cequorea) 0-013 Water 0‘012 Aqueous humour of a haddock’s eye 0-012 Vitreous humour of ditto ^ Citric acid 0-019 Rubellite 0-027 Leucite Epidote 0-024 Common glass, Bosco- vich’s, highest Glass of borax 0-018 Garnet ...0*027 Pyrope; J-026 Chrysolite Common glass, Bosco- vich’s, lowest Oil of ambergris 0 , o Oil of wine 0 012 0-038 0-038 0-037 0-037 0-037 0-037 0-037 0-037 0-037 0-036 0-036 0 036 0-036 0-036 0 036 0-035 0-035 0-035 0-035 0-035 0-035 0-035 0-035 0-0346 0-034 0-033 0-033 0-033 0 033 0-033 0-032 0-032 Part of the whole re¬ fraction to Names of Substances. which the dispersion is equal. Phosphoric acid, solid prism, yellow 0-017 Glass of phosphorus, white 0-017 Plate glass 0-017 Sulphuric acid 0-014 Tartaric acid 0'016 Nitre, least refraction ....0-009 Borax 0-014 Axinite 0 022 Alcohol 0-011 Sulphate of barytes 0-011 Tourmaline 0-019 Phosphoric acid, fluid.... 0-012 Carbonate of barytes, least refraction1 0-015 Malic acid 0-011 Carbonate of strontites, least refraction 0-015 Crown glass, Leith, Ro¬ bison Rock crystal 0-014 Emerald 0-015 Borax glass, 1 bor. 2silex 0-014 Calcareous spar, least re¬ fraction 0 016 Blue sapphire 0-021 Bluish topaz from Cairn¬ gorm 0-016 Chrysoberyl 0-019 Blue topaz, from Aber¬ deenshire 0-016 Sulphate of strontites....0-015 Carbonate of potash,2 least refraction 0-0088 Prussic acid 0"008 Fluor spar 0-010 Cryolite 0-007 Gw ja Dispersive^*' ^ 0-032 0-032 0-032 0-031 0-030 0-0304 0-030 0-030 0-029 00-29 0-028 0-0283 0-0285 0-0282 0.027 0-033 0-026 0-026 0-026 0-026 0-0-26 0-025 0-025 0-024 0-024 0-0233 00227 0-022 0-022 The following measures of the dispersive powers of several varieties of glass were taken by Sir John Herschel, by a me¬ thod which gave him nearly the extreme rays of the spec¬ trum, namely, by viewing the spectrum through a dark blue glass, which stops the green, yellow, and most refrangio red ravs, and therefore allows the extreme rays of the spec¬ trum to be seen,—rays which the eye does not recognise in any of the ordinary lights which are used m optical instru¬ ments. If we condense the sun’s light, as we have done, m order to render visible rays at the extremities of the spec¬ trum, that have not been recognised, we should obtain tlis- persive powers still higher than those given by ir o n Herschel. By determining, however, the extremities of1 ie spectrum seen by the ordinary light of the sky, it would be easy to accommodate all measures of dispersive power taken in such a light to those taken in the light used by Sir John Herschel, or in the more condensed and consequently elon¬ gated spectrum to which we have referred. In order that the measures in the following tables may be correct, it is necessary that they should all have been taken when the sun had the same altitude, because it is quite certain that the violet part of the spectrum diminishes in length very rapidly as the sun approaches the horizon, and some change also takes place at the red extremity. Flint glass, Part of the whole refraction to which the dispersion is equal. 0-03734 0-06386 Dispersive power. Ditto, heavy, 0-03951 0-06555 Ditto 0-03747 0-06409 Crown glass, 0-02139 0-04063 Ditto, a different kind,....0-02494 Plate glass, 0-02616 0-05090 Sir John Herschel justly remarks, that it ought not to ex¬ cite surprise that the dispersions deduced by this method should considerably exceed all former estimates. In the preceding table of dispersive powers we ha™£ t( two columns of numerical results, the first column co ^ the part of the whole refraction, or angie of deviat which the angle of dispersion is equal, and ^ , , dispersive power itself. The first column is o vi y ^ a measure of the dispersive power, because if the . U,,.. 1th nart of a low refraction in one body, in that column is 2’oth Part of>alow re^r.actl0n T hndvof and the 20th part of a high refraction in anofhcr b ) great refractive power, the dispersive power ot the must be smaller than that of the former, m the inverse r of the index of refraction of the two bodies minus Hence the numbers in the second column, the .n_ Dispersive Poiuers of different kinds of Glass. Part of the whole Dispersive refraction to which the power, dispersion is equal. Flint glass 0-03849 0-06404 Ditto, 0-03705 0-06409 pott ers, are obtained by dividing the first column by tte111 dex of refraction minus one. _ , 7 . j^nersiveAbs If we wish to have the intrinsic 0^. a^f^eifufUmatediSp ’ powers of bodies, in reference to the action o th^ ^ition)Po* molecules on the theory of emission, and on ^ supPJsolute as Sir John Herschel has remarked, in reference See Edin. Trans, vol. vii. p. The least refractive index of this salt,'which is not inserted in our table, p. 384, is 1-379. The dispersive power of the other image is considerably greater than this. 289- ■5 Edin. Trans, vol. ix. p. 458. OPTICS. irom s refractive powers, of the ultimate atoms of all bodies being rv * equally heavy, we must divide the numbers in the second column of the preceding table by the specific gravities or densities of the bodies. In this way we have computed the results in the following table, containing the substances principally that exercise an extreme action in the dispersion of light. Table of Absolute Dispersive Powers. Specific Absolute gravities used. dispersive power. Sulphate of barytes, 4’48 0-00602 strontites, 3-95 0-00607 Carbonate of barytes, 3-70 0-0063 Sapphire, 3*50 0-0066 Chryso-beryl, 3-93 0-00675 ToPaz> 3-50 0-00685 Fluorspar, 3-17 0-0069 Cryolite, 2-95 00074 Diamond, 3-50 0-0109 Plate glass, 2-76 0-0112 Rock salt, 2-143 0-0250 Water, 1-00 0-.035 Amber, 1-04 0-0400 Oil of olives, 0-913 0-0415 Oil of turpentine, 0-87 0-0483 Sulphur, fused, 2-00 0-065 Realgar, 3.50 0-0728 Phosphorus, 1-75 0.0731 Oil of anise seeds, 0*987 0-078 Bi-sulphuret of carbon, 1-27 0-081 Oil of cassia, 1.044 0-131 411 Sect. III.- On the Irrationality of the Coloured Spaces?™?™*!** m the Spectrum, and the existence of a secondary Spec- Li Hill* W e are indebted, we believe, to M. Clairaut for the dis- Secondary veiy o ie irrationality of the coloured spaces in the spectrum, spectrum. He found that when the flint-glass of an ach- Qairaut romatic object glass had its aberration of colour as com¬ pletely corrected as possible, that is, when the extreme red and violet rays were accurately united in the same focus, still there remained a portion of incorrected colour, which was of a purple or claret colour on one side of the focus, and of a green colour on the other. If prisms had been used in place of lenses, and the sun’s light transmitted through them in the usual manner, there would have been a small reci- dual spectrum, or secondary spectrum as it has been called consisting of purple and green light. The Abbe Boscovich Boscovich. afterwards observed the same fact, but considered it so ex¬ traordinary that he suspected some latent cause of error, and submitted his experiments to the most rigid scrutiny. He at last admitted the irrationality of the coloured spaces in the spectrum as a demonstrated truth, and has shewn how three of the colours of the spectrum may be corrected or united in the same focus in achromatic telescopes. The late Professor Robison obtained similar results, and gave Robison, the name of outstandimy colours to those which were not united, and form the secondary spectrum. This subject was more fully investigated by Dr. Blair, Blair, m his interesting paper on the unequal refrangibility of light, and he has shewn that the proportions of the coloured spaces vary with the substance of the opposing prisms, that a complete correction of colour cannot possibly be ef¬ fected by two media of different dispersive powers. _ _ »-»vy\_.xo* Hence Dr. Blair w as led to examine the nature of the dispersive ac- heir density, the least dispersive5 power of all bodies and ^ te'e- iledis- re - the gents, including ^ * table of absoluti lies, with the ex the table, oil q : dispersive powe: owing to the hy mmmmmmmmr ton in the Phil. Trans, for 1803, of these colours have been suppo _ ^ ^ eprived a portion of this oil of nf 'T ^ccordinS to ^ medium by which they are produced, I mking a stream of chlorine pass through it till it- rT ^ m 0 comPar^d Wldl tlus appearance, the coloured images Wollaston. by him to differ most in this respect, such as strong but linishpfl rmp -i nT ^ colourless nitric acid, rectified oil of turpentine, verv nale •feed anv cW. ^Th- ^‘T p0wer ha? hartlly od of sassairas, Canada balsam, also nearlTcolourless WUh e lowest refractive power ^ 1 ent which has nearly as I could mdtre, the same urrmnrtinnc judge, the same proportions of them.” Dr. Blair was surprised that Dr. Wollaston should have used such a >ral Table'nfVT^ m^resting results exhibited in the ge- coarse method of determining a point that required delicate ■wmTdollyTSinHX^^^rr6 °*?servap/,ns’ especiaHy with the substences above mention- d measured the dispersiveg nmVer of the ^ ° a w he renla5ked to the of this article, that if Dr. Icareous spar so fer at Wt^Tt ? 0rd‘nar>: ray ^ Wollaston would only make use of lenses, he would see his vms »par, so tar at least as to ascertain that it stood m stake after Q ? ^ « OCc iu& ove water and elof a i asccrknnthat it stood mistake after a single observation, hadbto^ to ^lCS£ln jSaVidfBreT ^ iS,n° d°ubt’ h0Wever> tbesecondary spectrum 7 ray, and found “to be much A fe™a°r, T u 6 gaout knowing thafthe s ?u?£erg and .Mr- CooPer’ stood fr°m fig. 76, where RR t ited. g h the Subject had been P^viously inves- aperture in the window-shutter SS, and refracted by a prism | ~ , m tbe direction PM, so as to form the spectrum AB on the _ O ^a-vw. y 0^7V_.1,1 Lilli• The phenomena of a secojndary spectrum will be under- is a ray passing through an Trans. 1813, p. 107, where this result was first published.’ 2 Edin. Trans, vol. iff. p, 3. 412 Chromatics wall, PA beino the extreme violet ray, PM the mean ray, - 1 I . J -- —-11 rn •« n 4- S\(- tVvii V* OPTICS. lower side, and with a claret-coloured fringe on its upper Chi: side. . ^ When a horizontal window-bar, therefore, is seen through any two prisms which correct each other’s dispersion, with¬ out uniting all the colours, the green fringe will always be on the same side of the bar with the vertex of the prism which has the least action upon the green light, or which contracts the red and green rays, and expands the blue and violet ones ; that is, if the vertex of the flint glass prism is pointing downwards, the uncorrected green fringe will be on the lower side of the bar. By observing, therefore, the position of the green fringe, we can immediately ascertain which of the two prisms has the greatest action upon the green light. These theoretical deductions from the assumed inequality of the coloured spaces are completely established by obser¬ vation. The following Table contains the result of a numerous series of observations made by Sir David Brewster on the se¬ condary spectra of different bodies, the substances being ar¬ ranged inversely according to their action upon green light. The bodies at the top of the Table form spectra, in which the red and green spaces are most contracted, and the blue and violet ones most expanded. The relative position of 5 uui' — o —r 7 it will be seen whether or not the relative action of any two bodies has been determined. Table of Transparent Bodies, arranged inversely according to their Action upon Green Light. 10 palpable colours, red, green, blue, and violet, and if the prism is one otcrown-glass, the mean ray PMN which bisects the spectrum will be at the boundary of the blue and green spaces. If we were to take a prism of flint-glass with a much less refracting angle, and form a spectrum CD ot the same length as AB, and at the same distance from the prism, the line nm which marks the boundary of the blue and green spaces will no longer be the mean ray of the spectrum, but will be decidedly nearer the red extremity D. Ihe least refrangible half of the spectrum has therefore been more con¬ tracted, and the most refrangible half more ^ all g0me of'the substances, particularly the essential oils, is quite in the crown-glass spectrum. It we £ow P , empirical; but by a reference to the original experiments, sulphate of barytes or fluor spar, capable of forming a third . if,, . / i-*- spectrum EF of the same length as the other two, the boun¬ dary of the blue and green spaces will now be at /xv nearer the violet than the red extremity of the spectrum, and the least refrangible half of this spectrum will be more expand¬ ed, and the most refrangible half more contracted, than in the crown-glass spectrum. “ If a spectrum,” says Sir David Brewster, formed by flint-glass, had its coloured spaces exactly of the same di¬ mensions with those of an equal spectrum formed by crown- glass, any ob,ect such as a window-bar lying parallel to the common section of the refracting planes of the two prisms should appear perfectly colourless when seen through the combined prisms. But if the coloured spaces in the two spectra are not proportional, as shewn in fig. /b, but are irrational, then the window-bar cannot be wholly free from colour, for though the extreme red and violet rays of both the spectra are united, yet the intermediate colours are not rendered coincident. In the spectrum AB, formed by the crown-glass, the first green ray MN, which is here the mean ray, is Obviously more refracted than the first green ray in the spectrum CD formed by the flint-glass, and therefore the flint-glass will not be able to refract the green ray, so as to unite it with the red and violet. Hence the green ray will, as it were, be left behind, while the red and violet rays are rendered coincident. Thus, in fig. 76, if a prism ^ of flint glass is placed behind a crown-glass prismF, so as ex¬ actly'to correct its dispersion, the spectrum AB will be re¬ duced to a secondary spectrum ah, the upper half of which is qreen, which is left behind, and the lower half is of a cla- ret colour, formed by the union of the red and violet rays. If the bar of a window had been examined through the com¬ bined prisms V,p, the upper side of it would have been tinged with green, and the lower side of it with a claret-co¬ loured fringe. Bv comparing, in a similar manner, the spectrum Jih, formed by fluor spar, with the spectrum AB, formed by crown glass, it will be found, that the fluor spar having a greater action than the crown glass upon the green ray, will carry it beyond the place of the united red and violet, and will form a secondary spectrum ef, the lower half of which is qreen, and the upper half of a cW colour, arising from the union of the red and violet light. If the bar of a win¬ dow w ere viewed through the combined prisms oi crown- glass and rock crystal, it would be tinged with green on its i Treatise on New Philosophical Instruments, 1813, p. 316. 65 Oil of Cassia. Sulphur. Sulphuret of Carbon. Balsam of Tolu. Carbonate of lead. 50 Essential oil of bitter almonds. Oil of anise seeds. Oil of cummin. Oil of sassafras. Oil of amber. Acetate of lead melted. Opal-coloured glass. Orange-coloured glass. Bed-coloured glass. 15 Oil of sweet fennel seeds. Oil of cloves. Muriate of antimony. Oil of lavender. Canada balsam. 20 Oil of Turpentine. Oil of sage. Oil of pennyroyal. Oil of poppy. Oil of hyssop. 25 Oil of spearmint. Amber. Oil of lemon. Oil of caraway-seeds Oil of nutmegs. 30 Oil of thyme. Oil of peppermint. Oil of bergamot. Oil of marjoram. Oil of wormwood. Oil of dill seeds. Oil of chamomyle. Castor-oil. Gum copal. Rosin. 40 Diamond. Nitrate of potash. Oil of beech-nut. Oil of rue- Oil of Savine. 45 Nut-oil. 70 35 Balsam of capivi. Oil of fenugreek. Oil of rosemary. Oil of rhodium. Flint Glass. Zircon. Oil of olives. Oil of rape seed. Oil of spermaceti. 55 Oil of Juniper. Oil of ambergris. Calcareous spar. Rock-salt. Gum juniper. 60 Tartrate of potash and soda. Oil of almonds. Crown Glass. Gum-Arabic. Alcohol. Ether. Borax, glass of. Borax. Tourmaline. Leucite. Selenite. Beryl. Topaz blue. Fluor spar. Citric Acid. 75 Malic Acid. Ascetic acid. Nitrous acid. Muriatic acid. Prussic acid. 80 Nitric acid. Rock crystal. White of an egg. Ice. 85 Super-sulphuretted hydrogen* Phosphorous acid. Sulphurous acid. Phosphoric acid. 89 Sulphuric Acid. OPTICS Fig. 77 tics Finding it impossible to obtain any highly dispersing me- wdium which should refract the rays of the spectrum in the jr>s same manner as crown glass, Dr. Blair thought of employ- . ing this very imperfection in obtaining a perfect correction ,;s. of colour. As the green rays removed the outstanding ones, or were not united in the same focus with the red and violet, he considered that if an achromatic concave lens should refract the outstanding green more strongly than the united red and violet, while an achromatic convex lens should also refract the outstanding green more strongly than the united red and violet, then two such achromatic lenses combined might unite the outstanding green with the red and violet, and thus effect a perfect union of all the colours. Hence he took the combination shewn in fig. 77, for a concave lens, composed of a concave lens ab, of crown glass, and a convex lens cd of a fluid which had its dispersive power of such a character as to unite the red and violet rays as stated in the figures, and leave the green outstanding and most re¬ fracted. He then made an achro¬ matic convex lens, fig. 78, com¬ posed of a convex lens hg of an essential oil, the same as that in cbd, which disperses the rays in a lesser degree, and of a concave lens fehg of an essential oil w hich disperses the rays in a much greater degree. This compound lens has its convexity such as to unite at a convenient distance, rays which diverge from the vio¬ let focus of the compound con¬ cave lens shewn in fig. 77, and therefore its focal length must be much shorter than the other, like the flint lens in a common achromatic. But though the focal lengths of the two com¬ pound lenses are thus different, \et, the distance or deviation of the outstanding green, from the united red and violet, is equal in both. When these two compound lenses are placed in contact, as shewn in fig. 79, it is manifest that the equal and opposite de¬ viations of the green ray will balance each other, and that this ray will therefore be united with the red and violet, and thus form a pencil exempt from secondary colours. The plates of glass shewn by dotted lines at ef, cd, lough necessary when the two compound Jenses are separate, as 11 are course re¬ moved, since the two fluids which they separate, as fig. 78, are the T36- Hence the compound eject-glass, consists of a con¬ cave lens of crown glass ab, of a exm8lUSe/ufafluid’andacon- dosJ ^ °f an0ther fluid’ en- in t^'0 glasses like watch- SS;- Dr* ®Uir found it best 11 practice to make all the glasses 413 Fig. 80. Fig. 79. concave meniscuses in place of having all the concavity Chromatics in one lens ab. \ - • 1 continuing his experiments, Dr. Blair happened to try the muriatic acid mixed with a metallic solution ; he found it best to make his compound convex lens, as shewn in fig. / 8, of crow n glass, and that fluid which enabled him to cor¬ rect the colour of the compound concave in fig. 77, and like¬ wise to correct the aberration of figure by a concave which lengthens only by one-third the focal distance of the convex. v\ hen he was trying a compound concave formed only of crown glass and muriatic acid, he observed that this fluid produced an in¬ verted secondary spectrum, and gave a primary spectrum, in which the green rays were among the most refrangible, and hence he was con¬ ducted to the idea of forming a compound lens consisting merely of a single concave lens of j muriatic acid placed between a plano-convex and a meniscus of crown glass. In this lens, which he actually constructed and used, he observes that the rays of different colours were bent from their rectilineal course with the same equality and regularity as in reflexion^ In such telescopes, Dr. Blair found that when the focal length of the object-glass was nine inches, the aperture might be increased as far as three inches; and in order to distinguish such instruments where the aberration is re¬ moved from achromatic ones in which it is only partially re¬ moved, he proposes the use of the term aplanatic? Sect. IV.—On the tertiary spectrum, and the method of j correcting the aberration of colour by prisms and lenses oj the same hind of glass. The existence of the tertiary spectrum w^as discovered Tertiary experimentally by Sir David Brewster, who deduced it also spectrum, from the constant ratio of the sines. It is produced when the dispersion of a prism of any substance is corrected by an¬ other prism of the same substance with a different refract¬ ing angle. An irrationality takes place in the coloured spaces, which prevents the correction of colour from being complete. The residuary spectrum was therefore called the tertiary spectrum merely to distinguish it from the se- condary one, which is produced by the specific quality in the refracting media, which act in opposition to each other. In examining the phenomena of this new spectrum, Sir David Brewster was led to a very paradoxical method of exhibiting it. Having form- Fig. 81. ed a prism of gt— oil of cassia, — with a large ^ _ refracting angle, and viewing through it the broad^Thod- zontal bar of a window, so that the edges of the bar were ree of a.11 colours, he inclined the prism so as to make the bar exhibit at its edges the prismatic colours, as shewn in bg. 81, where the edges and eN had spectra baM, efN, the usual red and yellow rays, while the edges cM, oi\ had spectra edM, bcN composed of the usual blue and Violet rays. These spectra increased from b and e towards JV1 and N, and at the nodes b, e, where the spectra would lave v anished, had each face of the prism received the rays symmetrically, the tertiary spectrum was clearly displayed in the form of a green and purple fringe. In order to produce refraction without colour by two prisms of the same kind of glass, they may be combined, as T o vvdlere a ray °f light R incident on the first prism AL is refracted to the axis MF at F. The prism AB has a smaller refracting angle than CD, and is placed in an oblique position, so that its dispersion is increased in a greater ratio 1 Edin, Trans, vol. iii, p. 53. 2 Id. Id. 414 OPTICS. Chromatics than its refraction, for the purpose of correcting the dis- * persion of CD with- out balancing its re- Fig- »2. fraction; the prism CD having a posi tion in which its re¬ fraction and disper¬ sion are a minimum. sionareamumuuin. » " , The ray R will therefore converge colourless, and meet the £ixis F. If the prisms have the same refracting angle, and are placed in the position shewn in fig. 83, the ray R will emerge colourless in Fig. 83. correcting the colour with a second prism. For solar obser- Pns< vations, the two prisms will constitute a telescope, a dark- Sper[ < ening glass being used as in other instruments. It will be » thus equally useful for viewing the lines in the spectrum, where homogeneous light is necessarily used; and by placing two, three, or four instruments in the same tube, we may obtain any magnifying power we desire. The writer of this article is at present occupied with the construction of one of these instruments with rock salt prisms. The length of the instrument which we have drawn is only two inches and three quarters. Sect. V. On the Optical Phenomena of the Spectrum. the direction r. This com¬ bination of prisms,as well as that in fig- 82, has the property of expanding all Although the discovery of the principle, and the actual objects viewed through them, in a vertical plane passing through their sections BACD, that is, of magnifying them in one plane. Hence, if we place another similar pair of prisms horizontally, this pair also will magnify objects m a horizontal plane, and by combining these two pair of prisms, we obtain an instrument which will expand or magnify ob¬ jects in all directions. C1. „ ., This instrument was first constructed by Sir David Brewster in 1812, under the name of a teinoscope, for alter¬ ing the proportions of objects in plans and drawings, by ex¬ panding them differently in rectangular directions d and there is reason to think that Dr. Blair was early acquainted with this method of magnifying objects by prisms. Mr. Archibald Blair a few years ago put into Sir David Brew¬ ster’s hands an instrument of this kind, composed of four prisms which had been executed by his father, but the date of its construction he had no means of discovering. There cannot, therefore, be the shadow of a doubt that both the principles and the invention of an instrument for magnify¬ ing objects by means of prisms, were known and published in Scotland long before the celebrated M. Amici of Modena brought forward a contrivance of the same kind. I hat M. Amici’s invention was an independent one will not be ques- t!0Asdwe conceive that a telescope of this kind may have many useful applications, we have given m the annexed figure a sketch of the instrument as actually fitted up for use. It consists of Fig. 84. xvitiiougii uic ui3v,v/tv.. j ^ i r > — mer-i construction of achromatic and telescopes had di-na di¬ rected the attention of many observers to the nature ofthespectri prismatic spectrum, yet, with the exception of its \arying length in different bodies, and the continuity of its coloured spaces, no attempt was made to question the general ac¬ count of its phenomena given by Sir Isaac Newton. Owing to his having used the diameter of the sun as the body from which his spectrum was formed, and to the diffi¬ culty of procuring in his day good prisms of glass, Sir Isaac never obtained any thing like pure homogeneous light, and was therefore unable to determine the exact boundaries of the coloured spaces. Had the spectrum been observed in the same manner on the planet Mercury and on Saturn, the spectrum produced by the same prism would have been very different. On Mercury the rays would have been less pure and homogeneous than that observed on our earth, and the mean refrangible rays of a different colour 5 u hile on Saturn the colour would have been more pure and homogeneous. 1. Discoveries of Dr. Wollaston. The first person, in so far as we know, who proposed top,^, form the spectrum by using a very narrow pencil of light ^ 1 in place of the sun, was Dr. Wollaston, to whom we owe last* many most valuable observations on the subject. “ I cannot,” says he, “ conclude these observations on dispersion, without remarking, that the colours into which a beam of white light is separable by refraction, appears to me Fig. 85. prisms, AC of two AB, the same kind of glass, and having a small refrac¬ ting angle. Their common line of junction at A is horizontal, and their planes of refraction vertical. Other two similar prisms DF, EF, are placed transversely, their common line of junction at E being vertical, and their planes of refraction horizontal. \n object M, therefore, seen through the prisms in the di¬ rection OM, by an eye placed at O, will be magnified three, four, or five times, or more according to the inclination and angles of the prisms. It is expanded or stretched out in a horizontal plane by the two first prisms ED, EF, and then expanded and stretched out in a vertical plane by the other two prisms, AB, CD. . . ., • If we use homogeneous light, we may construct the 1 - strument with only two prisms, as there is no necessity for to be neither seven, as they usually are seen in the rain^’ ^ reducible by any means (that I can find) to three, as^mF sons have conceived; butthatby employing a very m cil of light,2 four primary divisions of the Pri.smal, ye ha, mav be seen with a degree of distinctness, that I b h(; not been described nor observedbefore. If a beam ^ be admitted into a dark room by a crevice .2o ° broad, and received by the eye at the d^tance of ten^ twelve feet through a prism of flint glass, f f held near the eye, the beam is seen to be separated ^ four following colours only, red, yellfmsh.g/'re violet, in the proportions represented m. *e ff p trurn ^ « The line A that bounds the red side of the somewhat confused, which seems in part ovunc gj of power in the eye to converge red light. Edinburgh Thil Journal, vol. vi. p- 334, April 1822. * See p. 4C6- i j OPTICS. •ngj;X between red and green in a certain position of the nrism k j u . 415 |Sj. perfectly distinct; so also are D, an^ eX° tlo C’of d^fbeen ob^d^th™6 ^ violet But C, the limit of green and blue, is not so clear- tions of the oblimiitv nf^ proP°„rtloTnT’ to accidental varia- Spectrum. ly marked as the rest; and there are also, on each side of led L sup^ th^Bie W/! T* He!!Ce ^ YoUnZ this limit, other distinct dark lines,/and g, either of which, of the extremity of rh^'w lT ^ the accidental ^on in an imperfect experiment, might be mistaken for the yellow as a mixtnrpnf ^ ^ spaces’—to regard boundan- of these colours. X™ °f red and Vreen %ht> and to sup- “ The position of the prism in which the colours are most Seen without^TmkT* C°nsis1t.ed only of homogeneous clearly divided, is when the incident light makes about fays he “ of Dr ^wTllI ^ ’°f yelloHr* “Inconsequence,” equal angles with two of its sides. I then found that the Tf^he prisldc sn^ 8 Correctj™ the description spaces AB.BC,CD,DE, occupied bv them, were nearly as tions it bprump rf frUm comPajed ^th these observa- he numbers 16, 23, 36, 25.” Dr. Wollaston adds, that I advanced in the la? R L° the ^PP^hion that ,hen the inclination of the prism is altered so as to in LlZ? Ie^e ^specting the the ^ —“—. . ’ . ’ ’ ** unasion aaas, tnat when the inclination of the prism is altered so as to in¬ crease the dispersion of the colours, the proportions of them to each other are then also changed, so that the spaces 4.C and CE, instead of being as before 39 and 61, may be found altered as far as 42 and 58. The lines which Dr. Wollaston has described in the pre¬ ceding obsenations, are calledtheJixed lines in the spectrum, and may be considered, as we shall presently have reason proportions of the sympathetic fibres of the reti^??^ B??”BET>n t^EX’ and VIOI^T> for BED, yellow, and / hlS mfnner the yellow sPace was ^ck out of vations and Fraunhofer foimd, thatfhS Imes had a fixed position m the spectrum, and that they rton^1^ °f the spectrum’the distance between an? two affording a precise measure of the action of the pnsm on the rays in which these two lines were placed. ZiTnfTh8 ^ ^ ^ than the reSt of the ^Pectrum, and some of them appear entirely black. The largest lines ^^finS?6 ST ^ the apertUre CXCeeded « and the finest Imes also disappeared entirely when the aper- ture was 40" The aperture used by Fraunhofer was fL ?g :Land 15 Wide’ that ^ at a distance of 24 , — U1amltr ulan naa been done before • widp onH 9^5QPert]ire'L-WaT^ear^ 0ne_d^^etb °f30 in^ vlooking through a prism, at a narrow line oflWit he glass! ^ P,rism Mas made ^Int¬ roduces a more effectual separation of the colour’ th? kT Tl feting angle of nearly 60°, and was placed an be obtained bv the com^ rmethcxl of thro??^? of 0re?e °bJe?-^s of the telescope, so that the Lgles I an’s image on a w all. The spectmm forced in g J ^^idence and emergence were eqi£d, or the angle of re- 0,Ve;f0Ur,^> and tl’e bIue than one-third of teleaco^. ,UmS “ ^ the ^ anron^Frr,r, tUmned « « <» ~ greatest intensity of hglit being in that part of the green place when th? ? 'eJine^ dlsaPPeared, and the same took nch is nearest to the red. A narrow lino of „ f aCe h tbe ^n?le °f incidence was diminished. But the "T? Tisib,e at tbe limit of the red and green? buHts ine' reapPeared at a greater incidence bv shortening, and eadth scarcely exceeds that of the ape^fbTwhich tie by len^heni^ the telescope. " ^t&d,hDr,' "'olIast»n "tributes it to ,h: rep^n^iH^of Kt““ccTSxr " ^“intthTrpeSrn Jt^thT^ ^ " S°nt?d m its "eighbourhood! in which the continuity aT!)?^’ bjen ob,1ged to leave them out of his map. ;;rtK|mm*Drw„llLto!,etaPfoi,dthe^ewLf .^m th'^’ did fei! ^ acting substance mny have been enrploved for its teUater^ “dfat^U o^Xtl^ G° .vv. u, orc dGiiun ui me aimospnere, as we shall sooi show, his estimate of the number and nature of the colour¬ ed spaces, does not in the least affect or invalidate the ob¬ servations of preceding authors. The sun’s light used by Newton had lost many of its rays, by the absorptive actioA of the atmosphere, before it fell upon Dr. Wollaston’s prism. Inconsequence of taking it for granted that Dr. Wollaston l38 the same kind of light that Sir lasac New- on analysed, both he and Dr Young were misled in the nterpretation of the phenomena. Speaking of the obser- ations of Newton and his followers, Dr. Young says, •the observations were however imperfect, and the ana- rPfh?/h°Uy 1?a?inary- Dr Wollaston has determin- inrh mn1TIS10n °f the coloured image or spectrum, in a auch more accurate manner than had been done before : 416 OPT Prismatic and H. At A there is a distinct and well defined line, the Spectrum, boundary of the red space being a little beyond it. “At a there "is a mass of lines, forming together a band dark¬ er than the adjacent parts. The line at B is very dis¬ tinct, and of a considerable thickness. From B to C may be reckoned nine very delicate and well defined lines. The line at C is broad, and black like D. Between C and D are found nearly 30 very fine lines, which, however, with the exception of two, cannot be perceived but with a high mag- nifving power, and with prisms of great dispersion; they are besides well defined. The same is the case with the lines between B and C. The line D consists of two strong lines separated by a bright one. Between D and E we re¬ cognise about 84 lines of different sizes. That at E con¬ sists of several lines, of which the middle one is the strong¬ est. From E to 6 there are nearly 24 lines. At b there are three very strong ones, two of which are separated by a fine and clear line. They are among the strongest in the spectrum. The space bF contains nearly 52 lines, of which F is very strong. Between F and G there are about 185 lines of different sizes. At G many lines are accumulated, several of which are remarkable for their size. From G to H there are nearly 190 different lines. The two bands at H are of a very singular nature. They are both nearly equal, and are formed of several lines, in the middle of which there is one very7 strong and deep. From FI to I they likewise oc¬ cur in great numbers, Hence it follows that, in the space BH, there are 574 lines. The relative distances of the strongest lines were measured with the theodolite, and pla¬ ced in the figure from observation. The faintest lines I c s. only were inserted from estimation by the eye.” The lines Prir !.jc f in the solar spectrum which we have thus minutely descri-Spt |j bed after Fraunhofer, are not seen in the spectra formed^ by any white flame, or white light, whether it is generated , by ordinary combustion, or produced by the application of intense heat to a solid body. In the flame of a lamp, how¬ ever, Fraunhofer discovered that there is a double yellow line occupying exactly the same place as the double line D, the two black lines of D corresponding with the two lumi¬ nous ones of the double yellow line in lamp light. Hence it follows that ordinary white light, produced in the manner already mentioned, has 590 rays of a definite refrangibility which do not exist in solar light, and hence the black lines have been called defective rays or lines. “ Various experiments,” says Fraunhofer, “ and changes to which I have submitted these lines, convince me that they have their origin in the nature of the light of the sun, and that they cannot be attributed to illusive observations, or any other secondary cause.” By means of the apparatus shewn in fig.l, Plate CCCLXXXI, Fraunhofer determined in a very accurate manner the dis¬ tances between the principal fixed lines1 B, C, D, E, F, G, H, taking those which divided the spectrum most conve¬ niently. The line b for example, would have been better than E for its magnitude and distinctness, but it does not divide the space DF so equally. He repeated these obser¬ vations with different kinds of flint and crown glass of seve- ral fluids, and obtained the results given in the following table. Table, shewing the Distances of the Principal Fixed Lines in the Spectrum, in various Media, according to Fraunhofer. Different combinations of Refracting Media. jr-n £ =3 Flint glass, No. 13,.. Crown glass, No. 9) • Water, Water, Sol. of potash in water. Oil of turpentine, Flint glass, No. 3,.... Flint glass, No. 30,... Crown glass, No. 13,. Crown glass, Flint glass, No. 23,.. Flint glass, No. 23,.. 65| 631 65£ 651 521 3-723 2- 535 1-000 1-000 1- 416 0-885 3- 512 3-695 2- 535 2- 756 3- 724 3-724 Angle of the prism. 26 24 39 20 58 5 58 5 58 5 58 5 27 41 21 42 43 27 42 56 60 15 45 23 Angle of deviation. 17 27 22 38 22 36 22 36 127 45 30 35 40 40 40 40133 35 17 20 35 3 26 26 39 49 55 32 45 8 19 40 40 56 12 16-6 9 35-4 13 13-2 12-2 BC 16 44-5 24 12-4 2 56 8 35-6 5 32-8 12-6 6 26 CD DE EF FG 9 4-2 7 23-5 8 10 8 10-6 10 26 13 52 8 22 6 56-8 8 14-4 9 37-6 31 14-8 17 47-8 11 50 i 9 14 j 9 38 i 9 57-5 jl2 54 118 46-1 ilO 46 | 9 12-6 10 28-2 12 29-8 41 21-4 23 31-8 10 33-9 8 14 8 38 8 30-5 11 12 16 14 9 50 8 19 10 1-6 14-8 23-8 20 23-9 15 10 15 16 15 15-6 20 36 31 8 19 10 16 15-6 17 14-8 20 53-6 14 45-2 41 33-4 GH 18 18 13 18 12 41*9 12 46-2 17 24 27 28 17 10 14 32-2 14 48-4 18 1?4 8 3-6 37 28-8 These valuable data were deduced from measures taken of deviation g, arising from the distance 4-25 inches of the times for each substance; but as the theodolite was centre of the prism from the axis ^ f feet, only twenty-four feet distant from the window of his dark con-ection would have been veryjreat > whiCh room, it became necessary to apply a correction to the angle and therefore Fraunhofer, to avoid the uncertain y i The reader will be desirous of knowing, which of these principal lines were discovered by Dr" ^ . ^^Q^ion^vol. i- P- to do this is given by Sir David Brewster in his Report on Optics ’ P^bli wd,,in the/j°Ceedingw ^L^rbl^disTovered ^ 320, note 2. In the spectrum formed by a narrow beam of day-light, Dr. 4V ollaston had previous y o extreaie boun- fines which he has designated by the letters A, B, /, C, g, D, E, the first line A being, according to his observations, the extr ^ ^ dary'of the red rays, and the last line E the extreme boundary of the violet rays. Ihe correspondence o t ese holer. I have with some difficulty ascertained to be as follows— ’ A, B, /, C, p, D, E Wollaston. B, D, b, F, G, H. Fraunhofer. in, the line C of There is no single line in Fraunhofer’s drawing in the spectrum, (nor is there any in the real sp^trum) coincident witM ^ c Wollaston; and indeed he himself describes it as not being “ so clearly marked as the rest.” I have found, nslb]e m corresponds to a number of lines half way between 6 and F, which, owing to the ^yion o^ P Wollaston’s the light of the sky near the horizon. In order to have seen the lines B and H of Fraunhofer, especiauy tne , “ beam of day-Ught” must have come from a part of the sky very near the sun’s disc. matic arises from a great correction, determined the angle /x for :trura. the yellow ray of the light of a lamp which has the same V^refrangibility as D. When the lamp was placed at the dis¬ tance of 692 feet, the correction of /x for crown glass and water was only 40". Hence for the smaller arcs, which were really measured, the corrections were very small, beintr onlv 2"-o for BC, 6"-5 for CD, and S''for DE. All the angular- distances, therefore, in the preceding table have had° this correction applied to them. M. Fraunhofer then proceeded to determine the index of refraction m for the different fixed lines, and calling o- the angle of incidence, p the angle of emergence, the anfde of the prism, and m the index of refraction he obtained, ° m= /{(gin, p -f cos. sin, a-)2 -f (sin. ^ sin. having no resemblance to any of the lines in sPec^rurn- Castor gives a spectrum resembling not ° filriuf- The streak in the green was so intense, that otivitlistanding the weakness of the light, yet he ascer- 419 tamed by measurement that it occupied the same place as Prismatic le green streak in Sirius. He distinguished also the two Spectrum, streaks in the blue, but he could not ascertain their place. In the spectrum of Pollux he found many weak and fixed fines, which resembled those of Venus. The line D he saw distinctly, and occupying the same place as in the pure light. In the spectrum of Capella, he saw the lines D and b, as m solar light. The spectrum of BetaUgeus contains numerous fixed lines, which in a favourable atmosphere are sharply defined. There were lines like the solar ones D and b. In the spectrum from Procyon, some lines were perceived with difficulty, but they were not sufficiently dis¬ tinct to be measured. In the orange space, however he saw a line at D. Sect. \ I—On the Physical Properties of the Spectrum. The physical properties of the spectrum, which have Physical been the subject of experimental investigation, are its heat- properties tng power, and the chemical and apparently maqnetical in- of the fluence of its rays. spectrum. Heating power of the spectrum. That the heat of the Heating coloured rays should be most intense where their light was power, strongest, was long the general belief of philosophers ; and Landriani Rochon,* and SenncbiGr, found by direct experi- ment that the^ highest temperature existed” in the yellow space. Sir W . Herschel, however, found that the heating Sir T power increased from the violet to the red space, and that Herschel. the thermometer continued to rise when placed beyond the visible red extremity of the spectrum. He therefore drew the conclusion that there were invisible rays in the light of the sun which had the power of producing heat, and which had a less degree of refrangibility than red light. Sir W. Herschel attempted, in vain, to determine the index of re¬ fraction of the extreme invisible ray which possesses the power of heating ; but he ascertained that at a point one- and-a-half inches distant from the extreme red ray, the in¬ visible rays exerted a considerable heating power, even though the thermometer was placed at the distance of fifty two inches from the prism. In lt>01, Sir Henry Englefield repeated these experi-Sir Hem-v ments ; but he does not acquaint us with the kind of glass Englefield. of which his prism was made. He obtained the followin°- results, which confirm those of Sir W illiam Herschel. Colours cf the Temperature, Spectrum. lahr. Blue 56 Green Yellow 62 Red 72 Beyond Red 79 From our author’s own account of the method of makin°- these experiments, we place no confidence in the principal result respecting the invisible rays. “ As I had nothing to do with light,” says he, “ it was not necessary to darken the room ; and as I wished to accumulate as large a por¬ tion ot solar heat as possible, 1 placed the prism in an open window. As the whole interest of these experiments was concentrated in the determination of invisible heating rays, Sir Henry had a great deal to do with light, as the whole question turned upon an exact appreciation of the termina¬ tion of the spectrum. In a dark room the spectrum is much longer than in open day, and we have reason to be¬ lieve from experiment, that Sir Henry Englefield’s spec¬ trum did not visibly extend beyond the line C of Fraun- in the yellow orange rays ^See ^'opsi/cu/c? ^178"33 t*iermometer containing spirits of wine, and he found the maximum temperature power of givin^ risK)!, °f Ifyht and Heat, Edin. 1794, p. 38- remarks that, “ the compound light which is white, has a greater C1fing heat is great in nronnrrinn ‘Un.*0 Us P0"’6!’ of exciting heat; whereas in the red species, it is the opposite, for here the power of ex- S'cau in proportion to its power of giving vision.” 420 Prismatic Spectrum Recent ex periments. OPTICS, , , 7QO wo<; nrhr- bv Sir David Brewster, accounts in a very satisfactory man. Prism t hofer, so that Ins maximum tempe 9 ner for all the phenomena. He conceives that transparent spect:. ally found in the red rays. . c:r bodies have the same power of absorbing or stopping cer-N^V •> With the view of throwing light upon subject, S^r bodies na ^ ther4metric spectru^ as Dr. Robison David Brewster has endeavoured to ascer ai called it, in the same manner as coloured bodies have the extent of the spectrum by various metno s o ^ S er 0f st0pping certain rays of the luminous spectrum, the light, and absorbing by coloured met ia, * These last bodies necessarily became coloured by stopping parts of the spectrum By these means ^ ^ ^ced he ^ but as the eye is not sensible to heat in thesam! visible spectrum, and the hxed hues in it as manner as to light, the absorptive powerof transparent bodies line A as the distance of thegroupof hnesais ro^ u,c^A A Por j)eat can 011]y be proved by the thermometer. He con¬ siders water as the type of bodies which are uniformly trans¬ parent for heat, as its maximum of heat coincides with its maximum of light. A prism of crown glass, on the contrary, is less uniformly transparent for heat; and its maximum of heat is in the red space, because it has absorbed much of the heat in the yellow space. In like manner flint glass has ab¬ sorbed more of the heating rays in the red than the crown glass, and hence its maximum is about the extremity of the seen it indistinctly to a distance as great as AB beyond A Hence there cannot be the least doubt that the experiments beyond the visible red were actually made when the ther¬ mometer was placed in the red space. He does not, how¬ ever, conclude from this that there are no invisible rays be¬ yond the red ; but merely that the experiments of Her- schel and Englefield were made in a part of the spectrum where rays of light actually exist. On the contrary, our ^ author concludes that there are rays of hea.t o a egrees & ’ , n(j tpe ent[ 0f the spectrum as commonly seen of refrangibility, and consequently consisring o w aves c0i0ured media the maximum ordinate of their luminous all degrees of breadth and velocity. When producext ny a siigist vibratory movement, the waves of heat are broad and slow; as the temperature rises they become narrower and quicker in their motion. When their velocity is such as to equal that of the extreme red ray, they become faintly visible, and the other colours are successively produced by quicker motion, till white light is radiated. This seems to be the process by which incombustible bodies are gradually . T ___ fVlO IvrioTltPSt ! aild if 111 CUIUUICU llicuid Lilt V,* ^—— — — spectrum, shifts along the whole prismatic spectrum; some¬ times there are two or more maxima of light, and some¬ times narrow and wide spaces entirely defective in light. Hence Sir David Brewster4 supposes that there are defec¬ tive spaces, and lines in the thermometric spectrum. This view of the subject suggests a new mode of in¬ vestigating the phenomena of the heating rays. If we be the process by which incombustible bodies ai e g take a prism of coloured glass to investigate the dark raised from the deepest red to the bnghtes^w nne , ^ spaces and lines produced by absorbing media, we shall we examine, by means of a prism, the c anges ^ ^ 1 o, jiaye a very imperfect approximation to the true re¬ place in the gradually increasing light, we shall m > . t] t is we never could have absolutely dark spaces the different rays of the spectrum are successively added a§ long as all the rays that went to the to the red light.1 He conceives, therefore, that the su format4n of the spectrum, passed through all the different emits rays of all degrees of refrangibility, extending p - thicknesses 0rtjie prism. The thinnest parts of the prism bably far beyond the visible extremity of the violet, an aP the t0 SSj anq consequently illuminate the though not capable of being rendered sensible, yet exei- g truni; So that the actions of various thicknesses cising powerful influences in the economy of nature. media are confounded, and the real absorptive action Berard. M? Berard, and Sir Humphry Davy obtemed results “ “e . thickness concealed. Jn like manner in the analogous to those of Sir W. Herschel; h • erar n spectrurn 0f heat, the heating rays which pass through the the maximum heat at the very extremity of the reel ray, ^ g ^ the prism> wiU "throw heat into every part of and Sir H. Davy beyond it. _ , . , . the spectrum ; and hence the experiments should be made The most valuable series of experiments on this subject, ^ ^ fmstums 0f prisms, where the difference of thickness ivere made by Professor Wunsch, and Dr. See beck ot tier- p an(j the want of area made up by an increased Wunsch. lin. So early as 1807, Professor WunclB had made^ex- - - • ’ lin. So early as 1807, Rrolessor vvunen- nau inauc c^- p • ptofthe prism. The best way, however, of making periments with prisms of various substances, and obtained tpebexperimentS) would be to use a compound prism con- the following results: stmeted as in the an- Fig. 86. Place of maximum heat. following Substances of which the Prisms were made. Alcohol Yellow space. Oil of turpentine Yellow space. Water Yellow space. Green glass Red. Yellow glass Extreme red. Seeheck- These results were confirmed by Dr. Seebeck, who ob¬ tained the following new results : Substances of Place of which the prisms maximum are made. * heat. Sulphuric acid concentrated Orange. Solution of sal-ammoniac Orange. Solution of corrosive sublimate.-Orange. Crown glass Middle of red. Plate glass. Middle of the red. Flint glass, English Beyond the red k n >? >c structed as in the an¬ nexed figure, where AB, MN, is the sec¬ tion of a compound prism consisting of four frusta of prisms, AB, ab, a'b', &c. the frustum AB, being part of a prism ABC. the frustum ab, part of a prism abc, &c. or this compound prism, grouncTmit of tbtf nfass, which would be dfflcul. ^ practicable, might be composed of asmgle pnsm ABt,rt parallel plates of the same glass “^ed by cement compose the notched parallelogram A - • - formed ing results might also be obtained by using SP , ike by interferences in the manner we shall afterwards d«™ ' In all experiments with fluid P™”s>^ Flint glass, English ceyoim me mu. In all experiments with rnuci prisms, ^ irh the Flint glass, Bohemian Beyond but nearer the red {)]exed with the effects of the plates of glass bY ™isturb The explanation which was given of these results, (which P™ms had been ascribed to different prisms ot refracting caloric,3) and indeed nullify the results e.j & , — — " . . oo” 2 Afnnnzine dcT GcScUsch* 1 See Professor Powell', valuable flepor. on BM* Heat, British vob ^ ^9^ s Turner’s Chemistry, 3d Edit. p. 84. smatic by coloured fluids, were we to confine them in hollow prisms :trum. made of coloured glass. The only method of remedying Y^'this defect in Fig. 87. OPTICS. 421 exper would the ment, be to form the spectrum by a prismatic ves¬ sel of the fluid, whose upper surface AC, is formed by gravity, and its lower surface BC, by a plate of highly po¬ lished silver, which reflects back the spectra throuo-h the first surface. According to Berard’s experiments, the calorific rays of the spectrum are capable of being doubly refracted and polarised like those of light, and he obtained the same re¬ sult with culinary heatthe heat of a dark body below redness, being substituted for solar heat.1 On the chemical effects of the spectrum. It was lono- ao-0 observed by Scheele that muriate of silver was rendered much blacker in the violet rays of the spectrum, than in any other part of it.2 In the year 1801, Professor Ritter of Jena exposed muriate of silver in various parts of the spectrum, and also beyond its apparent limits. He found that the action was least of all in the red rays, greater in S?°f t jr“Jhf bl“e greatest C| aical eft is of thuec- tru Gun turn of all beyond the visible violet rays. Dr. Wollaston°anTM. Beckman obtained a similar result,apparently without know¬ ing what had been done by Ritter. In repeating the experi¬ ments or Scheele with white muriate of silver, “he found that the blackness extended not only through the space occupied by the violet, but to an equal degree, and to about an equal distance, beyond the visible spectrum ; and that by narrowing the pencil of light the discoloration may he made to fall almost entirely beyond the violet. It ivould appear, that this and other effects usually attributed to fight, are not in fact owing to any of the rays usually perceived, but to invisible rays that accompany them ; and that if we include two kinds that are invisible, we may distinguish upon the whole six species of rays into which a sunbeam is divided by refraction.”3 1 he phrase almost entirely beyond the violet, used by r. Wollaston, cannot be considered as indicating the ex¬ istence of invisible rays, even if w e did not know from the experiments of Fraunhofer and others, that the visible vio- R tt?raCe fw uds gre*tly beyond the Place where both Bitter and \\ ollaston found the muriate of silver to be blackened. The existence of invisible rays, therefore owever probable, cannot be regarded as a scientific fact. ’ ’gum lLhemiCalaCtr°f theleast refrangible rays upon Sr™1*,™8! dlsc°yered by Dr. Wollaston. Having Sd th^i ltha/0luti°n0f this gum in aIcohol> he ed vinlf iat lafquired a 9reen colour from the concentrat¬ ed bv tT w6 ChangG °f C°l0ur Was effect- qreel^A ' but m ,the red rays the tinged card lost its gedcardd/eCTre(! 0riginal C°loUr- When the tin- could tl Z f aced m carbonic acid gas. the violet rays fore it ,i-qq la e1?1t green ; but when made green as be- bv the red rSpeedlAy TSt0red t0 its original yellow colour a h atedll yS* As Dr- Wollaston foond that the back of _^^ilver^poon restored the green colour as well as experiments! ^ Cann0t attaCh any definite meaning to these Prismatic MM. Gay Lussac and Thenard discovered a very energe-^C^ t^ chemical action of the solar rays. On exposing tf a pencil of so ar light, a mixture of hydrogen gas and calo-andchiorine nc, m equal volumes, a detonation of the^nixfd gases took P Me’Rpr hJdr0Ch °T'1and (omriatic acid) was formed. M. Berard repeated the experiments with muriate of sil- tvt u t ver and with the preceding mixture of gases which he pla- e ced in the different coloured spaces of the spectrum and he found that the chemical action was in every case ’more powerful towards the violet extremity and a little beyond \rAJ-Berard bkewise concentrated the least refrangible hah of the spectrum by means of a lens, and then the most refran^ble haJf. I he latter, though the most intense, pro- tu t n0/ueC1UP°\the muriate of silver’ but the former blackened it in less than ten minutes.'1 Mis. Somerville,5 found that the chemical rays passed as \Trc that it diminished in those that were not oxidated. Aioaa stone, for example, not oxidated, lost oz. o i s by three hours exposure to solar light, whilst anot _ dated and similarly exposed, gained as much and even m ^ strength. When the first was polished like a muro , strength suffered no change by a prolonged exposu I Id. Id. June 1832, p. 466. 2 Phil. Trans. 1826. p. ii. p. II Edinburgh Journal of Science, No. V. N-S. 1830, p. 76. 132. 3.Id- Id. p. 219—239. 4 Zeitscrift, tom. 1. P- 263, OPTICS. 423 iiatic sun. He likewise found that when a loadstone, whether Spot VI7 -ti- • .■ in »». oxidated or not, had its nortkpok exposed to the sun. It"*«*»!> th‘ **»«* quired strength, but lost strength when its south pole was le ^nalysis of white or compound light by the prism,, exposed. In more than sixty experiments, the increase of v!as made and perfected by Sir Isaac Newton ; but though NewLalT strength varied from 1 to 2, and to 3^ oz. whereas the cor- Jhe prism could not decompose them, he committed a mis- sis of the responding diminution was from 3;} to 5, and to 5| oz. In a,^e in concluding that the colours of the spectrum were sPectrum* these experiments our author confesses that he often en- ®.imP ev and homogeneous; “ that to the same degree of re¬ countered anomalies of which he could not detect the cause. , ^bihty ever belonged the same colour, and to the same In repeating the experiments of Professor Christie, M. S?lour ever belonged the same degree of refrangibility ” Zantedeschi obtained analogous results. Having placed a ^ow’ ^ough it is quite true that the green and orange co- magnetic needle a foot long in the shade, he drew its :ours of the spectrum cannot be decomposed by the prism place of rest through an arch of 90°, and it performed in ln*0 m.ore simPle ones, the one into blue and yellow, and the 30" four oscillations, the last of which had a semi-amplitude ot ler lnto yellow and red, yet they can be decomposed by of 70°. When exposed to the solar rays, it performed in 0[.,r means- This opinion respecting the compound nature the same time, and under the very same circumstances, four ot the colours of the spectrum, and the inability of the prism oscillations, the last of which had only a semi-amplitude of to aaalyse them, was first maintained by Sir David Brew- 60°. steiV who, with the view of placing it beyond a doubt, un- A great degree of doubt has been cast upon the conclu- dJrtook a series of experiments, in which he examined the siveness of all these researches, by a series of well-managed edects produced on the solar spectrum by viewing it through and experiments made recently by MM. Riess and Moser. The f great number of coloured media, and reflecting it from co- . following experiments were made after the manner of Mori- loured- % these experiments, he not only established the chini. The needles were made of soft steel; their mass accuracy of bis first opinion, that the green and orange co- was very small, and they presented a considerable surface 7°/urs of.the sPectrum were compound, the one consisting of to the action of the light. The prism was placed in the po- blue *™ yellow, and the other of red and yellow, but was led sition of minimum deviation, which corresponds to the to the more general resalt, that the whole spectrum was com- greatest intensity of the light of the spectrum, the needles P0^nd’ consisting of three equal and superposed spectra of were placed on a graduated circle, three or four feet from red> yeUowg and blue light.3 The following are the general the prism. The lens used had an aperture of 1-2 inches, resubs which he obtained:— and a focal length of 2-3 inches, and by it the focus of the 7 “ L White light consists of three simple colours, red, yel- violet rays was made to traverse one-half of the needle 200 ai?d hlue' by the mixture of which all other colours are times, excepting on the 10th July and the 12th August, tor™ed* when it was done only 100 times, and on the 23th July, “ 2‘ The S(dar spectrum, whether formed by prisms of when it was done 525 times. The following were the re- tiansparent bodies, or by gratings or grooves in metallic and suits which they obtained, shewing no change in the number tnmsparent surfaces, consists of three spectra o?equal length of oscillations. beginning and terminating at the same points, viz. a red spec- Dates. Duration of Oscillations. Names of the Before ex- After ex- Needles. periment. periment. April 3,., 27,., May 6,. June 14, e 15 -2 15 .7 Time of Ob¬ servation. -10:} ■ 9} 9} trum, a yellow spectrum, and a blue spectrum. ^ 3. All the colours in the solar spectrum are compound co- Jours, each of them consisting of red, yellow, and blue light in different proportions. “ 4. A certain quantity of white light, incapable of being decomposed by the prism, in consequence of all its compo¬ nent rays having the same refrangibility, exists at every Red. hs, reflected light was not used in Morichini’s experiments, w ich our author wished to verify, they employed the direct °11,0*the sun- In the experiments, however, with the ,ee es®’c> Ibey fixed the spectrum by means of a helio- ho e' uy refnark that the needle had been exposed 17} - to action of the sun without becoming magnetic, frnmcc ^0rickini succeeded in magnetising his needles in from fifteen to thirty minutes. exnpr--686 gende}aen repeated also in a similar manner the to do/'u^i18 ®aumRartner, but it would be unprofitable rocnlt-f1 , ?etn here, as they could not reproduce any of the of onl W \ k.e kad obtained. They tried also the action P ised light, but without any better success.1 Yellow. Fig. 90. Blue. * Edinburgh Transactions, vol. ix. p. 48. 3 Id- Id. vol. x. p. 123. 424 OPTICS. Prismatic point of the spectrum, and may, at some points be exhibit- Spectrum. ed in an insulated state. ' “ This remarkable structure of the spectrum will he better understood from figs. 88, 89, 90, which represent the three separate spectra, which are shewn m their combined state in fig. 91- Fig. 91. “In all these figures, the point M corresponds with the red, or least refrangible extremity of the spectrum, and N with the violet or most refrangible extremity; and the ordinates ax, bx, cx, of the different curves MRN, MYN, MEN, re¬ present the intensity of the red, yellow, and blue ray at any point x of the spectrum. “ If the distance Mx in all these spectra be equal, then, in the combination of them shewn in fig. 91, the ordinates ax, bx, cx, will indicate the nature and intensity of the colour at any point x of the red spectrum. Thus, let “ The ordinate for red light ax=30, yellow bx=\G, blue cx= 2, ax-\-bx-\-cx=A& rays, then the point x will be illuminated with 48 rays of light, viz., 30 of red, 16 of yellow, and 2 of blue light. “ Now, as there must be certain quantities of red and yel¬ low light which will form white, when combined with two blue rays, let us assume these, and suppose that white light, whose intensity is 10, will be formed by 3 red, 5 yellow, and 2 blue rays ; hence it follows that the point x is illumi- nated by “ Red rays, 2/ Yellow rays, 11 White light, 10 48 rays, or, what is the same thing, the light at will be orange, rendered brighter by a mixture of white light. The two blue rays, therefore, which enter into the composition of the licht at x, will not communicate any blue tinge to the 1 Kftects Similar to tuese may uc ; ; , f pre“ If "lie point x is taken nearer M, and if, at that point, the media, such as chemical s(,hi,1ons, or lhi' roiour« juices blue rays are more numerous in proportion to the yellow plants ; and by such means Sir David Brewster ms^ - that is, if they are as 3 to 5, then there will be than 2 to 5, , one blue ray more than what is necessary to make white light with the two yellow and the three red rays, and this blue ray will give a blue tinge to that part of the spectrum, or will modify the peculiar colour of pure red light. In like manner, the blue extremity of the spectrum may have its peculiar colour modified by an excess of red rays, so as to convert it into violet light.” It would occupy too much space to bring forward the body of evidence which supports these views, and we must there¬ fore refer our readers to the original memoir. We shall endeavour, however, in a few words, to prove the general principle of the compound character of the prismatic colours, by facts stated by persons who observed them, without any reference to this opinion. Sir Isaac Newton and Fraunho¬ fer and many persons besides, have, from long observation Prist#« of the solar spectrum, concluded that there is a homogeneous Vet unmixed yellow, and a homogeneous unmixed orange spaced in the spectrum. Newton makes the yellow space 40, and the orange 27, or 67 in all; while Fraunhofer makes the ?/ s° that the lines »i chenceT 0PP°S,te t0 th“Se “ the “'her, and their E™” b Tu a matter of simP,e observation. He Hhthe tr.spectn’when both " ore formed by and bands* at *e two series of lines nhpnn S’W .th a11 their coincidences and deviations. This “IheTnemre°f “i’6 ““-f ia 1%^! opli “! coffnizahlp l ?! coincidence, continues our author, “thus plained5 tT t eye’ re^uires to be more particularly ex- Sum cT Uf ST6 °f the krger lines in gaseous spec£l v^rin? T1 SOme °/the larger ones in the solar one coinciderlVuTT7 cases’faint and narrow lines in the there were so^rn ^ ^ Iines in the other5 and to which I roiilrl13 r »afeeous bnes> and even broad bands, ttap of the snTldlSCOVie-rin0 ctounterPart m Fraunhofer’s tile standard t t1*11? V 'l!cl at tbls stage of my inquiry was embayed 1 ^ 1 This d^creTancy at first trum where Fr ’ ®b®erved lfc in parts of the spec- seen with hil fiTesT1-6"^ eV6ry line which being able to est-i?]- 1lnsauinents>I abandoned all hopes of I was therefore SS1 Jhe Seneral Prmciple of their identity. - hhged either to renounce this nrinninle OPTICS. 425 rcon^defSiV^V^ confirmed by observation, or Prismatic unon tht Her^h0fe? " dell"eatl10ns as in fault, and to enter Spectrum, spectrmm. HerCulean task of makin§ a better map of the “ f~iter j bttIe practice in the observation of the solar spectrum, I discovered most of the lines which I had in vain sought for in Fraunhofer’s map, as the counterpart of thoS m the gaseous spectrum. I saw well marked groups of which he had only given one of the lines, and shaded binds1 and well defined lines, which his method of observation had not permitted him to discover. a spectrum^ I ^ a” the P?inciPal features in the New maps spectrum, I was able to examine the two classes of lines of the solar part passu. Ine action of the gas upon invisible lines in sp^trum. the spectrum rendered them visible by slightly enlarTw them, and this enlargement of a solar line indicated the^x? ^tence of a corresponding line in the gaseous spectrum. wFloW K Process’ and by methods of observation hich I believe have never before been used in optical re¬ searches, I have been able to execute three different maps of the spectrum : frst, a map of the lines in the solar spec- rum ; secondly, a map of the same spectrum, exhibiting at the same time the action of nitrous acid gas upon solar light, previous^ deprived of a number of its definite rays ; fnd thirdly, a map shewing the action of the gas upon a contin¬ uous and uninterrupted spectrum of artificial white light. tha? h??rnfST? 6 0 wese delineations four times greater t lan that of Fraunhofer, but some portions of them are draw n on a scale twelve times greater, which became neces¬ sary from the impossibility of representing in narrower limits the numerous hues and bands which I have discovered. on16 IT" °f Fraunh?fer’s spectrum is 151 inches ; mine, upon the same scale, is nearly 17 inches. * The length of the general spectrum, which I have delineated, is about five ee eight inches, and the length of a spectrum, correspond- ng to the scale on which I have delineated parts o/it, is seventeen feet. r 4 s “ Fraunhofer has laid down in his map 354 lines, but in the delineations which Ihave executed, the spectrum is divid- Rpn than 2d0° visible and easily recognised portions, separated fiom each other by lines more or less marked, ac¬ cording as we use the simple solar spectrum, or the solar and gaseous spectra combined, or the gaseous spectrum itself, in which any breadth can be given to the dark spaces.” I?,inU'ie examination of the spectrum, our author was led to the discovery of a system of lines and bands, par- teularly m the red and green spaces, which at other times wholly disappeared; but by a diligent comparison of these observations, he found that these lines and bands depended i le proximity of the sun to the horizon, and were pro- duced by the absorptive action of the earth's atmosphere. feir David Brewster is about to publish his map of the lines ° 5 le sPectrum; as produced by the light of the sun itself, and another map of the spectrum, as modified by the action of the earths atmosphere. He has, however, made the t.VtiT'fT era 0?s£fvations on the subject, in reference to the fixed lines of Fraunhofer “ The atmosphere,” he remarks, acts very powerfully round the line D, and in the space immediately on the least refrangible side of it. It developes a beautiful line in the middle of the double line JJ, and by enlarging a group of small lines on the red side ; r; ltTcreatics a band almost as dark as the triple line D itsell. It widens generally all the lines, but especially the darkest one, which I call m, between C and D. It deve- opes a and on the least refrangible side of m, and it acts especial y upon several lines, and developes a separate band J 1 cn 'n v oa A "R fmrl r darkness produced at the overlapping part of the two cones; Per cl Periodical on the most refrangible sale of C. I he lines a, ^ aim i remarkable as it was, seems to have excited Co rs. Colours, are greatly widened, and lines and bands are particidarly ^ttms^ ^ nearly a century and a half, till Dr.^'V —' -^developed between A and B, and generally throughout ai who was unacquainted with the experiment of Gri-Dry ^ the red space. . , . . r nrp maldi, obtained the same result in a different manner, andexpe; « Most of the lines thus widened by the atmosphere are ^ ^ foundation 0f the most interesting department faint lines previously existing in the spectrum, ana 1 nave , ical optics. The following is the experiment which no doubt that they would be seen in the spectrum ot the I } i „ ^—. /Zu, 7«- lime ball light condensed by a polyzonal lens, and acted upon by thirty miles of atmosphere. “ The absorptive action of the atmosphere shew, a less precise manner in the production of dark bands, whose limits ^are not distinctly defined. A very remaAaUe nar¬ row one, conespondingtoone produced by the narous aad gas, is situated on the most refrangible side of C. Ano to very broad one lies on the most re rarigi ’ p which were several muc to a sharp and broad band of yellow hght, dtsplayed by the ^ sunbeam a s|ip „f card about ,>5* “ '"ch general absorption of the corresponding part of the s„pernn and observed its shadow e.ther on the wall or oa posed blue spectrum. There is also an iniperfecdy defined ^ ^ ^ ^ different distances Beside the fringe atmospheric action, corresponding to a group ot lines wnerc ^ each side of the shadow, the shadow itself was Dr. Wollaston placed his line C. . while divided by similar parallel fringes of smaller dimensions, “ This general description of the atmospheric lines, while ber according to the distance at which the it indicates the remarkable fact, that the same absorptive ^enng^ ^ lefying the middle f the sh elements which exist in nitrous acid gas, exist also m tne . . _ ^ atmospheres of the sun and of the earth, leads us to anticipate very interesting results from the examination of the spectra of the planets. Fraunhofer had observed in the spectra of Venus and Mars some of the principal lines o t e so ar spectrum. This, indeed, is a necessary consequence of their gnaaow on uie uiaiglll being illuminated by the sun, for no change w 1C A own margin the extremity of the shadow of the card, all of that luminary can undergo is capable of replacing t e ^ }iad before been observed in the shadow rays which it has lost. But while we must find m the spec ^ immediately disappeared, although the light tr \ nf the nlanets and their satellites, all the defective lines _ n A a ^ was allowed to retain its course, in the sokr spectrum, we may confidently look for others arising from the double transit of the sun’s light through the atmospheres which surround them. OPTICS. ent. of physical optics. The tollowing is tne expeinncm mucn he gave as “ An Experimental Demonstration of the In¬ terference of Light:" “ I made a small hole in a window shutter, and covered it with a piece of thick paper, which I perforated with a fine needle. For greater convenience of observation I placed a small looking-glass without the win¬ dow shutter in such a position as to reflect the suns light in a direction nearly horizontal upon the opposite wall, and to cause the cone of diverging light to pass over a table on which were several little screens ot card paper. 1 brought a, nut leaving me ...... ...... dow always white. Now these fringes were the joint ef¬ fects of the portions of light passing on each side of the slip of card, and inflected or rather diffracted into the shadow. For a little screen being placed either before the card, or a few inches behind it, so as either to throw the edge of its shadow on the margin of the card or to receive on its . t 4-V.nr tno f*Am. l PART V. ON PERIODIC AI. COLOURS. Periodical colours. The phenomena of periodical, or recurrent colours, as Dr Young has very appropriately called them, are among the most fnteresti/g in optics, and him with great ability, under our article on Chromatics, hough not in that popular and descriptive manner, which is required in a work like this. We shall therefore endea¬ vour ^o give as perspicuous an account as we can of this in¬ teresting portion of physical optics. Sect. I On the Interference of Light. veigmg p j i„^ ihp rones intersected on the wail, immeuiauuy —o-. o inflected on the other side was allowed to retain its course, and although this light must have undergone any modifica¬ tion that the proximity of the other edge of the slip of card might have been capable of occasioning. . • • Norwas it for want of a sufficient intensity of light that one of the two portions was incapable of producing the fringes alone ; for when they were both uninterrupted the lines appeared, even if the intensity was reduced to one-tenth or one-twen- Although this experiment is a very decisive one, yet Fresnel made one still more instructive and general, and free from any of the objections that might have been urge against that of Dr. Young. He took two plane mirrors M, N, which were inclined at a very Fig. 92. vergingUght were thus formed, and by receiving them on M P^ee Jig ^ ^ focus ofa small lens. eachTther, two overlapping luminous circles were seen on the screen. A partially illuminated penumbra sui rounded each of these cones, and at the place where the rays from each aperture met, the screen was, generally speaking, more strongly illuminated by the union of the two lights ; but the boundaries of the penumbral portions which overlap are much darker than the corresponding portions of the penumbra which do not overlap, as if the one light had at this par put out the other. Upon intercepting the Jight from one from a luminous point rt smu uo T,1Qnpr PQ. he received the reflected rays on a piece of PaP^r the light was homogeneous, there was seen upo tl a succession of bright and dark band alternating ^ ^ bands are parallel to the line of inte^ectl0," h sideSOfa mirrors, and they are placed symmetrica y on ^ plane passing through the line ot intersect ^ Imdthroughapoint Abisectingthedistanceof thepm ^ the virtual points of divergence "fi th^fV^. produced by cils «G, 4G. . That ‘hese para lei bauds put out the other. Upon intercepting the light from one cus 0“;u‘'":iit(;rfeI.ence of‘thc tw„ beams.is at once prov». of the apertures, this dark part became ng -‘'b, "1 "Pf" b intercepting one of them, by covering 0 alscl restoring the light >t__agam becameji^er The resul,, ^ the whole series disappear, I. s fo®rf restoringlhe'light Tt^gain became^ darker. The tesidt, X,e‘S It therefore, was here unambiguous, and justitied t e . measuring: distances of the same bands fiom tl . vation of Grimaldi, “ that,an mummated surface may be byrne^”^ mirrorSj and when the paper Fft ^ vation of Grimaldi, “ tnat an mum , tersection of the mirrors, and wnen tne P-F- — di‘fferent rendered darker by the addition of hg • , , d;flperent distances from the mirrors, th n — r>v TTnnke made a similar experiment, and observed tneji^ —— ' Vfll. 11. D. DoU* Phil. Trans. 1804 ; or Elements of Nat. Phil. vol. u. P- 639. iodical points lie in hyperbolas whose foci are D, E, and common lours, centre A. A still more simple and elegant method of exhibiting the essor phenomena of interference, has been given by Professor d’s ex-Lloyd of Dublin, which any person may repeat with a sin- nent. gjg piece of plate optics. 427 Fig- 93. glass. Having pla¬ ced horizontally a piece of black glass QP, with his eye behind it at QM, he viewed by very ob¬ lique reflexion, when the angle of incidence was nearly 90°, a horizontal narrow aperture placed at A, a distance of three feet from the re flector QP. The proper degree of obliquity was easily found by bringing the reflected image of the aperture A to coincide very nearly with the direct image, in which case the direction of the reflected plane BPQ, bisected the distance A A'. When the ray AM, which fell directly upon the eye at M, interfered with the reflected rays CM which reached it by a longer path, they produced a system ot fringes or bands, which were distinctly visible when re¬ ceived upon an eye-piece placed at a short distance from tne reflector. This system of bands was exactly similar to one-half of the system seen in Fresnel’s experiment. With compound white light the first band was a ZrwAt one and coWm. This was followed by a very sharply de¬ fined black band; then came a coloured, and so on alter- nately seven alternations being easily counted, and the breadth of the bands being, as near as the eye could iudg-e the same throughout the series, and increasing with the obliquity of the reflected beam. “ The first dark band was of gntewe blackness, but the darkness of the succeeding: bands were less intense, as they were of higher orders, and after three or four orders they were completely obliterated by the closing in of the bright bands. At the same time the coloration of the bright bands increased with the order of the band, until after six or seven alternations, the colours t different orders became superimposed, and the bands Iv”! h«STuSt m,a “ Iight of nearly uniform inten- }• Ihese bands, continues Professor Lloyd, “are rXmrfeCTb iW,hen t!'e e>e-Piece is cl°se to the U breadth and coloration increased with the distance of the eye-piece, but remained of a finite and ery sensible magnitude, when the latter was brought into S Tith ^ edge’ a circu™tance whiclfdisfrn- gm hed ihem altogether from the diffracted fringes formed on the boundary of the shadow.” * Mt*Tritr°gjTTligllti8 USed’ the bands are a,l«- reWihf, a;K,ldlTk’,"" vaTng 111 ““gnitude with the erangibility ofthe light, as will be afterwards more fully If the hght the sun is used, the bands may be are nroA ^ SCreen PIaced atMa That they are produced by interference may be easily proved, either thenThX l6 direCt ray^M’ or the "ejected ones CM, ien the whole system of bands disappears. exhibLrUC mF Phen.°mena 1°f interference may be likewise n fnbited by transmitting the light emanating^ from a lu- us,)o;nt throi h the two faces ofa isg th inc]in_ 180°n The Pen-r - ray passing ray passina X tCeS’ ^ be sll^htl>’ inclined to the interfere withfr'm 0th•er, a SmaI1 angle’ and wil1 the usual frino-11 5jf.irpoint of concourse, and produce ed bv Sir T 86 xt 1 118 torm of the experiment is describ- duced by inEiS^011’ Wh° C°nsidered the fringes suing from tlipra|l now pro- Sect. II—On the Colours of Thin Plates. 1 Tran,aCtions of the Royal Irish Academy, vol. xvii. The colours of thin plates were first observed by Mr. Boyle, who remarks that all chemical essential oils, as also which immediately vanish when ebubles burst, so that a colourless liquor may be imme¬ diately made to exhibit a variety of colours, and lose them Mr1 S!?Tenit’ wlthout a?y change in its essential principles. - - Boyle also noticed these colours in soap bubbles and in „ , turpentine and he succeeded in blowing glass sufficiently B°yle- thm to exhibit them. In 1666 Lord Brereton observed similar colours produced by the thin plates which are form- Tn tZ :hG Sli1fi7oeTv°f ^laSf by the action of the weather. In the year 16/2 Dr. Hooke exhibited to the Royal So- ,, ciety a soap bubble with all its colours, in fulfilment of a 0°ke' promise which he had made at a previous meeting, “ to ex¬ hibit something which had neither refraction nor reflexion, and yet was diaphanous.” “ By means of a glass pipe he blew several small bubbles out of a mixture of soap and water, when it was observable that at first they appeared white and clear, but that after some time the film growing thinner, there appeared upon it all the colours of the rain¬ bow, first a pale yellow, then orange, red, purple, blue, gieen, with the same series of colours repeated.” Dr. Hooke made considerable progress in the investigation of this class of phenomena, and made experiments with thin plates of Muscovy glass, (Mica). He found that a faint )C low plate of this substance laid upon a blue one consti¬ tuted a very dark purple; and Sir Isaac Newton, in a pri¬ vate letter to Dr. Hooke, a copy of which is now before us,2 acknowledges that Hooke had observed previous to him, the dilatation of the coloured rings by the obliquation of the eye, and the apparition of a black spot at the contact 0 two convex lenses, and at the top of a water bubble.” . . Isffc -Newton, whose investigations we shall presently give in his own words, made great progress in discovering Newt the law of the phenomena, and it is a curious fact not to be overlooked by physical inquirers, that his theory of the pienomena, elaborated with the utmost care and gener¬ alising an extensi ve series of facts, is now exploded, while ie theoretical views of Dr. Hooke are almost universally admitted. J Mi. Melville of Edinburgh proposed to make a perman¬ ent soap bubble by freezing, but we believe the experiment rton. Dated Cambridge, February 5, 1675-6. 428 J J Tk lino Vmwpvpr times circular, consisting only of the first tint above black- Periodic Periodical has never yet succeeded. Dr. Josep i, , ness viz the white of the first order, sometimes two, three, Colour: Colours. been more fortunate in making what may be ca ^ colours according to their size, while at other times^^ manent soap bubble, for illustrating . f thp rino-s or frinees are extremely numerous and often irre- Dr Reade’s plates, which we saw him exhibit at t e moe 'og o & These colours are all produced by thin plates of air permanent physical Section of the British Associa ion a , 1 P ^ * vacuity in these fissile minerals, and the colours may *oaP bubble 1837. The following is his own account of the metho l o or otv>d by admitting water or fluids of different making it: Having put two ounces ^ ^ ^^Iwers.7 In someS specimens of Labrador fel- an eight-ounce phial, and having added ah a“gauce_ ^ Sir David Brewster has found crystallised cavities so large pea of Castile soap, I Placed *he 1 ‘speedily thin or with so little depth, as to give the most splendid pan of boiling water on the fire , the bo 1 ? coiours 0f thin plates, and to afford one of the finest subjects filled with a dense volume of vapour which expelled all the flours o^tn p ^ the microscope>1 The colours pro. air. I now corked it, and after cooling and t m (ln!vd bv heat on “highly polished steel, are all the colours sing the vapour, had perhaps as perfect a vacuum s , f id and they are often beautifully be formed, even by the best air-pump. I now held the of a thin ^plate ot^ ^ Jg Qf bottle laterally between my hands, and bY \ y exposed to the action of the weather, its cular and brisk motion formed a surface acluires a thin film, which atfirstcan only be rendered resting the bottle on an inchned plane, e . visible bv examining the faint light reflected from itwhemtis a short time, all the parallel bands or series of colours in visible by examim^^ samR refractive DOwer. the following order : 1. a white or silvery segment at top , 2. a snuff-coloured brown, inclined at bottom to a deep red; 3. blue; 4. yellow; 5. red; 6. blue; 7. green; 8. red; 9. green; 10. red; 11. green. (As in fig. A.) OPTICS. visioie uy cAa-unuwig in contact with a fluid of nearly the same refractive power. It forms most rapidly on the panes of glass in stable win¬ dows, but it is seen in the highest perfection in the speci¬ mens of decomposed glass found among the remains of Ro¬ man buildings. The- glass is to a certain depth entirely decomposed into thin films of extreme beauty, reflecting the most brilliant colours to the eye, and transmitting tints of the most exquisite brilliancy, and far surpassing any of the colours produced by art.2 Coloured films of the richest tints are also seen upon both the faces of cleavage of a sort of artificial mother of pearl, which has been called nacnte, and described by Mr. Horner in the Phil. Trans? These films are all thin plates of extreme tenuity. ^^ ^^ When we breathe upon glass at a proper temperature, “ After some time a black segment was seen to form at "£ne^ the top "h,te, and^ 'Jifferent LatileMds, we shall perceive many interesting Black. White. Green. Ked, wmie evaporating, . - * different volatile fluids, we shall perceive many interesting examples of the colour of thin plates.. One of the finest exhibitions of this kind with which we are acquainted, is that which is produced by the ammonio- sulphate of copper, and which was observed by Sir David Brewster. A solution of the ammomo-sulphate of copper in water, is spread upon a clear plate of glass or any other surface. In the course of an hour or two, a similarly co¬ loured film is formed upon its surface, exhibiting the co¬ lours of thin plates from the white of the first orderup- a me wmtc, miu. . v.. fio-. B.) After a few minutes the parallel bands increased in breadth, and running into one another, only three or four distinct bands were seen. Nothing can exceed the beauty of these colours, equal to those of the rainbow, or the plu- mare of the tropics : whilst writing this description, 1 have these bands in a bottle before me, feasting my eyes on their beauty. In a few minutes more this black segment or aque¬ ous film occupies, perhaps, half the circular film, and t.ie Wpr half becomes white tinged with orange, (see ng. c -J l0" if we m,w incline the boftle towards the experimenter’s '“"'I “‘““fthe sZL Is £Z, or *e simium of fold breast, the saponaceous atoms producing-these co ouis, aie was. f ^ q]m increases, and the colours seen to float In the region of the black or aqueous ; when ^ * beautiful green and pink colour, placed again on the inclined plane, they fall ^ the bottom ns t g ag we would wish t0 preserve, of the film. In some time more the entire film becomes When tne colours a , . _ -j v.. black, and all the colours disappear. “ Having now placed the bottle m a basin of b01b"g water, the evaporation was increased, and the black mm Tel became Ithed with saponaceous atoms, which bang shape of the mass variously condensed, produced all the colours of the clouds porated. r“ ™«?S whose surfare is covered when the sun is setting on a summer’s evening. On again of fluid, or ot the piece g placing the bottle on the inchned plane, the parallel bands with t. extraordinary examples of the colours were again formed by the attraction of cohesion, and t rather of the blackness that immediately cxfloursfafterwards gave place to the black film. I held the ofthl" and one wS almost requires the bottle laterally between my hands, and by means ot a cir- Pre<^^ ocular demonstration to credit, is the existence cular motion washed it, and thus clothed it with saponace- e'A, f a down 0fqUartz so exceedingly minute as ous atoms, which went through the same process on placing of bla ’ reflecting light. The very remarkable exhibited in of mossy water, and especially m the proximity of springs msm p purposes of his profession, bu —— rm: * ia n. 4 rise to higher oraers, oi a ueautnui r‘ r When the colours are such as we would wish to pre > an aperture must be made in the film, and by inclin!^ nlate the fluid must be allowed to run out slowly, g £ film on the surface ofthe glass. This film wdl become hard and permanent after the aqueous part of it has been a i rru~ nolmir tatp the shape ot tne i Edin. Trans, vol. xi. p. 322. yfBrroas. 1837, part 1L 3 Id. Id. 1836, p. ^.nd 1837, part n. OPTICS. ■nodical “ At first sight, the absolute blackness of the separated 429 lolours surfaces seemed to me as it did to every one, to be owing to a thin film of opaque and minutely divided matter that had insinuated itself into a fissure of the crystal; but this opinion was immediately overturned when I observed that both surfaces were equally and uniformly black, and that they were also perfectly transparent by transmitted light. “ Although I had now no doubt that the phenomenon was entirely of an optical nature, and that the blackness of the surfaces arose from their being composed of short and slen¬ der filaments of quartz, whose diameter was so exceedingly small that they were incapable of reflecting a single ray of the strongest light, yet it became desirable to establish this curious fact by experimental evidence. “ Having found that no detergent substances either re¬ moved or diminished the superficial blackness, I subjected the fragment to the action of cold and hot acids ; but the surface continued unaltered by these operations. I now immersed the fragment in oil of anise seed, which approaches to quartz in its refractive power, and upon examining the light reflected at the separating surfaces of the oil and the quartz, I found that the blackness disappeared, and that the fragment, whether seen by reflected or transmitted light, comported itself like any other piece of quartz of the same translucency. Upon removing the oil from the surfaces, it resumed its original blackness, and the filamentous or vel¬ vety nature of the surface was rendered evident to the eye by the slight change oi tint which was produced by press¬ ing the filaments to one side. “ As the preceding experiments are sufficient to prove that the size of the minute filaments was less than the thick¬ ness of a thin plate of quartz which lost the power of reflect¬ ing light, it became interesting to obtain an approximate measure of their magnitude. The thinnest substance ever observed, is the aqueous films of the soap bubble previous to its bursting. Newton, however, remarked that the films still reflected a faint image of the candle or of the sun. Hence its thickness must have corresponded nearly with what Newton calls the beginning of black, which appears in water at a thickness of the 750,000th part of an inch. The tint, however, of the quartz surface is of a much deeper character, and cannot exceed the venj black of Newton’s scale which corresponds in quartz to one-third of the one- millionth part of an inch, or to one-fourth of the thinnest part of the soap bubble. “ ^two surfaces of quartz had separated by filaments of a larger size, the colour of the filamentous surface might have been red, or blue, or yellow, or green ; but though such a structure would have been more dazzling to the eye, it yet would have been less wonderful than the one which has now been described.” The colours of thin plates may also be exhibited by press¬ ing together two glass prisms that have moderate refracting angles. Various coloured fringes or portions of coloured nngs will be seen by viewing the light reflected from the surfaces in contact, and in a much fainter degree, by exa¬ mining the transmitted light. The same phenomena may , seen ^[h unusual brilliancy, by taking a thick piece of g ass, and having made a scratch on one side of it with a me, apply a heated wire to the scratch, so as to produce a crack m the glass, which may be extended at pleasure by a second and third application of the hot wire. If we now examine the surface of this crack in different directions, we snail see it covered with coloured fringes, which may be a e to vary in breadth and position, by opening or closing theemek with the force of the hand. “ S rlnn. e.n, vve wish to examine and measure the coloured c^e’ fl*6 method used first by Hooke, and subse- of vpr ^ i ^ ^ewt°n> should be adopted. Two convex lenses ftn ao 7 ,onS ‘ocai length are placed the one above the other, o ouch at their vertex; or a plano-convex lens may have its plane side AB laid upon the convex side CD, fig. Periodical 7, or another lens. Sir Isaac Newton used for the upper- Colours, most lens a plano-convex one, whose focal length was four-' teen feet, and for the lowermost a double convex lens, whose focal length was fifty feet. These lenses must then be held toget rer, and pressed if necessary by three clamp screws, as shewn m fig. 95. The following Fig. 95. is the general account of the phe¬ nomenon given by Sir Isaac New¬ ton, though somewhat abridged:— “ Next to the pellucid central spot made by the contact of the glasses, succeeded blue, white, yel¬ low, and red. The blue was so little in quantity, that I could not distin¬ guish any violet in it, but the yellow and red were as copious as the white, though four or five times more than the blue. 1 he next order of colours round those in the second, was violet, blue, green, yellow, and red, all of them copious and vivid except the green. The third order was purple, blue, green, yellow, and red, the green being more vivid than in the last order. The fourth order was only green and red, the green being copious and lively, being bluish on one side, and yellowish on the other. The red was very imperfect: the succeeding rings or orders of colours were very faint; and after three or four orders, they ended in perfect white¬ ness. The form of the whole system of rings, when the lenses were most compressed, so as to produce the black spot in the centre, as shewn in fig. 96, where a, b, c, d, e ; f g, h, i, k ; Fig. 96. syxutsrqpanm Ikih rjfc A c fj A itslmnopjrstuxyz 1, m, n, o, p ; q, r ; s, t;v,x ; y, z, indicate the different co¬ lours beginning a* the centre, viz. 1. black, blue, white, yel¬ low, red ; 2. violet, blue, green, yellow, red; 3.purple, blue, green, yellow, red ; 4. green, red; b. greenish blue, red; 6. greenish blue, pale red ; 7. greenish blue, reddish white. In order to find the interval between the glasses, or the thickness of the plate of included air (or space) at which each colour was produced, Sir Isaac measured the diameter of the first six rings at their brightest part, and found their squares to be in the arithmetical progression of the odd numbers 1, 3, 5, 7, 9, &c., and the intervals between the glasses are obviously in the same progression, one of the surfaces being plane, and the other spherical. He then measured the diameter of the rings at their darkest points, and found their squares to be in the arithmetical progres¬ sion of the even numbers, 2, 4, 6, 8, 10, &c. In order to find the absolute thickness of the plate of air or space at which these different rings were produced, he measured the diameter of the fifth ring at its darkest point as produced by the different object-glasses. Diameter of Sphericity of the object-glass. Diameter of fifth dark ring. 182 inches 1774784 184 inches 88850 and dividing these diameters by 5, we obtain the diameter 430 OPTICS. Periodical . , ,..i—^but as these Colours. ot tlie ftrst rinS ne ouiamt u,ggygg ggggy > W^V-'W measurements were taken at an angle of’ incidence of 4°, the results must be diminished in the ratio of the seccant of Angle of Inci- j Angle of Refrac- dence on the Air.jtion into the Air. 4°, or 10029, so that we have gg^g and 890^3 of which, 1 8900 the mean nearly expresses in parts of an inch, the thick ness of the air at the darkest part of the first dark ring at a perpendicular incidence. By multiplying this interval by the series of odd and even numbers, 1, 3, 5, 7, &c., and 2, 4, 6, and 8, &c., we obtain the following measures of all the rings :—• First Ring, Second Ring, Third Ring, Fourth Ring, Thickness of the air at the brightest part. 1 17 8000 3 Thickness of the air at the darkest part. 2 1 Degr. Min. 00 00 06 26 12 45 18 49 24 30 29 37 33 58 35 47 37 19 38 33 39 27 40 00 40 11 178000 5 178000 7 17800 178000 4 17800 _6_ 17800 or 00 00 10 00 20 00 30 00 40 00 50 00 60 00 65 00 70 00 75 00 80 00 85 00 90 00 Diameter of the Ring. Thickness of the Air. 10 10* 101 10f 1* 14 15h 164 19i OO 6 29 35 10 10* I0f 13“ 15* 20"' 234 28* 37 52* 84* 122* Period: Colour. 1 89000 2 89000 3 89000 8 4 17800 89000 Fflferts of After measuring the diameters of the rings at different oblique in- angles of incidence, Sir Isaac obtained the following results : From the results given in the preceding table, Sir Isaac Newton has deduced the following rule :—“ That the thick¬ ness of the air is proportional to the secant of an angle, whose sine is a certain mean proportional between the sines of incidence and refraction ; and that mean proportional, so far as, by these measures, I can determine it, is the first of an 106 arithmetical mean proportionals between these sines counted from the higher sine, that is, from the sine of re¬ fraction when the refraction is made out of the glass into the plate of air, or from the sine of incidence when the refrac¬ tion is made out of the plate of air into the glass.” cidence. Sir Isaac next proceeds to describe the rings formed by the of he eight lengths of a cord which sound the notes in an light transmitted through the two glasses. In this system eighth, so/, la, fa, sol’la’fl^’^° \ ^ V * 2 ,91 of transmitted rings, the order of the colours ^ yellowish roots of the squares of the numbers 1, 9, 5, r/yrl • hlnrk violet blue white, 'iiellow, red; violet, blue, or 1 ; 0*924 ; 0*885 ; 0 825 , 0 1 63 , 0/11,0 , « , qreen, yellow, red. ’ The colours in these rings are very faint that is, if 1 be the interior diameter of any sue 1 It a perpendicular incidence, but become brighter as the formed by the extreme red rays, the cube roo of incidence increases. the mterior diameter of a ring at the boundary ot tne reu In fie;. 97 Sir Isaac has represented the different colours and orange, and so on.1 , .rp not reflected and transmitted, AB and CD being the surfaces The colours of thin plates of A^d or so 1 of of the glasses which touch at E, and the lines uniting them so easily studied as those of air, fiom the difhc y P representing their distances in arithmetical progression. The curing, and working with, such evanesce • words above the straight line AB are the colours of the rc- Newton, however, studied ^ fleeted rings, and those below the circular arch CD those soon as they were blown, he covered with a dear glas^ nf thp transmitted rinffs. this way he observed the colours to emerge like so many When water was introduced between the lenses, the co- concentric rings surrounding eVap0ra- lours became fainter, and the rings less, and Sir Isaac found the bubble became thinner,and the s ... } cof ered that tile intervals were inversely as tire indices of refraction «»” “^^tSta^order J’the liot.L of it, ““pwe're always larger in the homogeneous lofwh^e they viished ^ely. After light of the spectrum than in the violet light, in the ratio of were emerged at the top, there gi ev m oe c itself till ifi to 9, ancFhe concluded from more detailed observations a small round black spot, ^of that the thicknesses of the air between the glasses when the it became sometimes more than a-h^ g1^ light roVa wore successively formed by the limits of the seven an inch in breadth before the bubble o different colours, red, orange, yellow, green, blue, indigo, was still reflected fr°“ ^ blacker and and violet, are to one another as the cube roots of the squares saw within it seveial smaller roun p __ 1 It has been noticed by M. Le Blanc, that if the two extreme terms of the nreceding numbers, or any other two equ.dista extremes be multiplied together, their product will always be equal to { eriodieal darker than the rest, but still capable, like the lamer one Jolours. of reflecting faintly an image of the sun & ’ Bl trng .hT much,tlle at'the same places of the bj.bble or at divers places of equal thicknesses, were vaned by the several obliquities of the rings, Sir Isaac ob¬ tained the following thicknesses of the water requisite to exhibit one and the same colour at several obliquities Incidence on the Refraction into the Thickness of the OPTICS. 431 water. 0°. 15 . 30 . 45 . 60 . 75 . 90 . water. . 0° O'. .11 11. .22 1. ..32 2. ..40 30. water. .10 •10# •11# .13 ..46 25 14i •48 35 ;i5f 17shrrise entirely with the raie airea‘iy When the system of rings seen by reflection was examin¬ ed by a prism and perhaps only eight rings visible, Sir Isaac counted sometimes more than forty on the side of the sys¬ tem to which the refraction was made, though he reckoned bv estimation more than a hundred. Soap bubbles also! before they exhibited any colours to the naked eye, have appeared through a prism girded about with many parallel aid hori thpta ring8’ t° Produce which effect it was necessary to hold the pnsm parallel, or very nearly parallel to the horizon wa!d ° dlSP°Se ^ S° t lat the ringS rnight be refracted up- fofthe subtciTamerto1'0^^- imPortant Part of the ursof ofthin nktPs • Pcam the comPosition of the colours , plates. 0t‘hin P aJes’ atoPlc of great interest and extensive appli¬ cation : - Let there be taken,” says he, “ on any righUine om the point Y, fig. 98, the lengths YA, YB, YC, YD, Fig. 98. « /?v S s&s'VmsSstom' thH n.Tbers’ 6300’ 6814> 7114> G frr ia4. ’i00 ’ and at the points A, B, C, D, E, F, whose*interCulars A“, Bft by, &c. be’er’ect^d by neath against th 6 .eXten.t of the severaI colours set under- line Aa h s 18 be rePresented* Then divide the Aa in such proportions as the Nos. 1, 2, 3, 5, 7, 9, &c viLnsfrim^Ydr^C!iViSlTTden?te’ and throu?h thesO di- Periodical visions from L draw lines 1 L, 2 K, 3 L, 5 M, 6 N. Colours. anv thi^tmnc 06 SlTP°jed to represent the thickness of y thin transparent body, of which the internal violet is most copiously reflected on the first ring, then HKwill re¬ present its thickness, at which the outermost red iT most copiously reflected in the same series. Also A 6 and mi W,ll denote the thicknesses at which A„sfeX,™me ool„™ aid HQ flm^thi k refleCted ^ tbe Second series’ and A10 ieflecLd i thP ^T868 W JCh tbey are most ^piously reflected in the third senes, and so on. And the thickness at which any of the intermediate colours are reflected mSt copiously, will be defined by the distance of the line AH from the intermediate parts of the lines 2 K, 6 N, 10 Q, &c against which the names of those colours are written below! ut, farther, to define the latitude of these colours in each ring or series, let A 1 be the least thickness and A 3 the greatest thickness, at which the extreme violet in the first series is reflected, and let HI, and HL, be the like li- l u red’ andlet the intermediate colours be limited by the intermediate parts of the lines 1 I, 3 L Son R11^ ^ «S of those colours are written, and so on. But yet with this caution, that the reflections he 10O0T TfSt af, the mtermediate spaces, 2 K, 6 N, lOQ &c. and from thence to decrease gradually towards these limits, 11, 3 L, 5 M, 7 O, &c. on either sidl; whSre you must not conceive them to be precisely limited, but to decay mdeamtdj. And whereas I have assigned the ™ latitnde to every series ; I did it, because although the co- *e first g»es seem to be a little broader than the rest, by reason of a stronger reflexion there, yet that ine- servatlon ^ mSenSlble as scarcely to be determined by ob- Now, a.ccording to this description, conceiving that the rays, originally of several colours, are by turns reflected at the spaces 1 I L 3, 5 M O 7, 9 P R 11, &c. and transmitted at the spaces AHI1, 3 LM 5, 7 OP 9, &c. it is easy to tbicknWhaVC0 ?Ur must in ,he °l,en air be exhibited a/any thickness of a transparent thin body. For, if a ruler hr apphed paraflel to AH, at that distance from it by which the Jhjchness of the body is represented, the alternate spa- ces 1 IL 3, 5 MO 7, &c. which it crosseth, will denote the reflected original colours, of which the colour exhibited in the open air is compounded. Thus, if the constitution of green in the third series of colours be desired, apply the nf It, aSm°U 866 at V ^ & and byits Passing through some of the blue at and yellow at aad after tos fir f mSUCCeSS1Ve de^iency of its component colours, ! wL v I comPound ydlow, and then to red, and last of all the red ceaseth at L. Then begin the colours of the second series, which succeed in order during the transit thnn h ^ ^ ^ tbe rU er Prom d to and are more lively than before, because more expanded and severed. And for the same reason, instead of the former white there in¬ tercedes between the blue and yellow a mixture of orange yellow, green, blue, and indigo, all which together ought 1 432 OPTICS Periodical to exhibit a dilute and imperfect green. So the colours of Colours, the third series all succeed in order ; first, the violet, *hich a little interferes with the red of the second order, and is thereby inclined to a reddish purple; then the blue and m-een, which are less mixed with other colours, and conse¬ quently more lively than before, especially the green : then follows the yellow, some of which towards the green is is- tinct and good, but that part of it towards the succeeding red, as also that red, is mixed with the violet and blue o the fourth series, whereby various degrees oi red, very mu inclining to purple, are compounded. Tins violet andb u , which should succeed this red, being mixed with, and hid den in it, there succeeds a green. And this at first is mu inclined to blue, but soon becomes a good green, the only unmixed and lively colour in this fourth series. For as it verges towards the yellow, it begins to interfere with the colours of the fifth series, by whose mixture the succeed¬ ing yellow and red are very much diluted and made dirty, especially the yellow, which, being the weaker colour, _ is . scarce able to shew itself. After this the several series in¬ terfere more and more, and their colours become more and more intermixed, till, after three or (in which the red and blue predominate by turns) all sorts of colours are in all places pretty equally blended, and compound an even whiteness. .. And since the rays endued with one colour are transmi - ted, where those of another colour are reflected, the reason of the colours made by the transmitted light is irom hence If not only the order and species of these colours, but also the precise thickness of the plate, or thin body at which they are exhibited, be desired in parts of an inch, that may be also obtained by the assistance of the pre¬ ceding observations. For according to these observa¬ tions, the thickness of the thinned air, which between two glasses exhibited the most luminous parts of the fiis b 13 5 7 9 six rings wrere The Thickness of Coloured Plates and Particles of Air, Peri«(ai Water, and Glass. Colt, 5. Transmitted Tints. 'Very black Black | White Beginning of black Blue Air. Water. Glass. White Yellow Orange .Red Yellowish red Black Violet 'Violet Indigo Blue Green Yellow Orange Bright red Scarlet Blue White Yellow Red Violet Blue 92 'U 71 8 9 If 31 5i 6| ‘Purple Indigo I _ 7. , Blue [Of the third \ Green I nrrlpr. xt n m 14 15^ I6f 1 2 18? 191 Green Yellow Red 178000’178000’ 178000’ 178000’ 178000’ parts of an inch. Suppose the light reflected most 11 copiously at these thicknesses be the bright citrine yellow or confine of yellow and orange, and these thicknesses will , v . F F £ F o, F t. And this being known, it is easy to’ determine what thickness of air is represented by G cb or bv any other distance of the ruler from AH. But farther, since the thickness of air was t0 ^ dnck- ness of water, which between the same glasses exhibited the same colour as 4 to 3, and the colours of thin bodies are not varied by varying the ambient medium ; the thmkness of a bubble of water, exhibiting any colour, will be 4 oft..e thickness of air producing the same colour. And so accord¬ ing to the same observations, the thickness of a plate of dass, whose refraction of the mean refrangible ray, is mea¬ sured by the proportion of the sines 31 to 20, may be — of the thickness of air producing the same colours ; and the like of other mediums. I do not affirm that this pro¬ portion of 20 to 31 holds in all the rays ; for the sines of other sorts of rays have other proportions. But the differ¬ ences of these proportions are so little that I do not here consider them. On these grounds I have composed the following table, wherein the thickness of air, water, and dass, at which each colour is most intense and specific, is expressed in parts of an inch divided into ten hundred thou¬ sand equal parts. Yellow Red Bluish green . Bluish red ‘ Bluish green Green Red Yellowdsh green .Red Bluish green L „ , ( Greenish Of the fifth 3 blue Red order> (Red , • ,7 I Greenish Of the sixth 3 blue order> (Red , „ , (Greenish !°f die f'3 blue venth ordei ^ Ruddy white 21 224V 23# 25£ 27 y 29 32 3t 9| 10i nt 12? 13 13f 14| 3# 4! 56 9f 10# 14 14 12§ 15f I6f 174 18tGo 30i 21f 24 24 35f 36 401 46 521 13ii 14? 15 A I6i Hi 18 20| 251 26i 27 301 22 22f 23# 26 341 39§ 58f 44 65 48f 29f 34 71 71 53^ 57f 45# 49| Although these experiments of Newton were P , by many of his successors, particularly by Manode’ d 0’n and Dutour,2 their observations were generally the colours of thin plates as exhibited by a plate of a between two plane glasses. Mazeas observed tha a m minution of the breadth, and a change m ^ P 1 a. the coloured rings, were produced by aninCr^s 0(luCed in ture;3 and that the same system of rings was p vacuo. He made a great number of expermenBw h t, vapour, wax, and rosm pressed between the P but he was perplexed with the phenomena, that he was actually making experiments v i ^P M< in which the colours follow an entirely differe 1 Mem. Acad. Berlin, 17S2, and Memoires Presentees, t0™* d 0f iron' he'saw the rings’produced as before, s He made the lenses almost red hot, and by pressing them with a rod ot non, ne s c Mr OPT! •iodical Dutour and Sir William Herschel observed the reflected •lours. and the transmitted tints at the same time, the last series being reflected to the eye by the lower surface of the glass, and M. Dutour observed these reflected ones more distinct¬ ly by making the shadow of an opaque body pass over the upper surface. Sir W. Herschel observed additional sets of rings by increasing the number of reflecting faces ; and in producing the primary reflected system by a lens press¬ ed against a metallic reflector, he remarks that the trans¬ mitted system must in this case be conceived to have been absorbed by the metallic surface.1 Arago. In an interesting paper on the colours of thin plates published in the Memoires D’Arcueil,2 M. Arago has given an account of some important discoveries on this subject. In viewing the reflected rings through a rhomb of Iceland spar, having its principal section parallel or perpendicular to the plane of incidence, he observed, that the intensity of light in one of the images, varied with the angle of in¬ cidence, and that this image vanished at an incidence of 35° the maximum polarising angle for glass. He disco¬ vered the very same property in the transmitted rings. This eminent philosopher has also shewn, that when the reflect¬ ed and the transmitted systems of rings are superposed, they completely neutralise each other, forming white light; and hence he concluded, that their colours were complemen¬ tary, and the intensities of their illumination exactly the same. M. Arago next examined the system of rings when form¬ ed between a lens and a metallic reflector. When he ob¬ served them with the rhomb of spar above mentioned, one of the images vanished as formerly at 35° of incidence, the angle of maximum ■polarisation of glass; but above and beloiv that angle M. Arago observed the most singular phe¬ nomena. At incidences below 35°, the two images formed by the doubly refracting rhomb differed only in intensity, the colours and the diameters of the rings being exactly the same in both. Above the polarising angle, however, the rings in the two images were of complementary colours, the orders of colours in the one beginning from a black centre, and in the other from a white centre. M. Arago also ob¬ served that the rings of the same order of colours in the two images had different sizes. When a plate of any substance of intermediate density between the two substan¬ ces between which it was contained was used, similar phe¬ nomena were produced. When the surface of the metallic reflector was slightly tarnished, M. Arago observed a se¬ cond system of rings with complementary colours, arising irom the light irregularly scattered at the metallic surface, aS ur ^ cou^ k0 seen i*1 every position of the eye. without knowing of these discoveries of M. Arago, Mr. Airy,'1 about twenty years afterwards, published similar re¬ sults respecting the modification of the rings above and be- ow the maximum polarising angle ; and Professor Lloyd ias ingeniously observed, that an analogous result “may be ob- ained by combining (as in Fresnel’s experiment, fig. 92,) a metallic reflector with one of glass. The light being polarised perpendicularly to the plane of reflexion, the central band A. 433 will be white, when the angle of incidence is below the po- Periodical arising angle of the glass; at the polarising angle, the Colours, interference bars will vanish altogether; and beyond that incidence they wifi reappear with a dark centre in place o a w life one. I his method of observation would seem to be peculiarly adapted to the investigation of the change of phase produced by metallic reflexion at various inciden¬ ces. 1 ^ 'p()n®11^erafi°n °f Fresnel’s expressions, which had led Mr. Au-y to make his experiments with a metallic surface, led him also to expect that when the rings were formed be¬ tween two transparent surfaces of different refractive powers and when the light was polarised perpendicularly to the plane of incidence, the rings should be black centred at incidences below the maximum polarising angle of the least refractive surface, or greater than that of the highest refractive surface, and should be ?cfoVe-centred, when the angle of incidence was between these angles. By formino- the rings between plate glass and diamond, Mr. Airy found ins anticipations correct. In the course of these experi¬ ments Mr. Airy observed that the rings-did not disappear at che polarising angle of diamond, but that the first black ring contracted as the incidence was gradually increased, and at ' last took the place of the central white spot. Hence he concluded that there is still some light reflected at the maxi¬ mum polarising angle of diamond, and that this body has no angle of complete polarisation. See page 376, col. 2. Sect. lll.^-0n the Diffraction or Inflexion of Light. M. Grimaldi, to whom we owe the discovery of the inter- Diffraction lerence of light, likewise made some important experiments light, on what is called the diffraction or inflexion of light. Hav¬ ing admitted a ray of solar light into a dark room, through a small hole AB, he placed in the conical beam ABCD an Fig. 99- iry, opaque body EF. The shadow of this body was not bound- Fringes ed by the straight lines AEH, BFG, nor by the penumbra without the J *orme(l by the lines BEI, AFL, but was enlarged to shadow. MN, and was much greater than it should have been if formed by rays passing in straight lines past the edges of the body. Without the shadow of the body there were three fringes of coloured light, the broadest and most luminous of which, next to the shadow X, fig. 100, was MNO. There wf ™lour in7the middle at M, but it was blue at the side AN, and red at the other side 00. The second fringe 5 /-i , rr . 1 PM. Trails. 1807, 1809, 1810. 2 Tom iii verified,” "w‘^hifa^tTo^ SfiTs oursel’ve8 ™able to understand, “ I have carefully that it leads to important theoretical conclusions. If polarJationVere^ modification offleht^ ^ after r^flexion) because I think t might be conceived that polarisation before incidence might destroy its nf 1 a g ( -S Dr' Brewster and others have supposed,) tints; but when the reflexion is performed, and the rings art actually7visible in a certal.n anSle» or might change the “at any modification or physical chanae. in the hVhr ^1™ ,v.L L„. , ..ye vXl.th a dark centre, it seems quite inconceivable -any modification or physical c'lanqe in the light should make that centre nrme ■ & ^ark centre> ’t seems quite inconceivable 18 aresolution of the vibrations into two sets at right angles to each other ne^f ^ "u * e' r.'6 satlidact°ry exPlanation is, that polarisation separately exhibited, and that in this nst^ ln a mani.‘er that the two sets can in general be s- Y°"ng, Biot, Herschel, and we believe MW Ara^o a^d F esnel «enne1u0 ^ authors cnt'™ed in the preceding extract, viz. Ma- l* modification certainly & physicalchanqe without any reference to theory T. ev red,Polarl*atI°n as a modification of common light, arid eeptionable. Ifpolarisatiof is a resTZnX Z Zry lrZ of HWin™ * indeed> the term is philosophical and unex- 'f ’ "’h'ch we do not question, thisiscertainly a pretty considerable modification*”1 l,fmte 7tumber cf planes, into two sets at right angles to each .£»«h theories it, describing ^ ^ T ^ '»"** VOL. Xyi IieP°rt Un °ptiCS' Blitish Association Reports, 4, ISaXp. 3C6. ^ “ appr°priate by °Ur COntem' ’ 31 434 OPTICS. Periodical QPR was naiTOwer than MNO. Colours. 10<)> It was colourless in the Fig. 101. Hoairr r Noapa: tt Fig. 102. middle at P, faintly blue at QQ, and faintly red at RR. The third fringe STY resembled the other two, but was the narrowest and the faintest in its colours. They were bent round the edges of the body, as shewn in fig. 101. Fringes Grimaldi likewise discovered fringes within the shadow, within the which were best seen when the body was long, the light shadow. m-eat, and its distance from the aperture considerable. 1 hese internal fringes increased with the breadth of the body, and they became narrower when they increased in number. They were bent round the angles of the body, as shewn in fig. 102,where ADBC is the shadow, and a, b, c, d the internal fringes. Short lucid streaks were seen pro¬ ceeding, as it were, from the angle D, and return¬ ing to it, as shewn in the figure. What Dr. Young has called the crested fringes of Grimaldi, are shewn in figure 103. These fringes are formed by any body that has a rectangular termination. At the line which bisects the right angle there is a white central fringe, bounded by hyperbolic curves, whose asymp¬ totes are the diagonal line, and on each side ot this are two or three other bands, disposed in hyperbolic curves, which are convex to the diago¬ nal, and converging in some degree, as they re¬ cede from the angular point their intervals to be in the same progression. Hence the Peri« ^ fringes and their intervals together was as the number 1, Colt 444** When the hair was surrounded with water, the very same phenomena were seen, and metals, stones, glass, wood, horn, ice, &c., produced the very same fringes. The following was the order of the colours, reckoning from the shadow:— First fringe,... .Violet, indigo, pale blue, green, yellow, red. Second fringe,.ddhue, yellow, red. Third fringe,...Idblue, pale yellow, red. When homogeneous light wras used, Sir Isaac found that pnng, the fringes were largest iwred light, least wx violet light, and of homq an intermediate size in green light. In one case, the dis-ousl tance between the middle of the first fringe on each side of the shadow was of an inch in red light, and — in vio- 37-5 4() Fig. 103. let light. From experiments made by Sir Isaac Newton on the j[nifa light which passed by the edge of a knife, and on that which edge:..' passed between two knife edges parallel to each other, he concluded that the light of the first fringe passed by the edo-e of the knife at a distance greater than the 100th part of an inch; the light of the second at a greater distance than that of the first; and the light of the third fringe at a greater distance than that of the second. _ Sir Isaac then stuck into a board the points of two knives with straight edges, so that their edges formed an angle ol 1° 47' 26", and from the observations which he made on the light which passed between them, he concluded that the light ivhich forms the fringes is not the same light at all dis¬ tances of the paper from the knives, obviously considering each fringe as produced like caustic curves, by the intersec¬ tion of the inflected rays. When the fringes formed by these inclined knife edges were received on paper held at a great distance, the fringes formed by the one knife edge were bent into the shadow of the other knife, and formed cubical hyperbolas, whose asymptotes were for one set the knife edge which produced the fringes, and a line perpen¬ dicular to the line bisecting the angle formed by the knives. Although many attempts were made during the last cen-Dr T tury to complete the unfinished labours of Newton on tliiSy0UIi subject, yet no decided discovery was made till the time ot Dr. Thomas Young. This distinguished natural pj,™" pher, in endeavouring to explain the origin of the tring which surrounded the shadow of the margin of a small cir¬ cular aperture, conceived that the light nearest ^ centre was least inflected, and that nearest its edges most, an that another portion of light reflected from the marg ^ the aperture, and coinciding either exactly or neay t the direct light, after a circuitous path, would mterfe that light, and produce colour. In November ^ he c ^ firmed this supposition to a certain extent, in so far a Sir Isaac Newton. :ede from the angular point. ,T xt , firmed this supposition to a certain extent, in so k In repeating the experiments of Grimaldi, Sir Isaac New- duction 0f the colours by interference was concer > 7 ton admitted the sun’s light through a small hole in apiece j\g digcovery 0f the interference of light, as alrea y 1 A 4-1-.^ nf an inch in di^IHGlGr > of lead the forty-second part of an inch in diameter ; he found the breadth of the shadow of a human hair, which was the 280th of an inch in diameter, to be as follows:-— Distance of Distance of the Breadth the hair from paper receiving the ot the the aperture. shadow from the hair. shadow. i o fret 4 inches 0 01666 inches. Jo _ ” 24 — 0-03572 _ 12 128 — 0-125 — Upon comparing the breadths of the fringes without the shadow, and their intervals at different distances, he found them to be nearly in the same proportion, the breadths of SCThefringesformed by inflexion, asobserved by D'-Yoimg, are shewn fn fig. 104, where ABCD is the shadow of the 104. inflecting body with its internal fringes, which he - . ■ _ _ dercdasVoduced by the light pass,ng on eaa eide^ /I ho a inflecting body, and bent into the shadow, so a to the fringes being as the numbers 1, V rf J &c-> ^d inthe n^nncY already described. This he clear y p odical be the case; but he was less successful in explainino- the ours, external fringes between AC and GH, and between BD and EF. He ascribed them to the interference of rays reflected from the margin of the inflecting body, with rays which passed by it directly. Dr. Young examined the crested fringes of Grimaldi in the same manner as he did the internal fringes ABCD. He found that when a screen was placed within a few inches of the inflecting angle of the body, so as to receive only one of the edges of the shadow, all the crested fringes disappeared • but if the rectangular point of the screen was opposed to the point of the shadow, so as barely to receive the angle of the shadow, or its extremity, the fringes were in no wav affected. 3 \ resnel M. Fresnel in France, and M. Fraunhofer at Munich were simultaneously occupied in studying the inflexion of light, and each of them published the results of their labours, without any knowledge apparently that the other had been similarly occupied, We shall begin by giving an account of Fresnel’s experiments. In place of a small hole, M. Fresnel adopted the ingeni¬ ous idea of substituting a lens of short focal length, which collected the solar rays into its focus, from which they di¬ verged as from a small luminous aperture. When bodies were placed in this bright light, they gave distinct fringes, t ip macrnitnno ~ , P * OPTICS. 435 * , • P ; ^ Sclvc wauncL iringes, the magnitude of which he was able to measure at various of the i,n9ectins ^iind ^ in cases where the margin was made extremely narrow or Colours, sharp, the small quantity of light which it could reflect would rb-TarIe °i! P^cmg, by its interference with the di- rect light, such bright fringes as are actually observed. To assure himself of this, he took two plates of steel, the edge or each of which was rounded in one half of its length, and sharp in the remaining half; he placed the rounded portion of one edge opposite the sharp portion of the other, and vice versa Hence, if the position of the fringes depended on VrV°f t le surface’ the effect would thus be doubled, and the fringes appear broken in the middle. They were rn^beiC0MrvyPer?Ctly throughout their whole length.1 M. Fresnel was therefore obliged to suppose, and the supposition he found to be perfectly conformable to the undulatory theory, that rays that pass at a sensible distance deviate from their primitive direction, and interfere with those which pass directly by the edge of the body. In order to settle this question, M. Fresnel compared the results of Dr. Youngs hypothesis with those of his own, and ie ound that the breadth of any fringe of homogeneous light should be on the two hypotheses as 2 to 1-8726, and having measured the diameter of such a fringe, he found his own hypothesis more consistent with observation than Dr i oung s. distances behind the inflecting body, and at various dis¬ tances of the inflecting body from the lens, simply by view¬ ing the fringes with an eye-glass furnished with a microme¬ ter, instead of rendering them dull by receiving them upon paper. In this manner he measured' their breadths within the one or two-hundredth part of a millimeter. He traced the external fringes up to their very origin, and by the aid of a lens of a short focus, he saw the third fringe at the dis- tance of less than the one-hundredth part of a millimeter from the edge of the inflecting body. M. Fresnel made also the important discovery that the phenomena varied with the distance of the inflecting body from the radiating or sures10118 P°mt’ aS be seen from the following mea- Disfane6 of the Distance behind Angular inflexion inflecting body the body where of the red rays iro?1 focus the inflexion of the of the lens. was measured. first fringe. 0 feet 4 inches 3.281 feet 12' 6" 19--48 __ 3.28I _ 3 55 from which it appears that the rays experience a less degree or inflexion in proportion to the distance of the inflecting body from the radiant point. 6 frnmuenithe ^ctinS body was kept at a fixed distance 1-Zthc; M- Fresnel measured the inflexion of the same m^e at different distances behind the inflecting body, and J. resu‘t 0/ these measurements was, that the successive po- ZTy' t ,e same fringe did not lie in a straight line, but fff.f nenrve, whose concavity is turned towards the in- in oil u 0( f -lhe successive positions of the same fringe ino' tho 0 °rders co^ours be f°un?rat;ls ,he -^^and perpendicular to the line joining their centres. Two The on™i, of , ^ . • mtenslt>; °,f '.he s»l!lr ‘'R1''- J sets of similar fringes appear if the form of a St. A™ 1^^^ cofnmof W frfm'tt SOthtoS S T “’f drptlCTcSrTSrT^rgl^with!hefiretset’asshewn ^ l3te in Plate CCCLXXXI. fig. 5. When the apertures are un- times, Fraunhofer measured the aperture in di/mS-il i iclxxxi. equal, as in fig. 6, these fringes assume the form of hyperbo- screen, which he did to the fiftv 1,0 , 0, f metallic * S- ^ 'f’ '-7the ure totto common focus. By Hying to the hundredfthoZrd* part o? T fch “moTidelT thenumber and shape of the apertures, the phenomena be- body was very fine at its edL ’ pr0Vlded the 1 D • Cai\fe pXCee inf A beaw-lfu ' i . , Fraunhofer’s first observations were made with a sine-le 3. Poisson M. Poisson deduced from theory that the Centre of the slit, which was placed before the objectXs of the teles shadow of a small circular opaque disc, exposed to light ema- cope, which had been previously dirictL^ t^tt ^erture nating from a single luminous point would be precisely as m the heliostate, so that (he aper^ much illuminated by the diffracted light as it would be by of the micrometer. He then saw the fringes shewn nfiT? the direct light, if the disc were removed. By using a small Plate CCCLXXXI. The middle fringe or band L11' bisected disc of metal cemented to a clear and homogeneous plate by the micrometrical wire K, was 4^, becoming vellow of glass, M. Arago confirmed this very remarkable result. towards L1 and L11 where it was rpd Tn th , g Z r n 1. Arago. We owe to M. Arago a series of beautiful discoveries re- ^ W“ere lfc ^ the space L1 L11 specting the influence of transparent screens in the pheno¬ mena of inflexion. When a thick piece of glass was used as a screen on one side of the inflecting body, the rings wholly disappear, as if the screen were opaque. If the screen is very thin, like a film of sulphate of lime or mica, 437 Periodical Colours. t iere is a spectrum with very lively colours, viz, indigo near L , then blue, green, yelloiv, and red, near L11. The spec¬ trum in L11 L111 is much less intense, viz. blue near L11, and yMow, green, and red near LUI. The spectrum in the space L , L , is still fainter, being green on the side LIH, and red on the side LIV. A great number of spectra follow the fringes still remain visible but shift their places, and are these, becoming fafrter andfaintTand losing6 themselveT moved from the stde where the screen is interposed. in a band of light, w hich is spread over a great space All If we mate this experiment on the fringes produced by these spectra on both sides of K are periectlv equal and two apertures, we have only to cover one of the apertures conseouentlv svmm^rinal nZ P, ctiy equal, and with the screen. The sanle effect, however, „i,.Pbe pH rrarfcS 'r duced, if we cover both apertures with screens of different table contains the average of the distances L1 L« l'” and flucknesses. In this case the fringes will shift their places LIV, from the central line, all of them beTng equal’the mea ThI'h if1,P ate’ w.lth1out suffenng any other change, sures being taken from the red extremity of each spectrum Ihuub™1APr0perty1 taS be^n most ingeniously em- so that if we wish to have the angle of delation of L« from ployed by MM. Arago and Fresnel, in measuring the re¬ fractive powers ot different gases. For as the displacement of the coloured fringes depends on the refractive power, as well as thickness ol the plate, its refractive power may be computed fiom the displacement. In the same manner, if one ol the interfering rays are made to pass through tubes filled with different gases, while the other does not, the dis¬ placement produced by the gas will give a measure of the refractive power ol the gaseous medium, ranhofer We come now to give some account of the experiments of Joseph Fraunhofer, made with instruments of extreme accuiacy, and furnishing data of the highest importance in physical optics.1 The apparatus employed by Fraunhofer was a repeating theodolite, whose vernier read off to 4". In the centre of the circle, but above it, this instrument carries a flat circu¬ lar plate six inches in diameter, having its axis coincident with that of the theodolite, and graduated separately to 10". In the middle of this disc is placed a metallic screen, in which the necessary apertures are made, and which is in the axis ot the theodolite. The divisions of this disc serve to mea¬ sure if necessary the angle of incidence of the rays. A telescope, having an object-glass of twenty lines in aper- ture, and 16-9 inches in focal length, is placed three-and-a nail inches from the centre of this disc, KKwe have only to multiply the value of L in the table by 2, and so on. Width of the Breadth of each Product of the aperture in parts spectrum or values aperture by the 0fn1Pla,n^l,lch- of KLr, ELn, &c. deviation L. nllnna —37"*66 (>0000210 1—11 -17 0*0000210 0*03690 l—50 *6 0*0000209 0-02346 3-4 *43 0*0000210 0*01237 5 48 0*01210 6—1 0*01020 6—57 0*00671 11_6 '7 0*0000209 '84 0*0000212 3 0*0000206 4 0*0000217 0'00642 11—12 *2 0*0000209 0.00337 21—10 *3 0*00308 23—32 *7 0*00218 33—40 0-00215 35—17 0-00114 1 4—53 From these observations, M. Fraunhofer following conclusions: \. That the angles of deviation of the luminous rays which pass through a single aperture, are in the inverse ratio of the width oj that aperture. 2. That when a ray is diffracted in passing through a 0*0000207 .0.0000211 .0-0000213 .0.0000220 .0-0000215 deduces the half inches from the centre of this disc. This telescope is 2‘ J,Lat when a rad is diffracted in passing through a Pjaced firmly on the alidade of the divided circle, whose nffrrow aperture, the distance of similar rays from the mid- oiameter is twelve inches, and the whole is counterpoised. d e m . several spectra, form in each case an arithmetical he axis of the telescope is exactly parallel to the horizon, l)rogres.sion, whose difference is equal to the first term. as Well as to the nlnne nf tbic V.;vv.lv, T'V.w • 3. That if-v is the anerturp T i T II The magnifying 7 1-flat if y is the aperture, the arches L1, L11, or the deviation of the inflected rays, are in general for the radius of a circle equal to 1, L1— Lm:=3 Q’0000211 0*0000211 LII=2. 0*0000211 as well as to the plane of this circle. power which he employed was from thirty to fifty times, the instrument did not communicate with the floor of the room, from which it was wholly insulated. The heliostate was placed in the prolongation of the optical axis, at a dis- litpCe r ^ fee^ ^ inches from the centre of the theodo- hourly mo°tiConr tLTbserve^ Sfmi ^7 ^ ^ f 7 r By observing whetber the micrometer were appeared or I at. -u 7777—-— — : :*— —^ ncmesi IVIV, are not composed c in Munchen Without a (fate “ ^tU^Einwirkung umTBemjung der Strahlen, und Gesetze derselben. Von Jos^ AUNHOfEll 338 OPTICS. Periodical geneous light, but that it becomes more and more homo- Colours. aeneous at greater distances from the axis. — — Our author next proceeds to describe the phenomena observed when the two edges which form the narrow aper¬ ture, are at different distances from the object glass. When the effective width of the aperture thus formed, is from the 25th to the 50th of an inch, the spectra are the same as those before described; but when the opening becomes less, the spectra on one side of the axis become wider, horizontally than those on the other side. When the ap¬ parent aperture was extremely narrow, the spectra on one was two or three times wider than those on the other. By continuing to close the distant edges, the longest spectra begin to disappear successively, so that the fifth spectrum for example, fills almost suddenly the whole field of the telescope, till it ceases to be visible, then the fourth spec¬ trum presents the same phenomena, then the third, and so on. During these changes the spectra on the other side remain unchanged, but when all the former have vanished, they also disappear in their turn, not successively, but all at once, which happens when no light passes between the edges. The large spectra are always on the side of the screen, which is nearest the object-glass. _ When the apertures, both in the heliostate, and m front of the object-glass, were small circular ones, a system of rino-s are produced, absolutely the same as those of thin plates, with this difference only, that the centre is white m place of black. The rays increase in size as the apertures diminish. By varying the apertures he obtained the fol¬ lowing results: . , . 1. That the diameter of the coloured rings are in the in¬ verse ratio of the diameter of the apertures. 2. That the distances of the extreme rings (of any given refrangibility) from the centre form an arithmetical pro¬ gression, whose difference is smaller than the first term. 3. That if y is the diameter of the aperture in 1 arts inches, we shall have L__0-0000214 _T n T t—T in—T n. &c. Water Spectrum. 23 5 39 37 12 3"-3 41 16 47 57 14 L'= 0-0000257 Ln= 0-0000257 + L, and so on. Spectra produced The most important and interesting of Fraunhofer’s re- piuuuwcu searches, are those which relate to the spectra produced by by gratings „ratings, consisting of a number of parallel wires placed andgrooves parallel ajso to the narrow linear aperture in the heliostate. He formed these gratings of fine wires stretched across a rectangular frame; the two shorter ends of the frame con¬ sisted of two fine screws made with the same die, and hav¬ ing 260 threads in an inch. By placing a wire in each thread he ensured their exact parallelism. The diameter of each wire was 0-002021 of a French inch, and the edge of each wire was distant from the adjacent edge 0-003862 of an inch. The aperture of the heliostate was two inches long, and the 100th of an inch wide, and the frame of wires was placed before the object-glass, so that no other light could be admitted but through them. Fraunhofer was as¬ tonished at the phenomena which he saw. He saw the Plate colourless line of light A, Plate CCCLXXXI, fig. 8, in the ccclxxxi. aperture of the heliostate, exactly as if no wires had been Fig. 8. interposed, and at some distance from it on both sides a great number of coloured spectra exactly similar to those produced by a good prism. They were larger in propor¬ tion to their distance from the central bright line, and they diminished in intensity in the same proportion. A part of these spectra are shewn in figure 8, where A is the aperture of the heliostate, absolutely ^ ithout co¬ lours. On each side of A the spectra are perfectly sym¬ metrical. When the apparatus is well made, the space Total length from B1 to H1 • 19 1 0 19 1 '3 The diffracted spectrum is therefore a very extraordinary one. The green space from E to F, is almost exactly the same in both, but all the less refrangible spaces are greatly expanded in the diffracted spectrum, and the more refran¬ gible spaces greatly contracted, the red space CD in the diffracted spectrum being twice as great as in the water spectrum ; and the violet space in the water spectrum twice as small. M. Fraunhofer repeated the above experiments with ten different gratings; in which the breadth of the wires and the spaces between them were varied, and he deduces from them the following laws: 1. For two diff erent gratings in which the parallel wires are of the same size and placed at equal distances, the magnitude of the spectra which arise from the reciprocal influence of a great number of rays diffracted by narrow apertures, and their distances from the axis are in the in¬ verse ratio of the intervals y + 8, that is the space from the middle of one of the openings to the middle of the otffr' 2. In all the perfect mean spectra, or those in which, the ■fixed lines are seen, the distances between the coloured rays of the same nature in the different spectra, or between the same fixed lines in them, form an arithmetical progression, whose distance is equal to the first term. . , 3. In gratings in which the diameter S of the wires and the distance y between them is expressed m Pam the first term of the progression for the fixed lines B, E > ’ or those rays which have the corresponding degrees oj frangibility is represented by the following _ J 0.00002541 0.00002425. -p^ a00002l7_. B= — 5 1 — Xs ’ y + 8 0.00001943 F_ 0.00001789 . G= 0^21^; F=—^+ar-!i- TT 0.00001451 n=-7+r" y + 8 AH1 is absolutely black. The first spectrum occupies the Perioih space H\ C1 ; H1 being the usual limit of the violet, and Colo C1 that of the red. Between H11 and Cn, there is a second✓ spectrum twice as long as the first; the order of the co¬ lours being the same, but their intensity a little less. The third spectrum occupies the space between C11 and F^, but a part of its violet rays are mixed with the red of the se¬ cond spectrum, and also a part of the red rays of the third with the blue rays of the fourth spectrum. The fourth spectrum is seen between FIV and DIV, its blue extremity losing itself in the third, and its red extremity in the fifth spectrum. Many other spectra succeed these, and when the apparatus is good, thirteen may be easily reckoned on each side of A. But what is the most interesting fact, when the appar¬ atus is good, and the adjustments correct,—the fixed dark lines in the prismatic spectrum are seen at C1, D1, these lines being the same as those similarly marked in Plate CCCLXXXI, fis. 1. It is remarkable, however, that A is not seen, a fact which M. Fraunhofer neither notices nor explains. The lines both great and small, are absolutely the same, both in this and the prismatic spectrum, though their distances are widely different. In a grating in which y, the distance between the wires is 0-000628, and 8, or the diameter of the wires 0-001324, the following are the distances : Diffracted Spectrum, Distance betw-een the lines B1 and C1..^' 2"-6 C1 — Dh..4 D1 — E\.A E1 — FI...2 F1 — Gh-.S G1 — HI...2 OPT . ,.caj If we represent the numerator of each of these expres- Zil sions by a, the angle of deviation of one of the same colour- ^^,/ed rays in the Jirst spectrum by B", in the second by 3", in the third by 3'", we have generally 3'= $,/=^ &c- y+o If r stands for the number of the spectrum, » being =0 for the axis, r= 1 for the first spectrum, 2 for the second spectrum, and if we put Ezry-|-2 we shall have in general, 3(>)=-. S 1 he preceding results having been obtained with angles so small that the arcs and their sines and tangents are nearly in the same proportion, M. Fraunhofer began a new series of experiments with the view of obtaining spectra, in which the angles should be larger and by which he might deter¬ mine whether it was the arcs or their sines or tangents which had the proportions assigned by the experiments. This inquiry rendered it necessary to obtain much finer gratings than those he had used. He therefore coated a plate of glass with two or three folds of gold leaf in order to have the interstices filled up, and by a peculiar arrange¬ ment he traced upon the glass parallel lines in which e was rrO.OOl 14 of an inch. When the lines were drawn closer, no gold remained upon the glass. With this system the spectra were larger, and the fixed lines distinctly seen, but they did not answer his purpose. He therefore thought of spun glass which answered as well as wires ; and having covered a plate of glass with a thin coat of fat, so thin that it could scarcely be seen, he traced .parallel lines upon it, the intervals of which were only half the size of those on the gold leaf. The spectra produced by this system of lines gave the fixed lines very distinctly, so that their distances from the axis could be accurately measured; but he could not succeed in tracing either upon a layer of fat Or black var¬ nish lines closer than this. He at last succeeded in his object of tracing a finer system of lines by using a diamond, with which, by the aid of a machine, he traced lines so fine upon the surface of glass, that they could not be seen by the most powerful compound microscope. In this way he obtained a set of several thousand lines in which £=0.0001223 of an inch, and which are at distances so very equal, that the fixed lines in the first and second spectrum are clearly seen.1 With the system when £=0.0001223, and the number of lines 3601, the fixed line D is seen double in the first spectrum. When the light fell vertically on this grating, Fraunhofer obtained the following measures : ICS. With this grating, the third, fourth, and following spec- tra were well seen, but the fixed lines could not be seen VV1 1 sufficient distinctness for accurate measurement those beyond the first and second. He therefore used another grating in which £=0.005919 of an inch; and when the light fell upon it vertically, he obtamed the following results for the first five spectra, with the lines D,E, and F, for the first four, with E, for the first three with F and G, and the first two for H. Names of fixed lines. C1 2° 20 57 D1 2 6 30 Du 4 13 7 D111 6 20 7 DIV 8 27 43 Dv 10 35 53 Ei 1 53 7 En 3 46 17 Em 5 39 50 Eiv 7 33 41 Names of fixed lines. That is with rays falling vertically, the sines of the angle of deviation of any fixed line or ray of definite refrangibi- lity from the axis in the different spectra which succeed others, are as the numbers 1, 2, 3, 4, 5. The last of these systems of lines has the remarkable property of having all the spectra on one side of the axis twice as luminous as those on the other. Fraunhofer sup¬ posed that one of the sides of each line had been sharper than the other, and confirmed this opinion by tracing lines on a layer of fat, so that one line was less sharp than the other, and it produced the same inequality in the inten¬ sity of the light of the spectra on each side of the axis. If the ray does not fall vertically upon the system of grooves oi lines, but is inclined to it in a plane which in¬ tersects the parallel lines vertically, the same effect is pro¬ duced as if the distance between the middle of the lines or e were diminished in the ratio of the radius to the cosine of the angle of incidence. Hence the distance of the spec¬ tra from the axis increases as the cosine of the angle of in¬ cidence. If 439 Periodical Colours. Distance of fixed Names of fixed Distance of lines from axis. fines. fixed lines from axis. Ev 9 28 3 F1 1 44 19 Fn 3 28 45 Fm 5 13 23 FIV 6 58 18 G1 1 32 22 Gn 3 4 57 Gin 4 37 30 Hi 1 27 0 Hu 2 50 11 all the observations made with both the systems of lines are represented by the expression Sin3W=!W or the distance between the middle of any two lines. a microscopic apparatus, measured the distance between these two lines, the etching machine ■nm 18 fVa^ 'riow!ng t le number of lines, viz. 3601, and the distance between the first and last, nidale or anv two hnpc. 440 OPTICS. Periodical of lines fell on the object-glass of the -telescope, the very sity that they are not easily observed, whilst the succeeding Peri, ,j C; ou f same phenomena appeared as when the light paked through ones again become very intense. Owing to this cause, the C* t - — he same“rtem of lines at the same angle of inclination, fixed lines in these spectra may bP obse^ed n the usual me same ^ » nf thfi svstems consisting of equal spaces £, the lines C , F 1 or the spectra not synametrical being seen. rIhe intensity of the spectra was still such that the distances of the various lines can be determined with great accuracy. M. Fraunhofer has noticed it as very remarkable that under a certain angle of incidence a 'portion of a spectrum produced by reflexion, consists of entirely polarised light. This angle of incidence varies greatly for the different spectra, and even still very perceptibly for the different colours of one and the same spectrum. Thus with the glass system of lines where e=0.0001223, the ray E1 in the green part of the first spectrum is polarised when a=49°, but the same green part of the second spectrum on the same side of the axis is only polarised when tr=40°, and the systems consisting of equal spaces £, the lines CXI1, FXIIor the fixedlinesC, F, in the twelfth spectrum can be seen; butwitha regularly unequal system of lines, where every division con¬ sists of three shades s different among themselves, and are as 25: 33: 42, the lines Cxu, Dxn, Exn, and Fxn are seen with such distinctness that their distances from the axis can be accurately measured. The reason of this is, that with such systems of lines, the tenth and the eleventh spectra are almost wholly wanting. With this system of lines, in¬ deed, Fraunhofer saw EXXIV or the line E in the 24th spec¬ trum so distinctly that its distance could he measured. M. Fraunhofer, by means of concentric circular lines etched upon glass at equal distances, and by making the side of the axis is onty polarise . w o- , . rp in the heliostate circular, has produced circular green part of the first spectrum lying on the opposite side aperture . i 1; Their distances from the of the axis, is not polarised till «r=69°. In this last case spectra with circular fixed lines. 1 heir distances homthe the remaining colours of the spectrum are impel fectly po¬ larised. This was less the case in the second spectrum above mentioned where the colour still remained polarised when the angle of incidence was perceptibly altered. In the spectrum where the green light was polarised at 69°, the light was at no angle of incidence so completely polar¬ ised as in the first spectrum at 49°. With a system of lines in which e is larger than the one above mentioned, the green rays in the spectra already referred to, are polar¬ ised at totally different angles of incidence. A very singular consequence arises from the formula de¬ duced from theory by M. Fraunhofer, and representing his experiments. If the distance e between the lines is less axis are in the same proportion as in the spectra produ¬ ced by parallel lines. When the gratings and systems of lines are immersed in fluids, the same phenomena are produced, but the distances of all the spectra from the axis are diminished in the in¬ verse ratio of the indices of refraction. Fraunhofer has given also some fine drawings of a beau¬ tiful class of phenomena produced by the diffraction of light passing through round and quadrangular apertures either singly or arranged regularly. When a plate of brass per¬ forated with two equal apertures 0-02227 of an inch in dia¬ meter, and 0-03831 distant, is placed in front of the object glass, and the aperture of the heliostate round, the extraordi- experiments. If the distance e between tne lines is itss gx — o v r<1fm The snectra are rectangular of about a is =ai, and consists of two parts, cannot be recognised as of diftcrent radii, me spectra a & T1 j pnnsfctimr nf twn narts. « This.” he adds, “shews us the li- line wide, and from five lines to five inches long. consisting of two parts. “ This,” he adds, “ shews us the li mits which are set to vision through microscopes.” This re¬ sult, if clearly established, would be a very remarkable one. It is very obvious, that if the distances of the etched lines or the wires in gratings are unequal, the larger distances e will give smaller spectra, and the smaller distances e larger spectra, which will be mixed with each other. let end of each is towards the centre. In some places the spectra touch and overlap each other, but the greater num¬ ber are insulated. . Our limits will not permit us to pursue tins most curious subject any farther, and we must refer our readers to Fraunhofer’s own work,1 and to another recently pub is larger spectra, which will be mixed with each other, rraunnoiei & uwii nw- — ^ „ has^endraw- Fraunhofer, however, conceived it would be interesting to by Se iner 1 _ . c Keautiful phenomena, all of know what would happen if the intervals .were ^ «f an “j11 f lained L the undulatory unequal, that is, if the unequality in the distances were re¬ gularly repeated in equal parts. With this view he etched parallel lines in various ways, regularly unequal upon plates of glass covered with gold leal. It the distances between the lines are expressed by d, e", d" and if one of the equal parts, which consists of unequal e’s is expressed by d -\- d'+d" + en then the distances of the various spectra were found by experiment to be Sin. 3=0- incrs oi an iiiniiciioc vcinw^j r , , , which are capable of being explained by the undulato y theory. _ _j_ e Y(n The phenomena of spectra thus produced are chiefly remarkable on account of their different intensity. With newseries^ capablein its present some systems of lines of this kind, several spectra or parts of which undulatory > and we ffiUst there- of them may be wholly wanting, or have so slight an inten- form of giving the least exp. As the various phenomena of diffraction observed by Arago, Fresnel, Young, Fraunhofer, and Schwerd, ar susceptible of being explained by the undulatory he J, even facts of the same class, and having a similar _ gin, cannot possess much interest in our mqm the physical causes to which they must be ultimately We shall now proceed, however, to give an account of ate f scries of facts discovered by S.r Dav.d B.ewsttr,® 1 See Edin. Journal of Science, N. S. No. xiii. p. 101, and No. xiv. p. 2ol- _ . . . und in Bieldern dargesteUt, Von 2 Hie Beugungs- ersheinungen, aus dem Fundamental-gaetz dem unaulatwns theone anahjtische entwickelt un F. M. Schwerd, Manheim, 1835. OPTICS. eriodical fore consider such facts as peculiarly calculated to throw flours, light on the physical cause of the phenomena. In all the phenomena of gratings and systems of lines ob¬ served by Fraunhofer, the central image of the luminous aperture in the heliostate is white, a result that might have been expected, as that light is reflected from the original surface of the glass, and cannot interfere with any other light. “ If the lines,” says Fraunhofer, “ were so thick that one touched another, and consequently had no space be¬ tween them, no light could be regularly reflected from the etched surface, and would, as from every other polished surface, be dispersed. Were the intermediate spaces equal¬ ly wide as the lines, the etched surface could only regular¬ ly reflect half as much light as an equal surface of glass that was not etched, therefore the quantity of regularly reflect¬ ed light from an etched surface of glass, is in proportion to the quantity of light which is reflected from a surface of glass of the same size not etched, or as the width of the spa¬ ces between any two neighbouring lines is to the width of these lines.”1 These conclusions however irresistible they seem to be, are very far from having any foundation. For upon examining a series of several systems of lines or grooves cut on steel for him by the late Sir John Barton, Sir David Brewster observed, that in several of them the central image hitherto described as white or colourless, had a distinct colour which was the same in every part of the system. In one of the systems on which there were 1000 lines in an inch, the central image had its tint a greenish blue at a perpendicular incidence, which suffered no change by turning round the plate, nor by reflecting the light from different parts of the system. Fie found the same colours on various other sys¬ tems of lines, and upon examining them at different angles of incidence, he found that the tints varied with' the inci¬ dence, being a maximum at a vertical incidence, diminish¬ ing as the incidence increased, and disappearing at an angle of 90°. The following were the general results with the grooves on steel:— irmnvp«r fn Orders and portions of orders of colours from S” “h. 0® to 90° of incidence. 500 Citron yellow of the first order shading to white. 625 One complete order of colours, together with the reddish yellow of the second order. The colours very faint. 1000 Four complete orders of colours. 1000 One complete order, with blue, green, and yel¬ lowish green of the second order. 1250 One complete order, with blue and bluish green of the second order. The colours very faint. 2000 One complete order, together with blue, green, and greenish yellow" of the second order. 2500 One complete order, together with the full blue of the second order. 3333 Gamboge yellow of the first order. 5000 One complete order, together with bluish white of the second order. 10,000 One complete order with blue and fainter blue of the second order. In the third specimen, with 1000 grooves, mentioned in this table, the following were the four orders of colours:— Colours. Angles of incidence. White 90° O' Yellow 80 1 Reddish orange 77 > y ; v t Third spectrum a!’b", the violet rays are obliterated m" at 57°, and the red at n" at 41° 35'. And 111 , t Fourth spectrum a"'b"', the violet rays are obhtera m"' at 48°, and the red rays at n"f at 23° 30 . OPTICS. iodical Another similar succession of obliterated tints takes place lours, on all the prismatic images at a lesser incidence, as shown at nv, n'vf, the violet being obliterated at g, and the red at v, and the intermediate colours at intermediate points. In this second succession the line /jlv begins and ends at the same angle of incidence, as the line m"n" in the third pris¬ matic image a"b'; and the line /iV on the second prisma¬ tic image corresponds with m"V" on the fourth prismatic image. 443 Fig. 109. Fig. 110. A. Tl fifteen shaded rectangles, which are the minima of the Periodical new series of periodical colours which Colours, cross both the ordinary and the pris¬ matic images. The centres p, r, t, n, v, &c. of these rectangles corre¬ spond with the points marked with the same letters in fig. 107; and if we had drawn the same figure for vio¬ let light, the centres of the rectangles would have corresponded with o, q, s, &c. in fig. 107. The rectangles should have been shaded off to re¬ present the phenomena accurately, but the only object of the figure is to shew to the eye the position and relations of the minima of the pe¬ riods. If it should be practicable to re¬ move a still greater portion of the faces n, the first minimum p, fig. 110, would commence at a greater angle of incidence; and other two rows of minima, namely, rows of five and six, would be found extending to the fifth and sixth prismatic images. The arrangement and succes- sion of these is easily deducible from fig. 110, where the law ot the phenomenon is obvious to the eye. The following table contains the angles of incidence reckoned from the perpendicular at which these minima occur m the extreme rays. This singular obliteration of the colours is shown more clearly in fig. 108, where rmvn is a part of one of the pris¬ matic images, rr the red space, gg the green space, bb the blue, and vv the violet space. The line of obliteration mn begins at m, the extreme violet being obliterated there, so that the curve of illumination fig. 109, is just affected at one extremity m. 1 he line advances into the spectrum, and at the point corresponding to d, fig. 109, a portion of the blue and violet is obliterated, as shown by the notch in the curve; at e a portion of the green and blue ; at A a portion of the red and green, and at n the extreme red. A similar obliteration of tints takes place on the ordinary image AB. 1 The first obliteration, viz. that of the violet, takes place a o, g. 107, and that of the red at p ; while the interme- mate colours disappear at intermediate points. This first space of obliteration has no corresponding one at the same mcigence any of the prismatic images. I he second obliteration of the violet in AB takes place a q, and that of the red at r, and this corresponds in inci- aence with the obliterations m'ri, m'n' on the second pris¬ matic image. 1 lb t!uicl obliteration of the violet takes place at s, and a of the red at t, and this corresponds in incidence with e our obliterations on the second and fourth prismatic images, viz. fxv, MV, In all these phenomena the points m, n, p, v, &c. are only tinner* S i minimum intensity, or of maximum oblitera- ]it ’ ^ t le b,111® never entirely disappear, and those ob- irur 'ifu at e^C1 bne inn form an oblique spectrum contain- mg ali the prismatic colours. nhpn«e analysis ot these curious and apparently complicated undpr T61 1 )ecomes very simple when they are examined r'n homogeneous illumination. The effect produced in of th? ^ rePr,esented in hg-ilO, where AB is the image thesLl6 ug^ ar,ape.rture refleoted from the faces n of with th ’ aat t ^ ?ur ^nges on each side of it correspond Consist '“ P,nsrnatlc images. All these nine images, however, ist of homogeneous red light, which is obliterated at the Position of the minima in red light. Orl. Im. First minima/>...76° 0' Second minima t-55 45 Third minima....23 30 1st Prism Im. 2d Prism Im. 66° O' 41 35 3d Prism 4th Prism Im. Im. 55° 23 45' 30 41° 35' 23° 30' Position of the minima in violet light. First minima 81c Second minima...66 Third minima...48 Im. 1st Prism Im. 2d Prism Im. 3d Prism Im. 4th Prism Im. 30' 20 74° 57 66c 48 20' 57° 48° W hen the steel with 1000 grooves is exposed to common ight, ami the incident ray is very near the perpendicular, the 5th, 6th, 7th, and 8th prismatic images are combined into a mass of whitish light, terminated externally by a black space. As the angle of incidence increases, the 6th, 7th, 8th, and 9th images are combined into this mass, then the 7th, 8th, 9th, and 10th images, and so on; the black space which terminates this mass receding from the axis or image AB, fig. 107, as the obliquity of the incident ray in¬ creases. Having covered the steel plate with water and oil of cas¬ sia in succession, I found the angular distances of the black space to be as follows at the same incidence : Air 12° 23' Water Oil of cassia 21 22 the sines of which are inversely as the indices of refraction of the fluids. Phenomena analogous to those above described take place on the grooved surfaces of gold, silver, and calcareous spar, In order to study this subject under a more general as¬ pect, I was desirous of examining the phenomena exhibited by grooved surfaces of different refractive powers. It was 444 OPTICS. Periodical obviously impossible to procure systems of lines upon trans- Colours. parent bodies in which the grooves should have exactly the — — '’same distance and magnitude; but I conceived it practic¬ able to impress upon different substances the very grooves which produced the preceding phenomena, and I succeeded in impressing the system of 1000 grooves upon tin, realgar, and isinglass. The following results were obtained with tin, the colours being those upon AB, fig. 107 :— White 9°° °' Yellow. Pink. First junction of pink and blue 76 20 Greenish blue. Yellow. Pink. Second junction of pink and blue ..57 40 Bluish green. Yellow. Orange. Pink. Third junction of pink and blue. First minimum of red 76° Second 61 The following results were obtained with realgar:— 0' 30 10 15 The White 9°° Yellow 8° Pink 75 First junction of pink and blue 73 Blue 72 Bluish green 70 Yellow 63 Bright pink 54 /S'mmdjunction of pink and blue ...47 Bluish green 44 Yellow 69 Pink 32 More and more pink. First minimum of red...72° 0' Second ...61 15 The following results were obtained with isinglass. colours were generally the same as in the steel:— The first limit of pink and blue was at.. ..75° 45' The blue of second order 73 45 The second limit of pink and blue was at 54 30 In these experiments the tin gave nearly the same residts as the steel; but in the realgar and the isinglass similar tints were produced at a less angle ot incidence than in the stet . The minima of the periods were exhibited very finely on the isinglass, and were produced at smaller angles ot inci- dence* In a specimen with 1000 grooves upon isinglass, the third pink, or that seen upon steel at 36°, was the highest; but after drying, the pink descended to yellow, and subsequently to green. ..... If the isinglass is removed from the steel when it is still soft, the edges of the grooves get rounded and lose their sharpness, and only one prismatic image is seen on each side of the ordinary image, as in mother-oi-pearl. The mass of white light is finely seen in the impressions taken upon tin, but never appears upon isinglass. The prismatic colours seen on mother-of-pearl are ex¬ actly of the same kind as the prismatic images of grooved surfaces, with this difference, that a single prismatic image only is seen on each side of the common colourless image. Perioi d The following account of these colours has been given Col*, by Sir David Brewster, who first analysed them, and dis- S-PY» covered their communicability to wax, the tusible metals, &c. , . .... Mother-of-pearl, which constitutes the interior lining ofPrope- s the shell of the pearl oyster, and of various other shells, has mot . been long employed in the arts for the purposes of use and of ot'Pea; ornament. Every one must have observed the play of pris¬ matic tints, from which this substance derives much of its value as an ornament; but the nature and origin of these tints were never made the subject of investigation, till Sir David Brewster took up the subject, and published the re¬ sults of his observations in the Phil. Trans, for 1814. In order to study well the properties of this substance, we must select a regularly formed piece or plate of mother- of-pearl, which is known by the uniformity of its colour in day-light, and scarcely exhibits in that light any of the pris¬ matic tints. Let this plate be now ground flat dn both sides, (but not polished), upon a hone or a piece ot slate, or upon a bit of glass, with the powder of schistus, or with fine emery. When this is done, hold the plate close to the eye, and view in it by reflexion the flame of a candle, or of an argand lamp, or the flame of two or thrise candles, so placed as to appear like one, and we shall see a dull and reddish image, free from all prismatic colours, its dulness arising from the imperfect polish of the surface. On one side of, or above or below, this image, will be seen a brighter image with the colours of the spectrum, nearly as if it had been formed by a prism. . When the plate of mother-of-pearl is turned round in its own plane, the prismatic image will follow the motion ot the plate, and revolve round the common image, the Mm rays being nearest the common image, and the red rays far¬ thest from it. If the plate is so placed that the prismatic ima°-e is in the plane of reflexion, and between the common image and the observer, it will be found that the distance between the two images increases with the angle ot inci¬ dence, being about 2° 7' at an incidence not far from the perpendicular, and 9° 14' at a very great obliquity. I his distance between the images varies more rapidly when the plate is turned round 180° in azimuth, so that the common image is between the prismatic image and the observer; but in this case we cannot measure the angle accurately much beyond 60°, when it is nearly 4° 30'. Beyond the prismatic image, and in the same line witn it and the common image, will be observed a mass of co¬ loured light, nearly as far beyond the prismatic image as the prismatic image is from the common image. | he dis¬ tance of this patch of coloured light varies according to a different law from that of the prismatic image, as the rays which form it have previously suffered retraction, ins mass of light has a beautiful crimson colour at great ang es of obliquity. At 37° of incidence it is green, and at les angles it has a yellow hue, approaching to white, and becom very luminous. These colours become more brdhant when the plate is polished, and have an origin quite different tr those of the prismatic image.1 , Hitherto we have considered the phenomena on y the surface has that degree of polish which accornp smooth grinding. If a greater degree of P°lish’’ is communicated to the plate, the common linage more brilliant, and a new prismatic image starts up, metrically opposite to the first prismatic ^ ^ is_ same distance from the common image, ihis secuimp matic image resembles in every respect the firs • is liancy increases with the polish, and when this po! very high, the second prismatic image is nearly as D D 1 See Phil. Trans. 1836, p. 55. OPTICS. dical the first, which has its brilliancy a little impaired by po- mrs. fishing. This second image is never accompanied, like the v first, by a mass of coloured light. If the polish of the sur¬ face is removed by grinding, the second prismatic image vanishes, and the first resumes its primitive brilliancy. When the preceding experiments are repeated on the op¬ posite surface of the plate of mother-of-pearl, the same phe¬ nomena are observed, but in a reverse order, the first pris¬ matic image and the mass of coloured light being now seen on the opposite side of the plate. In examining the light transmitted through the mother- of-pearl, we shall perceive analogous phenomena. A co¬ loured image will be seen on each side of the common image, having the same angular distance from it as those seen by reflexion, and resembling them in every particu¬ lar; the blue light being nearest the common image, and the red fight farthest from it. These two images, however, are generally fainter than those seen by reflexion. When die second prismatic image is extinguished by removing the polish, it is then the most brilliant when seen by transmis¬ sion; and, in general, the image which is brightest by re¬ flexion is faintest by transmission, and vice versa. In measuring the angular distances of the prismatic image from the common image seen by reflexion, Sir David Brews¬ ter had occasion to fix the mother-of-pearl to a goniometer by means of a cement made of rosin and bees’ wax. Upon removing it from the cement, by insinuating the edge of a knife, and making it spring off, the plate of mother-of-pearl left a clean impression of its owrn surface ; and he wTas sur¬ prised to observe, that the cement had actually received the property of producing the colours which were exhibited by the mother-of-pearl. 1 his was at first attributed by our author,^ and others who saw the experiments, to a very thin film of mother-of-pearl detached from the plate, and left upon the cement; but subsequent experiments convinced him that the mother-of-pearl communicated to the cement its own properties. In order to shew this remarkable property to advantage, the plate of mother-of-pearl should be fixed to a handle like a seal, and its surface carefully cleaned. The sealing-wax should be black, and the impression taken by an impulse of the plate against the black sealing-wax, when rendered as fluid as possible by heat. The properties of mother-of-pearl may also be communi¬ cated m this way to balsam of tolu, gum-arabic, gold leaf placed upon wax, tinfoil, the fusible metal composed of bis¬ muth and mercury, and to lead, by hard pressure, or the blow of a hammer. When the impression is first made upon fusible metal, the play of colours is singularly fine ; but the metallic surface soon loses its polish, and the colours gradually decay. If dissolved isinglass or gum-arabic, &c., are placed upon e plate of mother-of-pearl, and allowed to harden upon it, ey will exhibit in the most splendid manner the colours o the substance ; or if we indurate these gums between two pMes of mother-of-pearl, we shall have transparent films, T 1°n S^es fhe Phay of the prismatic tints. tlm*1 °/C tr ^°.S110W that in these cases no part of the mo- nlunw /)ear *S on Surfiace> Sir David Brewster L.fd a P1.6?6 of wax, with the impression, into nitric acid, of wl ,• 0\l instantly have destroyed the carbonate of lime, no Pffif the 1inothfr-of-Pearl is chiefly composed, but it had cemPntCt °n ?6 ^lonfic P^perty. of the surface. In soft n s m^0^^, wax and rosiri) the siightest c}egree coW-T8 H10 suPerficial configuration, by which the and w Pr°duced; In sealing-wax, isinglass, gum-arabic, but in / greater heat is necessary to destroy it; by Pin and ead’ itS destruction can only be effected ® temperature at which they cease to become solid, the wav 11T- examine the prismatic images reflected from Mhich has received the impression from an unpo- 445 lished piece of mother-of-pearl, we shall find that the single Periodical prismatic image which is thus produced is on the right hand Colours, of the common image, whereas it is on the left hand of the """ common image in the mother-of-pearl itself. At different angles of incidence, the two coloured images ormed by the wax, follow the same laws as those produced by the mother-of-pearl; but the piass of green and crimson tints never appears in the impressions taken from mother- of-pearl, because they are produced by light which has pe¬ netrated the mother-of-pearl, and has after refraction been reflected from one or more thin plates which lie between the strata of which the mother-of-pearl is composed. In communicating to isinglass or gum-arabic the super¬ ficial structure of mother-of-pearl, their transparency en¬ ables us to observe the phenomena of the transmitted colours. The two prismatic images ^were both visible—the primary one being remarkably brilliant, and the second one scarce¬ ly perceptible ; but when the light was transmitted through the gum, the primary image was nearly extinct, while the secondary one was unusually brilliant and highly coloured, far surpassing in splendour those which are formed by trans¬ mission through the mother-of-pearl itself. When both the surfaces of isinglass or gum-arabic have received the su¬ perficial structure of mother-of-pearl, four images are seen. 1 he transmitted colours are more brilliant in gum-arabic than in balsam of tolu, as the latter reflects more light; but the prismatic images have the same degree of colour or dis¬ persion when formed by isinglass or gum-arabic, as when they are formed upon metallic surfaces. brom tnese facts it is obvious that the principal pheno¬ mena of mother-of-pearl have their origin in a particular configuration of its surface. By the use of the microscope Sir David Brewster discovered in every specimen of mo¬ ther-of-pearl that gave the prismatic images, a grooved structure upon its surface, resembling the delicate texture of the skin at the tip of an infant’s finger, or the lines which mark out islands and coasts upon a map. In many specimens of mother-of-pearl, the grooves are pa¬ rallel, but they are often arranged in all possible directions like the veins of agate, and in this case the common reflect¬ ed image is surrounded with a number of prismatic images sometimes arranged in a circular or oval form, more or less regular. Sometimes the spaces between the grooves, or lather the edges of the strata of the shell, can be seen by the naked eje, or by a magnifying power of six or eight times, in which case the prismatic images are less highly coloured, having whitish light in their centre, and are placed close to the common image. At other parts of the same plate, more than 3000 grooves may be counted in an inch, and in some places they cannot be detected by ordinary magnifying powers. When the spaces between the grooves are wide, a new groove often begins, and there is often a sudden change from a series of wide grooves to a series of close ones. When the mother-of-pearl is scratched, the bottom and sides of the scratches are grooved exactly like the parts that are polished. The direction of the grooves is always at right angles to the hue joining the common image and the prismatic image. Had the grooved structure appeared only upon its external surface, the phenomena and the communicable colours would have disappeared when the surface was ground down ; but the surprising part of the phenomenon is, that if we grind down the external surface with the finest pow¬ ders, and polish it to the utmost degree, we never can grind out the grooved structure, and replace it by a flat surface. I he edges of the shell break off by the action of the finest powders, so that the termination of one stratum cannot pass into the subjacent stratum without being separated by a distinct line or edge, formed by the fracture of its thin marginal parts. As all the strata have thus a prismatic termination, the mass of green and crimson light is reflect- 446 OPTICS. Periodical ed from near the edge of the surface upon which the super- Colours. incumbent stratum lies. , Sir John Herschel discovered in very thin plates of mo- -ther-of-pearl a pair of nebulous prismatic images more dis¬ tant from the central image than the two prismatic ones above described, and also a pair of fainter nebulous images, the line joining which is perpendicular to the line joining the first pair. He saw them by looking through thin pieces between the 70th and 300th of an inch thick. They are produced by a veined structure, in which there were 3700 veins in an inch. They cross the common grooves at all angles, and are parallel to the plane passing through the centres of the two systems of the coloured rings. The spurious discs of stars first noticed by Sir William Herschel, have been justly considered as arising from dit- fraction, and have been described as supplementary facts to those discovered by Fraunhofer, in Sir John Hersche s Treatise on Light ; lateS are more or le8s concave all tbeon ’ or Piano‘convex, or double convex. For in P'aK8 “aka of colours, but^ after those ofthfn (le ^'lau|nesl observed colours analogous to ver w tt th ffil’ Whr ^esu/faceof a mirror gwas co- ^eenofgLt of",!”111! aftf ^ was ^ or with a i front of the mirror Sir W P aTjtl ati a, SmaI1 distance in count of an interesting^ ^m.’ H^chefr has given an ac- hair-powder in tbo a- ^Pcri™ent m which, by dispersing a J l™ the air bef°re a metallic snernh,™ OPTICS. 447 WM hefmsBZnf,r, haS remarked’4 that the method Periodical colours is to nlare tl le m0S-t simPJe fr)r exhibiting these Colours colours, is to place the eye immediately behind a small^— can eeii0LathTUte fed »itI‘ °' wax, so ftat we^^ cohuws of ,b' £ ^ fve" at a PerPenthcuIar incidence. The colours or thick plates may be seen pvph writn candle held before the e/at the 2Zce of en „“wTve feet from a common pane of crown in Q i that has accumulated aPli„,e fine dus?ufon its surS „T that has on its surface a deposition of fine moisture Un der these circumstances they are so very bright that thev may be seen even when the pane of glass is clean Y Sect. V.—On the Colours produced by Double Plates of Lrlass of equal thickness. In 1815, Sir David Brewster published in the Edinburgh Colours of Transactions5 “ An account of a new species of colourfd double fringes produced by the reflection of light between two PIatesof plates of parallel glass of equal thickness.” equal thick- J " I™ foments he cut the plates of glass AB, CD, ness‘ litem a bitUof°i„ftehSam>e PleCet.’ and havi"f; Plac«l between nem a bit of soft bees wax, he pressed them together till icy were at the distance of nearly the tenth of an inch and slightly inclined to each other ’ and as in the figure, till one or Fim 1 ] a more of the reflected images of a circular luminous disc seen in the direction VR by an eye at V, were reflected from the bright and direct image formed by transmitted light. When this was done thereflected image was cros¬ sed with about fifteen or sixteen beautiful parallel fringes. The three central fringes consist of blackish and whitish stripes, and the ’air-powder in fhplv n 7 ent !nwluch’ bY dispersing 1 beam of light is W ? ^ a metalllc speculum on which beam on a screen finpr-6”’ and rece*vmg the reflected analogous phenomf na , gl°f COl°l,r are Pr°duced ; or an der on the face of a p Ina^ ^ Se,e-n scattering hair-pow- Iace ot a common looking-glass. 3 5 our Article CHaoMATms^oL Tp. 639. ^ ^ ii g. JSS are turned round in a plane at right angles to the in Z^nZme m^Paralklto the , ■ •l / . reflecting surfaces, which exercise an action upon the incident light. exercise an mc&ofThe0 " bef°T’- ’et "le distance of the bright and the reflected iLa-e be* Wdt? °ne °f tl,e plates> ^ flouredfrtfl will be found to increase in breadth as the inclination of of the plates is^Z'reased^ ^ diminish as the inclination q nties, so that the plane ot incidence is at riaht anales to the commo7i sect?nr? nf ,',ync U'/tgies to across anv of Hip im ' 6 plates, no fringes are visible mrallenn tl ^ But if the Planc of incidence is fma“efi„crSU T**” °f the the reflected feme and Z S brf ? eSS*ith tl,e obliquity of inci- aence, and the coloured fringes become more vivid. When 4 Treatise on Optics, Lardner’s Cyclop. S 77 Vol. vu. p. 435. s 448 Periodical the angle of incidence increases from 0« to 90° the images Colours, that have suffered the greatest number of reflections .ire — ' crossed by other fringes, inclined to them at a small angle. At an angle of about 44°, the image formed by four re¬ flexions is covered with interfering fringes; but it is not till the angle of incidence is greater, that this is distinctly seen on the image formed by two reflexions. Hitherto he had observed no fringes upon the first or bright image, which is composed of light that has not suf¬ fered reflexion from the second plate of glass, by con¬ cealing, however, the bright light of the first image, so as to perceive the image formed by a second reflexion, within the first plate, and by viewing this image through a small aperture, which he found of great service in giving dis¬ tinctness to all the phenomena, he observed fringes across the first image, far surpassing in precision of outline, am in richness of colouring, every analogous phenomenon which he had seen. When these fringes were concealed, he also observed other fringes on the image immediately behind them, and formed by z third reflexion, from the in¬ terior of the first plate. He concealed the second image, upon which the fringes were extremely bright, and very faint stripes were seen upon the one immediately behmc it. In examining these phenomena a little more attentively, he observed that the size of the fringes in the first image varied with the distance of the eye from the plates, while those on the second and fourth image diminished with that distance. In pursuing this inquiry, our author found that ^ pro¬ duction of the fringes depends upon the action of all the four surfaces of the two plates of parallel glass ; and that the magnitudes of the fringes are inversely as the thickness of the plates that produce them at a given inclination. When the eye is placed between the plates and the lu¬ minous object, so as to see the first, third, fifth, seventh, &c. reflected images, the coloured fringes are also seen, and have the same character as those already described. All these phenomena are seen without any variation w hen polarised light is used in place of common light. In order to explain the changes which the bght under¬ goes in its passage through the plates of glass, let A13, LD, fig. 113, be a section of two plates at right angles to the common section of their surfaces, and let RS be a ray o light incident nearly in a vertical direction. This ray, af¬ ter passing through the first plate AB, will suffer a small refraction at P and Q, and emerge in the direction QV parallel to RS. At the point P, in the second plate CD, the ray TP will be reflected to a, again reflected to b, and, after suffering a refraction at b and c, will emerge in the direction cd, forming with RV an angle equal to twice the inclination of the plates. A portion of the reflected ray Pa, will enter the first plate at a, and having suffered re¬ flexion and refraction at /3, the reflected portion will reach the eye at 6. The ray P a 6 c will likewise suffer a reflection at c and e, and will reach the eye at g. In like manner, a part of the ray.PQ will be reflected at Q, and move in the direction Q,rstuv, and another part of it in the direction swxyz, and these rays will suffer several other reflexions ; but the images which they form will be so faint, that the eye will not be capable of perceiving them. When the observer, therefore, looks at a luminous body, in the direction SR, through the glass plates, he will perceive two images, one of which is a bright image, seen by the transmitted light QV, and the other is a faint image, seen principally by the reflected light V ab c d and com¬ posed of several images, formed by the pencils e d, u v, e 0, z fy, and e g. The bright image is not crossed by coloured OPTICS. fringes, but the fringes appear distinctly upon the other Peridw image ; and the light by which these fringes are formed fok;. has suffered two reflexions from the exterior surfaces, and two refractions at the interior surfaces of the plates. Dr. Thomas Young, in the article Chromatics m this work,1 has given an explanation of these phenomena upon the principles of interference, and Sir John Herschel has shewn by an interesting analysis of them, that they are well fitted for illustrating the laws of this class of pheno¬ mena, and may be readily explained by interference. When two or three plates are combined, as m the form of Fnn - concave and convex lenses, and are combined as in the double ackm and triple achromatic object-glass, a series of beautiful sys-0Je^ terns of rings are developed. The method of observing these 1= rings, and by which Sir David Brewster discovered them, is shewn m fig. 114, where ABCD is the section oftheobject- ic Fig. 114. glass, including a meniscus of air. A small flame S, is placed about four or five inches from the object-glass, and a small screen G, is interposed between the flame and the eye atb, which is kept as close to S as possible. Ihe distance of the object-glass is then varied, till the inverted greenish coloured flame reflected interiorly from the concave surface A 1 13, seems to cover the whole area of the object-glass. When this takes place, the rings may, by a slight change in the position of the object-glass, or by screening the image formed by the reflection from A and B, be seen in the dis- tinctest manner over the expanded but enfeebled image formed by a second reflexion from the same surface. When the flame is small, and the eye sees it projected against the centre of the object-glass, the nogs form acwi'p,. centric system, as shetyn in fig. 23, Plate CCCLXXS , centric system, as snewn m ng- —> - —% , .^ccctpi approaching closer and closer to each other, towards the Fig j, t1 ^ ° l iTioop rinfrs miYlYfini. W, approacmiig liu&ci cwn-i ^ - circumference of the lens. Two of these rings mrnmm, n, ,) n, n, n, were distinguished from the rest by their darkness, and by the whiteness of the light between them; and they are the bounding lines of four systems of fringes, into which the general system subdivides itself by oblique reflection, in order to see this change, incline the object-g^ss sotha the point A is farther from the eye than B, and so that the eye may receive the obliquely reflected rays from eve y point of the surface A and B. At a slight deviation from the perpendicular, the rings become smaller and closer o the side A, and larger and more “ B _ 1C OCIJCAAMiVV/*-* ~ At greater incidences the inner ring aa, fig. 23, conj'r^, pjg 4. ■ b • ’ fig. 24. The second ana into an irregular crescent aa, - third rings bbcc, fig. 23, do the same, as shewn atbbcc, 24; and at a greater incidence the dark ring nn, fig- > sumes a similar form nnnn, fig. 24, and forms the bounfaj of the remote central system, ncbaabcn. in like u the lower part of the ring nn, fig. 23, has enclosed a but similar system of rings, which are shewn at w and may be called the near central system, while t ^ changes are going on, the rings without nn, tig. z ^ undergoing analogous, though opposite, inflexion - outermost,& ddd, fi|. 23, divides itself into two unequal^ tions, which run out into the circumference at the p 1 Vol- vi. p. 6138, sect. vi. * Treatise on Light, § 688—696. See also Biot’s Traiti de Physique, tom. iv. p- 246- OPTICS. eriodical ddcttf, fig- 24. Then the next ring, viz. the dark one, m, lolours. m, m, forming the boundary of the remote external sys- sry^tem, m, m, m, A, and of the near central system m', m', m', B. The four groups of rings thus developed, assume at ate greater incidences the character shewn in fig. 25, but they are not seen all at once ; and in tracing their form it is ne- ’’ J cessary to cause the image on which they are produced to ’ ’ be reflected successively from different parts of the lens. The rings are so closely packed together, at a distance from the white centres x’x, to which they are all related, that it is extremely difficult to perceive them in the present ob¬ ject-glass. At a still greater angle of incidence, the rays close in upon the centres x'x, and become exceedingly close and nearer as the points x'x approach to the circumference of the lens, and the rays become brighter from the increase of the light at greater obliquities. In some double object-glasses the rays can only be seen by looking through the convex crown glass lens. In one object-glass the four bounding fringes at xx, fig. 25, united .g. ‘26. and formed a black cross, as shewn in fig. 26. From a series of experiments Sir David Brewster has found that in the object-glass shewn in fig. 113, the action of the two surfaces 1, 2 of the convex lens AB, and the inner sur¬ face 3 of the concave one CD, are necessary to the pro¬ duction of these fringes, and hence he concludes that the ■ rings arise from the interference of two pencils of light, one of which has suffered three reflections within the convex lens AB, and has passed four times through its thickness, with another pencil which has suffered two reflexions with¬ in the convex lens, and one reflexion from the inner sur¬ face of the concave lens, and has passed four times through the thickness of the convex lens, and twice through the thickness of the meniscus of air. In a triple object-glass, which gave a system of rings simi¬ lar to that in fig. 26, they were covered with another system of very minute fringes, parallel to one another, and to the line joining the centres x and x.1 Sect. VI—On the Colours of Double Plates of Glass of Unequal 1 hickness, and other Analogous Phenomena, 449 | ours of 1 Me fes of qual bess. Knox. 27. Mr. W. Nicholson observed the colours of thick plates in the glasses employed for the sights of sextants, and he considered them analogous to those of thin plates. They have been ascribed, however, by Dr. Young,2 “ to the rays twice reflected in the second plate only.” Mr. Knox of Belfast3 has described some interesting phe¬ nomena already briefly noticed by Dr. Young, in the article Chromatics. Having formed a system of the rings of thin plates, by placing a convex lens on a piece of silvered glass, he observed the common system of reflected rings, and also the transmitted system reflected to his eye by the silvered glass. This is shewn in fig.27, Plate CCCLXXXIII. w iere A and B are the two systems; but he was surprised to observe between them a system of parallel fringes CD FI, passing through the intersection of the two circular systems. I hese fringes were equal in number to the number or the rings in A and B. They were equidistant, reached the eoge of the lens on both sides, and were formed at right angles to the direction of the light, and to a line forming the centres of the systems A and B. Our author then tried the effect of combining two prim¬ ly systems of reflected rings in the same manner. With this view he placed a double-convex lens about thirty-six inches m ocal length, on a piece of plate glass, with its under side painted black, and upon the lens he placed a piece of plate g ass. By these means two sets of primary rings were pro¬ duced, whose relative positions could be altered at pleasure. Periodical By using the shadow of a black card, he found that, instead Colours, of parallel fringes, as in fig. 27, he had a new species of rings of a circular form, from two to three times the diame¬ ter of the primary rings from which they originated. These rings passed, as before, through the intersections of the primary ones ; and the ring which divided the two classes passed through a point, whose distance from the centre of each primary set were in proportion to their longest diame¬ ters. These rings, which Mr. Knox calls intersectionary ones, may be made to vary infinitely in their dimensions, accord¬ ing as the diameters of the primary sets differ more or less, being least where that difference is greatest, and increasing in size as the two primary sets approach to equality, until at last they become straight lines, when the two primary sets are equal. The dimensions of the intersectionary rings will also, as Mr. Knox remarks, ceteris paribus, diminish as the two primary sets approach, and increase as they recede from one another. As these intersectionary rings are almost always accom¬ panied by a second, and sometimes by a third set of equal or unequal dimensions, Mr. Knox supposes that they may be produced by primary sets, combined with either trans¬ mitted or reflected sets, provided the two between which they are formed are of unequal dimensions. Considering the intersectionary fringes as diagonals to the angles at which they were formed, Mr. Knox conjec¬ tured that if he could form rectilineal fringes by flat plates, and combine them at different angles, he would produce a third or diagonal set placed between the other two. He accordingly took a pair of slips of glass, and by applying two of their ends together, and using some friction, and a considerable degree of pressure, he formed a fine set of rectilineal fringes. By applying a third slip of glass longi¬ tudinally to the upper one of the first two, he formed a si¬ milar set of rectilineal fringes at right angles to the first; and he immediately observed the diagonal fringes, which he had anticipated, appear in the angle between the two primary sets, as shewn in fig. 28, wdiere B and C are the piate primary fringes, and D the intersectionary set, divided into ccclxxxhi. two classes, as shewn by the dotted line. By forming the Fig. 28. second set of fringes at different angles with the first, the central band of the intersectionary fringes always bisected the angle. It is a curious circumstance, that though the diagonal fringes are formed by the crossing of the tw o pri¬ mary sets, yet they never appear at the opposite angle A, nor could they be made to appear in any angle formed by primary fringes, unless these fringes were so disposed as to have their red sides turned towards each other. Dr. Young has given an explanation of these curious p)r> Youn" phenomena in the article Chromatics,4 to which wx> must ° refer the reader. Mr. Henry Fox Talbot upon superposing two films of Mr. Fox blown glass and viewing through them a homogeneous yel- Talbot, low flame, and even the light of the sky, observed bright and dark stripes, or coloured bands and fringes, which were not produced by either of them separately. These pheno¬ mena, as Sir John Herschel remarks, are obviously refer¬ able to the same principle as the fringes discovered by Sir David Brewster, “ the interference taking place here be¬ tween rays respectively twice reflected within the upper lamina, and once reflected at the upper surface of the lower lamina, or else between rays, one of which is thrice reflected in the mode represented by AaB'a'BkzA, and the other in that represented by AaB'aA'a'A, the interval be¬ tween the glasses being supposed to be exactly equal to the Edinburgh Transactions, vol. xii. p. 191. VOX. xvi. 2 Art. Chromatics, vol. vi. p. 636. 3Phil Trans. 1815, p. 161. 4 Yol, vi. p. 636. Si. 450 OPTICS. Periodical thickness of the upper one in both cases, a condition which Colours. is sure t0 obtain somewhere when the laminae are curved.”1 Sect. VII.—On the Colours of Fibres formed by Reflexion and Transmission. Colours of fibres. Every person must have observed the fine thread or line of the spider’s web glittering with the brightest colours, when the light of the sun is reflected from it to the eye. By examining these colours attentively, they are found to vary with the angle of incidence. The only attempt that we know of to explain this phenomenon, that deserves no¬ tice, is that of Sir John Herschel:—“ These colours,” says he, “ may arise either from a similar cause, (namely, that which produces colour in a single scratch or fissure, or the interference of light reflected from its opposite edges,) or number of perforations in the circle being about ten or Period twelve, and as minute as possible. When the instrument Colon is constructed on such a small scale, the eye requires the's"^V aid of a lens. The wool, or plate of particles, are then at¬ tached to the end of a slider, and when the light of an ar- gand lamp, or two or three candles placed in a line, so as to unite their flames, is transmitted through the wool or par¬ ticles, the slider is drawn out till the first dark red coloured circle coincides with the circle of particles, and the index then shews on the scale upon the slider the number which indicates the size of the fibres or particles. The basis of this scale, rather an imperfect one, Dr. Young took from Dr. Wollaston’s measure of the magnitude of the seeds of the puff ball or Lycoperdon bovista, which he found to be the 8500ths of an inch in diameter. Dr. Young found the from the thread itself as spun by the animal, consisting of rings formed by these minute seeds to be three-and-a-half several agglutinated together, and thus presenting not a on the scale of his instrument, and hence he assumes the cylindrical but a furrowed surface.” That the structure thirty thousandth part of an inch, (more accurately the thus assumed would produce colours cannot be doubted, but 29750th), as the value of an unit on his scale. The follow- they would be the colours of grooved surfaces such as we ing results were obtained by Dr. Young have already described, which we conceive to be exceed- • 1 J * /TV. XT. T1 a c*ir\ i r \ o 11 w rv ingly diflerent from those of the spider’s line. It appears from a preceding section, that when a reflect¬ ing surface has its breadth reduced to an extreme degree of narrowness, whether it be a metallic or a transparent one, it is no longer capable of reflecting white light, but decom¬ poses it in the manner already described, the coloured bands being transverse to the direction of the reflecting line. Sir David Brewster has therefore applied this new property of icflecting surfaces to account for the colour of the spider’s line, which presents analogous phenomena, and which from its extreme minuteness, must necessarily decompose white light. If this is not the true cause of the phenomenon, it will not be easy to obtain any rational explanation from the doc¬ trine of interference, without taking for granted the existence of a structure of a very peculiar kind. On the Colours of Fibres by transmitted Light. If we take a number of fibres of wool, and fix them in parallel directions, as in Fraunhofer’s gratings, they would of course produce parallel spectra or coloured bands simi¬ lar to those already described. If we take a mass of the same wool, in which the fibres have every possible direc¬ tion, they will then exhibit spectra or fringes lying in every possible direction, or circular ones. As both these results would be equally obtained, if the fibres were cut down into particles as long as they are broad, we should have parallel fringes when the particles are arranged in straight lines, and circular ones when the particles are scattered like dust up¬ on a plate of glass in all directions. Hence fibres of mi¬ nute particles will produce circular fringes, which increase in diameter as the particles are smaller in diameter. When we therefore look at a candle placed at a little dis- - tance, through wool, or cotton, or vapour lying upon glass, or diluted blood, or milk, or the seed and farina of plants, &c. &c., we observe round the image of the candle a light area terminating in a dark reddish margin. This is followed by a ring of bluish green light, and then a red ring, and when the fibres or particles have an uniform size, the green and red rings are frequently repeated. It is to Dr. Young that we owe the discovery that the diameter of these rings is al¬ ways the same when the size of the particles or fibres is uniform and equal, and that they vary inversely as the size Dr. Young’s of the fibres or particles. On this principle he constructed eriometer. his eriometer for measuring the diameter of minute particles and fibres, such as wool, &c. It is composed of a plate of brass, or copper, or even card, with an aperture in the centre about the fortieth of an inch in diameter, and surrounded by a circle of perforations about half an inch in diameter, the 6^ Table of the diameter of Fibres and minute particles. Milk diluted, very indistinct, about 3 Lycoperdon bovista, dust of, very distinct 3| Blood of a bullock, from beef. 4| Human blood, diluted with water 5 Smut of barley (male ear) Blood of a mare Human blood diluted with water after standing five days 6^ Blood recently diluted with serum, only 8 Pus 7| Silk, very irregular 12 Wool of the beaver, jointed, very uniform 13 Angola wool, about 14 Yigonia wool 15 Siberian hare’s wool, Scotch hare’s wool, foreign coney wool, yellow rabbit’s wool, about 15^ Mole’s fur 16 Skate’s blood 16 British coney w ool, American rabbit’s wool, about Saxon wool, a few fine fibres 17 Buffalo’s wool I® Wool of the mountain sheep, ovis montana 18 Seal wool, finest, mixed, about l8i Shawl wool IS or 19 Goat’s wool 19 Cotton, very unequal - 19 Peruvian wool, mixed, the finest locks 20 Welch wool, a small lock of. 20 Saxon wool ,...23 or 24 Wool of an Escurial ram 23 to 24 Southdown wool Lioneza wool, 24 to 29 generally 25 Paular wool, 24 to 29 generally 25£ Alpacca wool, about.. Laurestinus, farina of Ryeland merino wool Merino Southdown wool 16£ 26 26 27 28 Lycopodium seed, beautifully distinct 32 Southdown ewe wool 9 Coarse wool, Sussex Coarse wool, from same, worsted 6 The diameter of the fibres or particles in the preceding table may be obtained in parts of an inch, by dividing tne —- of an inch by the numbers opposite them. The diameter of the particles of the human blood will 1 Treatise on Light, § 693. See also Biot, Traite de Physique, tom. iv. p. 246. OPTICS. 451 iodical.—1—. divided by 5, or the 6000th part of an inch. Dr. Jours. 305OOO _ 1 ' Young has ingeniously observed, that if we square the num¬ ber belonging to the pound of wool, and substract 325, the remainder will be nearly the number of pounds of wool that are worth 100 guineas. In the case of good Lioneza wmol for example, whose number is 25, we shall have 25 x 25 —325 =300 for 100 guineas, or seven shillings per pound.1 In experiments of this kind it would be better to express the magnitude of the first ring in parts of the radius, or by the angle which the whole ring subtends at the eye. Those wrho have any of Mr. Barton’s scales, with the num¬ ber of lines in an inch marked, can easily compare the dia¬ meter of the first ring produced either by fibres or particles, with the distance of the red spaces in the two first prismatic images ; and by the rule of proportion he will find the mag¬ nitude of the fibres or particles. Sect. VIII.—On the colours of mixed plates. onrs of The phenomena of colour observed by M. Mazeas, when he pressed between two glasses, suet, Spanish wrax, resin, * common wax, and the sediment of urine, are clearly those of as- mixed plates, though they have not hitherto been recognised as such. He put between his glass plates a little ball of suet about one-fourth of a line in diameter, and pressed it between the two surfaces, warming them at the same time in order to disperse the suet. He then rubbed them vio¬ lently together in a circular manner, and was surprised at looking at a candle through them to see it surrounded with two or three concentric rings, very broad, and with very lively and delicate colours, namely, a red inclining to yel¬ low, and a green like that of an emerald. By continuing the friction, the rings assumed the colours of blue, yellow, and violet, especially when he looked through the glasses on bodies directly opposed to the sun. M. Mazeas2 shews very clearly that these were not the colours of thin plates on account of the distance between the glasses, and also because the colours disappeared by melting the suet, but a new species of colours which he tried in vain to explain. Jr- M. Dutour3 repeated and varied the experiments of Ma¬ zeas, but did not succeed in explaining them. oung- Dr. Thomas Young, apparently without knowing of the experiments of Mazeas, though they are fully detailed by Priestley, has described the very same colours under the name of the colours of mixed plates, and the merit of dis¬ covery of these colours has been ascribed to him by almost all modem writers. The method of producing the colours by suet, as given above by Mazeas, is exceedingly sim¬ ple, while many persons have failed in repeating the expe¬ riments described by Dr. Young. It is to Dr. Young, how- ever, that w^e owe the higher obligation of having discover¬ ed the general principle to which these colours must be referred, though he has not examined the phenomena with that attention which they merited. The following is the account which Dr. Young has given of the colours of mixed plates. “I first noticed the colours of mixed plates, in looking at a candle through two pieces of plate glass, with a little moisture between them. I observed an appearance of fringes esembhng the common colours of thin plates ; and, upon o ung or the fringes by reflection, I found that these new mges were always in the same direction as the other mges, but many times larger. By examining the glasses a .^agnifier, I perceived that wherever these fringes • re ^jl1 ., ^e moisture was intermixed with portions of ’ Proc‘ucing an appearance similar to dew. I then sup- P e that the origin of the colours was the same as that of the colours of halos ; but, on a more minute examination, Periodical I found that the magnitude of the portions of air and water Colours, was byno means uniform, and that the explanation was there- ~ fore inadmissible. It was, however, easy to find two por¬ tions of light sufficient for the production of these fringes ; for the light transmitted through the water, moving in it with a velocity different from that of the light passing through the interstices filled only with air, the two portions would interfere w ith each other, and produce effects of co¬ lour according to the general law. The ratio of the velo¬ cities, in water and in air, is that of 3 to 4; the fringes ought therefore to appear where the thickness is 6 times°as great as that which corresponds to the same colour in the common case of thin plates ; and, upon making the experi¬ ment with a plain glass and a lens slightly convex, I found the sixth dark circle actually of the same diameter as the first in the new fringes. The colours are also very easily produced, when butter or tallow is substituted for water ; and the rings then become smaller, on account of the greater refractive density of the oils; but, when water is added, so as to fill up the interstices of the oil, the rings are very much enlarged ; for here the difference only of the veloci¬ ties in water and in oil is to be considered, and this is much smaller than the difference between air and water. It ap¬ pears to be necessary for the production of these colours, that the glasses he held nearly in a right line between the eye and the common termination of a dark and luminous object; the portion of the rings, seen on the dark ground, is then more distinct than the remaining portion ; and, in¬ stead of being continuations of the rings, they exhibit every where opposite colours, so as to resemble "the colours of common thin plates seen by re¬ flection, and not by transmis¬ sion. In order to understand this circumstance, we must consider that where a dark object as A is placed behind the glasses, the whole of the light which comes to the eye, is either refracted through the edges of the drops, (as the rays B, C,) or reflected from the internal surface (as D, E,) while the light which passes through those parts of the glasses which are on the side opposite to the dark object, consists of rays refracted as before through the edges, (as F, G,) or simply passing through the fluid, (as H, I.) The respective combi¬ nations of these portions of light exhibit a series of colours of dif¬ ferent orders, since the internal reflection modifies the interference of the rays on the dark side oi the object, in the same manner as in the common colours of thin plates seen by reflection. When no dark object is near, both these series of colours are produced at once ; and since they are always of an opposite nature at anY gb^n thickness of a plate, they neutralize each other, and constitute white light. In applying the general law of interference to these co¬ lours, as well as to those of thin plates already known, it is impossible to avoid a supposition which is a part of the un- dulatory theory, that is, that the velocity of light is the greater, the rarer the medium ; and there is also a condi¬ tion annexed to this explanation of the colours of mixed plates, as well as to that of the colours of simple thin plates, which involves another part of the same theory ; that is, 2 Jf0. ^r* \ou,18 s Introduction to Medical Literature, p. 552. tteS 1 resentces>tora- 11 ■ P- 43. s Id. Id. tom. iv. p. 288, 289; or Priestley On Vision, vol. ii. p. 505. 452 OPTICS. Periodical that where one of the portions of light has been reflected Colo u s. at t]ie surface of a rarer medium, it must be supposed to be 1 retarded one half of the appropriate interval ; for instance, in the central black spot of a soap bubble, where the actual lengths of the paths very nearly coincide, but the effect is tlm 'same as if one of the portions had been so retarded as to destroy the other. From considering the nature of this circumstance, I ventured to predict, that it the two reflec¬ tions were of the same kind, made at the surfaces ot a thin plate of a density intermediate between the densities ot the mediums containing it, the effect would be reversed, and the central spot, instead of black would become white ; and I have now the pleasure of stating, that I have fully veri¬ fied this conclusion by interposing a drop ot oil of sassafras between a prism of flint-glass and a lens of crown-glass ; the central spot seen by reflected light was white, and surroun ed by a dark ring. It was however necessary to use some force in order to produce a contact sufficiently intimate; and the white spot differed, even at last, in the same degree from perfect whiteness, as the black spot usually does from perfect blackness. There are also some irregularities at¬ tending the phenomena exhibited in this manner by differ¬ ent refracting substances, especially when the reflexion is total, which deserves farther investigation. Recent ex- We are not aware that these interesting experiments of periments. Mazeas and Dr. Young, have been repeater by any mocern writer, our treatises on optics containing merely an abstract of Dr. Young’s results. The subject has, however, been recently taken up by Sir David Brewster, who had found that the colours of mixed plates, in place of being mere y the result of an experiment, was & natural phenomenon oi z. very interesting kind, which frequently presented itseli m the examination of minerals. He was therefore led to at¬ tach a greater interest to the phenomena which they pre¬ sent. As the paper1 which contains the results of his in¬ quiries has not been published, we can only give a brie notice of them. In order to produce these colours so as to be permanent, he found that the froth of albumen, (the white of an egg beat up into froth) ground circularly as it were between two thick plates of glass pressed firmly together, when the circular motion is stopped, exhibits the colours very splen¬ didly. The glasses may then be held together by wax or bv screws. If we desire to have a circular system of rings, we must use a convex lens in place of one of the plates. Whipped cream answers also very well; but paste that has become very smooth by age he found preferable to any other substance which he employed. When the experiment is successfully made, the colours are extremely splendid, the flame of a candle or other luminous body being of a bright colour complementary to that of the coloured light which surrounds it. Upon looking with a microscope at the albumen or paste thus pressed into a film, it is found to resemble accurately the strata of cavities containing the new fluids, and some¬ times water, as in sulphate of lime, &c., the paste being sometimes found in separate ramified patches of all shapes surrounded with air, while on some occasions numerous air cavities are included in the paste. Although Dr. Young was correct m ascribing the colours of mixed plates to the interference of rays moving with differ¬ ent velocities in passing through the two contiguous media, yet his analysis of the phenomena is imperfect, and his deter¬ mination of the interfering pencils incorrect. In his 39th lecture he ascribes “ the colours seen in the dark part be¬ yond the object, to the light scattered irregularly from the surfaces of the fluid,”2 and in his description of fig. 115, above quoted, he specifies as the interfering portions which produce the colours, viz. rays reflected from the in ternal surface of the cavities, with rays refracted through Period the edges of the drops; and rays refracted through the Col«;. edge with rays simply passing through the fluid. That the * colours of mixed plates are not produced either by refract¬ ed or reflected pencils, is at once proved by the fact, that the same colours may be produced when the most refract¬ ing medium is terminated by a fine edge, and is itself a plate with perfectly parallel surfaces, so that there is no edge to reflect light, and no inclined faces to refract it. Having obtained this result, Sir David Brewster viewed the subject in another aspect, and has shewn that the pheno¬ menon is entirely one of inflexion caused by the edge of a transparent inflecting body sufficiently thin to produce colours by the interference of the retarded light passing through the body close to its edge, with the light passing within the body close to its edge. The same, pencils which interfere in the common case of a diffiacting body interfere in the present case ; but the pencils that pass through the transparent plate are modified by the retarda¬ tion which they experience, so as to produce the phenome¬ na of colours. The oppositely coloured pencils in mixed plates form part of the system of diffracted fringes, the co¬ lour seen upon the luminous body occupying the shadow of the diffracting edge, and the opposite colour seen around or beside the candle occupying the first fringe on each side of the shadow. The colours in the fringe on the left hand of the shadow of the diffracting edge, are seen by the eye on the right hand side of the candle, and those in the fringe on the right hand of the shadow are seen by the eye on the left hand side of the candle. All the preceding phenomena may be produced by break¬ ing down a thin transparent plate into minute portions, and when these portions are made to float in a fluid, or are placed between two plates of glass containing a fluid ot nearly the same refractive power as the solid portions. The solid portions will thus act like much, thinner plates placed in air, and we shall observe the identical phenome¬ na which take place with the cavities in paste or albumen. When we examine with the microscope a very narrow por¬ tion of the solid substance bounded by lines nearly paral¬ lel, we perceive the phenomena of mixed plates under a new aspect. The space between the shadow of the two edges is filled up with a bright band of the colour which occupies the two first external fringes, and as the innermost fringe of each edge overlap each other, the colour has dou¬ ble the intensity. The same phenomenon is often seen in the parallel ramifications, or in the long cavities produced by the paste or albumen when the last act of friction wa to move one of the plates of glass in a straight line. The phenomena of mixed plates have been discovered by Sir David Brewster in sulphate of lime, in which there are shallow crystallised cavities in great numbers forming re¬ gular strata in the mineral. These cavities are fi e water, and in this case the diffracting edge is the ed e o the cavity, and the light which passes through the water has its velocity greater than that which passes throug i lid mineral. i, ra. In one remarkable circular stratum of cavities, all the ca vities in the centre were the deepest, and gradualydi^ nished in depth towards the circumference, till the m croscope could scarcely resolve them. The hig * ^ of colours were therefore in the middle of the sfratu , ^ they gradually descended to a white of the fiist orde , the circumference of the circular stratum. Henry An interesting experiment lately published by ^ Fox Talbot, Esq-3 is a phenomenon r'^l.Luce’the which the densest of the plates is too thick 1 j} he> colours at its edge in common light. Make, J . « a circular hole in a niece of card, of the size of P P 364. "SIT OPTICS. 153 ouble of the GyG» Cover one half of this opening with an ex- exDosedi to anv nrpccnvo « i ^ mi i • -r-v mtioo. tremely thin film of glass (probalily mica would answer ted through them smofe i T' "'l U'l|3mif' r,Ij0“,,ll': the purpose as well or better.) Then view throudi this nlained S ^ ’ accordlnl? 10 th — — . -x wci uum. tion, they had a sort of granular structure resembling fine 311 obtuse rhombohedron, as screws at their edges, and sometimes appearing to enclose shewn in fig. 117, where ABCB, minute specks of light. Several other remarkable pheno- ABCB, &c. are the faces of the mena accompanying these fringes were communicated by rhombohedron, and A A', the axis me author to the British Association at Liverpool, and will the rhombohedron, on the two appear in the next volume of the Philosophical Transac- j™ning its two obtuse angles Fig. 117. part. V1‘ 0IV THE I>OUBLE REFRACTION OF LIGHT. The following are the dimensions of the crystal, as given by Malus, w ho observes that the first angle, _ from which all the rest are derived, is within ten seconds of the truth. £5Fhzrmr “ it is fcBcf-'n obliqiiy U ^ bet"een ^ edgeS i?'""1?1 npnp-i th!,surfac + R; Hr /R2—rz\ \ R2rW sin. 2’ Jr etfon Lef EBH be the elliptical section of the preceding equation, the following values of a and b, viz.. ^late^phCTohd whkh the d°vj^f ^mml crystal, formed by the surface upon winch the ray .s me. dent Let the ray RC fall upon its centre, and let RCK be the intersection^ the plane of incidence with the face of the crystal. Let EMH ^ i rio we obtain il of a=0*674l7l7 5=0*6044871, whence 771=1*65429 tw'=1’48330, be a part of the oblate sphe¬ roid within the crystal or below its surface, the axis of the spheroid passing through and having any in¬ clination to the surface. Then draw in the plane KCR aline CO perpendi¬ cular to RC, and having drawn OK perpendicular to OC, or parallel to CR, ■ iM Fig. 123. . r. 8*8228602 . r. 0*764180 . F. 114*4546 F= f-*- In the case of quartz or rock crystal, where 0=0*645813 5=0*641776 777=1*558176 TTi'^l *548435, we obtain re 8 - — r. 0*962824 — r. 0*895775 F. 0*074846. i2—ai 5) and making a=0, we have for the ordinary- ray, F= brr' (r+r')(\-b) a2 (1—^>) ~ 2b2—a'1—dll) i Malus, Thtorie, &c., p. 278, sect. 66. 2 Id. Id. p. 281, sect. 66. ( ftals J one ■ i OPTI ouble the axis of double refraction of the crystal approaches to the •action. axis 0f the lens ; and the preceding formulae apply solely to the case where these two axes are parallel, as it is only in that case that such lenses can be of any use. List of the Primitive Forms and Crystals which have one axis of Double Refraction. From a very extensive series of experiments on the double refraction of crystallised bodies, Sir David Brewster was led to the general law, that all crystals whose primitive form has only one axis of figure, or one pre-eminent line, round which the matter of the crystals is symmetrically arranged, had also one axis of double refraction, and that their axis of figure was likewise the axis of double refraction. The following are the primitive forms which possess this geometrical and optical property :— The rhombohedron with an obtuse summit. The rhombohedron with an acute summit. The regular six-sided prism. The octohedron with a square base. The right prism with a square base. cs. 3. Regular six-sided prism. Fig. 126. 457 Double Refraction. ■ Emerald. Beryl. Apatite. — Nepheline. — Arseniate of lead. + Hydrate of magnesia. 4. Octohedron with a square base. Fig. 127. Table of Crystallised Minerals and other bodies which have one axis of double refraction. In the following table the crystals are arranged under their primitive forms, so far as these forms have been deter¬ mined by crystallographers. The sign + indicates that the crystals have positive double refraction, like quartz, and — that they have negative double refraction, like Iceland spar. 1. Rhombohedron with an obtuse summit. Fig. 124. -f* Zircon. -f. Oxide of tin. + Tungstate of lime. — Mellite. — Molybdate of lead. — Octohedrite. — Muriate of potash. — Cyanide of mercury. 5. Right prism with a square base. Fig. 128. / / x - Carbonate of lime (Ice¬ land spar). - Carbonate of lime and iron. - Carbonate of lime and magnesia. • Phosphato-arseniate of lead. ■ Carbonate of zinc. ■ Nitrate of soda. Phosphate of lead. • Ruby silver. Levyne. Tourmaline. Rubellite. Alum stone. Gmelinite. Chlorate of soda. Dioptase. Quartz. - Idiocrase. - Wernerite. - Paranthine or scapolite. - Meoinite. - Somervillite. ■ Edingtonite. • Arseniate of potash. • Subphosphate of potash. Phosphate of ammonia and magnesia. — Sulphate of nickel and copper. — Hydrate of strontites. + Apophyllite of Uton. -f- Oxahverite. + Superacetate of copper and lime. + Titanite. + Ice, certain crystals. Murio-carbonate of lead. 2. Rhombohedron with acute summit. Fig. 125. ■ Corundum. ■ Sapphire. Ruby. — Cinabar. — Arseniate of copper. The following crystals and organised bodies have one axis of double refraction, but their primitive form has not been accurately determined. . Position of the axis. — Muriate of lime.. Axis of six-sided prism. — Muriate of strontian Do. do. — Hyposulphate of lime1 ....Axis of hexagonal tables. — Mica from Perpendicular to laminae. — Mica, with amianthus Perpendicular to the laminae. — Nacre, (See/JM. Trans. 1 „ .... , . 1836, p. ). . j" Perpendicular to laminae. + Boracite Axis of rhomb of 90°. + Apophyllite, (surcompo- 1 n ... , ,. we of Hauy), j Perpendicular to the table. + Sulphate of potash and | . ... . iron,... ... >• Axis of six-sided prism. Tortoise shell, (Sir. J. Herschel), 3 m VOL. XVI. ‘ Sir John Herschel. 458 Double g]ecT jj Qn tjie Law of Double Refraction in Crystals Refraction. two axes. OPTICS. Fi that is, the ordinary velocity is constant in all directions and equal to D, and, as the second equation indicates, the extra¬ ordinary velocity v depends on the angle A, which the ex¬ traordinary ray makes with the axis. When this ray is in the section perpendicular to the axis, we have A=90°, and sin.2 A=l, hence \'=:d. When the ray is parallel to the axis A=0°, and sin.2 A=:0, wffience t>z=D, so that in this direction only the ex¬ traordinary becomes equal to the ordinary velocity. In biaxal crystals, when the ray is in the section perpen¬ dicular to CD, fig. 129, it is evident that it always forms equal angles with the axes P/>, V'p'. Hence A=a, and sin.2i (a—A)=0, consequently V2=D2, or V=D. In this way D is the expression of the velocity in this case, and it is on this account that the term ordinary velocity is applied to all those which are given by the different values of V. When the ray on the contrary, is in the section perpen¬ dicular to AB, the sum of the angles A and a is always equal to two right angles, and sin. l(A + a)=: 1, whence it follows that V2=e?2, and \=d, and it is on this account that the term extraordinary velocity is applied to all those that are given by the values of v. When d is greater than D, the minimum of the ordinary velocity takes place when az=A, or when V=D, and the maximum takes place when a—A is the greatest possible, which happens in the plane of the axes APCBDP'. The minimum becomes the maximum, and vice versa when D is greater than d. The maximum and minimum for the extra¬ ordinary ray take place also, when v—d, and consequently or the case when the ray is in the plane of the axes, but t ley in like manner change their part when d is greater or less than D. 8 In every case the difference of the squares of the veloci- Double ties is expressed by the formula Refraction. v2—V2 = (tZ2—D2) sin. a. sin. A. That is to say, the two ordinary and extraordinary rays having a common direction, the difference of the squares of their velocities are proportional to the product of the sines of the angles which each of them makes with the two axes. “ This remark, adds M. Pouillet, had been made by Sir David Brewster and M. Biot before Fresnel had pointed out the simple law which embraces the phenomena in all its extent.” List of the primitive forms of Crystals that have two axes oj double refraction. From a great number of experiments, Sir David Brew- Cr sta]s ster found that the property of possessing two axes of dou- with two ble refraction belonged to all the crystals that are included axes, in the prismatic system of Mohs, or which have the fol¬ lowing primitive forms of Hauy :— A right prism, Base a rectangle. Base a rhomb. Base an oblique parallelogram. Oblique prism Base a rectangle. Base a rhomb. Base an oblique parallelogram. Octohedron Base a rectangle. .— Base a rhomb. In these solids there is no single line or axis of sym¬ metry. The following table, which we could have enlarged con¬ siderably, contains most of the crystals with tw o axes, whose primitive forms have been determined by crystallogra- phers:—. 1. List of Crystals of known Primitive Forms, and having Two Axes of Double Refraction. 1. Right Quadrangular Prism—Rase a Rectangle. Cymophane, Young. Peridot, ditto. Prehnite, ditto. Stilbite, ditto. Comptonite, Brooke. Thomsonite, ditto. Anhydrite, Boumon. Tartrate of potash, ditto. Staurotide, Hauy. Datholite, do. Mica, do. Talc, do. Position of Principal Axis. Axis of right prism. Perp. to axis. Parallel to longest side of prism, or perp. to best cleav¬ age planes. Perp. to axis of right prism. Perp. to axis of prism. Axis of right prism. Perp. to the flat rhomb, faces. Position of Second Axis. Perp. to the sides. Axis of right prism. Axis of right prism, or perp. to longest faces. Axis of that prism, or other axis. Axis of the prism. Perp. to sides of prism Parallel to a side of rhomb, prism. Axis of right prism. Axis of right prism. Spodumene, do. Axis of prism. Sulphate of barytes, Short diagonal ditto. rhomb, base. Sulphate of strontian, Axis of the prism, do. Sulphate of soda, Pour non. Citric acid, do. Tartrate of potash and soda, do. Chromate of lead, do. Stilbite, Brooke. Perp. to laminae. Mesotype of Auv- Axis of prism, ergne, do. Greater diagonal ofits rhomb, base. Diagonal of its rhomb base. In plane of laminae, of Long diagonal, or axis of prism. Perp. to axis of prism. In plane of laminae. Perpendicular to axis. 1 Piemens de Physique Experm. liv. viii. cap. 1. 460 Double Refraction OPT 3. Right Quadrangular Prism—Base an Oblique Parallelogram. Names of Minerals- Position of Principal Axis. Needlestone of Faroe, Axis of prism, do. Sulphate of lime, In plane of the lami- Hauy. Epidote, do. Axinite, do. Heulandite, Brooke. Brewsterite, do. Sulphato-carb. of lead, do. Acetate of strontian. nse. In base of prism. Position of Second Axis. Perpendicular to axis. Axis of prism. Axis of prism. Perp. to laminae. In plane of laminae. I c s. Names of Minerals. Muriate of barytes. Realgar. Orpiment. Lepidolite. Mesotype. Mesolite. Serpentine. Natrolite. Sulphato-bi-carbo- nate of lead. Phosphate of iron. Harmotome, Petalite, Position of Principal Axis. In plane of laminae- Perp. to laminae. Axis of prism. Ditto. Perp. to laminae. Plane of laminae. Perp. to axis. Ditto. Axes of acute rhomb. In plane of laminae. In plane of laminae. Perp. to laminae. Chabasie. 4. Oblique Quadrangular Prism—Base a Rectangle. 10. Crystals, whose primitive form has not been determined, but which have been found to have two axes, and which must belong to the Pris¬ matic System of Mohs. Borax, Hauy. Euclase, do. 5. Oblique Quadrangular Prism—Base a Rhomb. Perpendicular to sides Axis of prism, or of the prism. other axis. lolite. Indurated talc. Carbonate of potash. Diopside, Hauy. Euclase, do. Augite, do. Glauberite. Grammatite. Sulphate of iron, Wollaston. Super-sulphate of potash, Bournon. Acetate of copper,do. Tartaric acid, do. Oxalic acid, do. Sugar, do. Hydrate of strontian. Bitartrate of potash. Sulphate of soda. Carbonate of copper. Sulphate of ammonia and magnesia. Axis of prism. Perp. to plates. Plane of axis perpen¬ dicular to the flat tables. Perp. to axis of prism. In plane of laminae. In plane of tables. Perp. to axis of prism. Perp.to axis of prism. Axis of prism. Axis of prism. Axis of prism. Perpendic. to faces. Axis of prism, or other axis. Long diagonal of rhomboidal plates. 6. Oblique Quadrangular Prism—Base an oblique Parallelogram. Feldspar, Hauy. Kyanite, do. Sulphate of copper,do. Shorter diagonal of Axis of hexagonal the rhomboidal prism, or long diag. base. of rhomb, base. Sulphate of soda and magnesia. Sulphate of nickel. Short diagonal of the rhomboidal base. Oxy-nitrate of silver. Perp. to rhomb plates Nitrate of ammonia. of lime. of strontian, with water of crystallization. of copper. of zinc. of mercury. of bismuth. m r Nitrate of lead, certain specimens. Mr. Herschel, ham. Ph. Jour. vol. ii. p. 184. Muriate of mercury. of magnesia. Acetate of lead. Nitrate of potash. Arragonite. Octahedron with a Rectangular Base. Perp. to sides of base Perp. to sides of base of zinc. Carbonate of lead- Sulphate of lead. Topaz. Muriate of copper. Axis of octohedron. Axis of prism or per¬ pendicular to axis of octohedron. In plane of base of two pyramids. Axis octohedron. Long diagonal of rhomb, base. Axis of the octohe¬ dron. Perp. to sides of rect. base. Short diagonal of the rhomb, base. 8. Octohedron with a Rhombic Base. Sulphur, Hauy. Carbonate°of soda. Diagonal of base Axis of octohedron ^0> through o of Hauy, or other axis. PI. xxxix. 9. Minerals belonging' to the Prismatic System of Mohs, and having TWO axes, but not included in any of the above divisions of Hauy. Sulphate of magne- Cleavable diagonal of Perpendicular to axis, sia, Mohs. square base. or the other diagonal. Sulphate of manga- H0SC« • ii? Sulphate of zinc. Axis of rhomboidal Short diagonal of prism. Sulphate of ammonia. Axis of hexahed. prism. Sulphate of cobalt. _ . Carbonate of stron- Axis of prism. tian, do. ... Carbonate of barytes, Axis of prism, do. Diallage. Perp. to plates. Molybdate of am¬ monia. rhomboidal base. Perp to axis. Perp. to axis. Perp. to axis. Plane of plates. soda. barytes. Phosphate of soda- Oxalate of ammonia. Hyper-oxymuriate of potash. Super-oxalate of pot¬ ash. Super-chromate of potash. Crystallized Chelten¬ ham salts. Murio-sulphate of magnesia and iron. Benzoate of ammonia. Benzoic acid. Chromic acid. Spermaceti. Boracic acid. Succinic acid. Super-tartrate of pot¬ ash. Tartrate of potash and antimony. Camphor. Hydrate of barytes. Prussiate of potash. Mother-of-pearl. Carbonate of ammo¬ nia. Hyposulphite of lime. Perp. to broad sides of prism. In plane of hexag. plates. Axis of prism, or other axis. Perpendicular to hex¬ ag. plates. Perp.to axis of prism. Perpendic. to rhomb, plates. Axis of prism. Plane of axis in that diag. Axis of prism. Perp. to axis. Cleavable diagonal of Axis of prism, or its square base. other Perp. to laminte. 1° plane °‘ d®- Perp. to plates. In plane of plates. Perp. to plates. In plane of plates. Perp.to hexag.plates. 1° plane P a £s' Perp. to faces of flat In plane of these faces. prism- . . Perpendicular to axis Axis of prism, of prism. Perpendicular to axis of prism. Axis of prism. of ba¬ rytes. Perp. to flat plates. Perp. to rect-laminse. Perp. to laminae. Short diag. of rhomb, and perp. to best cleavage. Sir John Herschel, Edin. Phil. Jour. vol. i. p. 15. Sir John Herschel. In ane of plates. In plane of laminae. In plane of laminae. Axis of prism, <>r long diag" )1arisa- Sect. III.—On Crystals with three Axes of Double tion. Refraction. Having determined the primitive form to which those crys- i three tals belong which have one and two axes of double refraction , Sir David Brewster found that all those crystals which have no resultant axes, or, properly speaking, no double refrac¬ tion, belonged to that class of primitive forms which have three rectangular axes of form, namely, the cube, the regu^ lav octahedron*, and the rhomboidal dodecahedron, or to the tessular system of Mohs. Since, however, every real axis of double refraction, coincides with a prominent line in the primitive form of the crystal, he conceived that those crys¬ tals which had no apparent double refraction had actually three equal rectangular axes, the effect of which was to compensate each other at every point of the crystal, or, in other words, to have an infinite number of resultant axes. In confirmation of these views, our author found various* indications of positive and negative doubly refracting struc¬ tures in alum, diamond, &c., as if these equal axes had not exactly compensated each other, either from the three not being perfectly equal, or from their not being placed ac¬ curately at right angles to each other. The following is a list, which might be considerably ex- tended, of the primitive forms of the crystals that have no double refraction. Primitive form a cw^._Muriate of soda, muriate of potash, muriate of silver. Primitive form an octahedron.—fluor spar, muriate of ammonia, pleonaste, nitrate of lead, sulphate of alumina, soda, alum, ruby copper, spinelle, nitrate ofstron- tmn octahedral, nitrate of lead, nitrate of barytes, sulphate o ammonia and chromium, sulphate of ammonia and iron, sulphate of alumina and ammonia. Primitive form a rhomboidal dodecahedron.—Garnet, blende, sodahte, essonite, helvin, lazulite. There are some crystals, such as arseniate of iron, amphi- gene analcime,boracite, aplome,allof which have double re¬ traction, and therefore cannot belong to the tessular system. OPTICS. 461 Poli ,, tion or suffers total reflexion from the second surfaces of trans-Polarisa- parent bodies, or from the surface of metals ;—in all these tion- cases it has suffered such a change, that it no longer has the same properbes in all its sides, but, on the contrary, exhibits distinct and remarkable properties in its different sides, or, what is the same thing, has polarity. This beam of common light is therefore said to be polarised. The differ¬ ent kinds of polarisation which may thus be impressed up¬ on common light are three, v\z. plane polarisation, circu¬ lar polarisation, and elliptical polarisation ; or the whole of these three kinds of polarisation may be included in the general name of elliptical polarisation, which becomes cir- cu ar* when the two axes of the ellipsis are equal, and rcc- tilmeal or plane when the minor axis of the ellipse is in¬ finitely small. We shall now proceed to explain the phe¬ nomena of these three kinds of polarisation, in their order. CHAP. I ON PLANE POLARISATION. byWUch COmm°n 1«ht may be Plane po- 1. By double refraction. ‘nsation. 2. By one reflection from transparent bodies. 3. By several refractions through transparent surfaces, liy the absorption or dispersion of part of the light. hese various processes exhibit many interesting pheno¬ mena and laws, which we shall proceed to explain. Sect. I.. -On the Polarisation of Light by Double Refrac¬ tion. Sect. IV.—Orc Crystals with Planes of Double Refraction. ^ ^ the crystals to which we have hitherto referred, the double refractmn is related to one or more axes ; but n nk«lVindibTStei haS f°Und’ that in analcim^ a mineral ranked in the tessular system, there are several planes or tLn ?hp0fH heKlCrySt? m which there is no double refrac- f om tw d7ble refraCt‘on increasing with the distance from these planes, according to a law which will be after- S thSedntl°ned; r When the ^ is incident in any direc- 7 “at does not he in one of these planes, it is separated Tncc0 V 7CS 7 d°Ub,e refracti°n- This is the only sub¬ stance which is known to possess this remarkable property. PART VII. ON THE POLARISATION OE LIGHT. any seff hfm emit ed/ronr the SUn’ fr0m a candle’ or from oTrefra^T8 b°d£befbre ithas suffernd reflection from, allow a 7 hYc aUl 7dy’ 18 calIed com™on light. If we flectim? wT ° 77 ‘^bt t0 uPon any refracting or re- by anvdiff y’ .whedleJ transparent or metallic, or to pass changL 5wling.b0dy’ltwiI1 suffer Precisely the sLne side or anvhn7er 7, UPH’ itS Under’ its riSht or its left refracting Y fllerf-Slde °f bearn’ 18 turned towards the Ws thaTtb 7 g’7r diffracting body. Hence it fol¬ ks sides hlS beam °f Ight haS 1116 8ame Properties in all of conunon'V8) 7t f11 ligbt' d16 preceding beam parent bodi ? 18 reflected at a Particular angle, from trans- fractini snrf 0r paSSeS obli(l”ely through a number of re- g surfaces, or is transmitted through certain crystals, IrpTond P°IariSati0r °f Hgbt by the doubIe refraction ofPolarisa- Iceland spar was discovered by Huygens. Upon examin- tion by mg the two pencils O o, E e, fig. 118, formed double re- by double refraction, he found that they had bl£>* 1^0. fraction, different properties on different sides, and that both of them differed from common Ikdit as well as from one another. He discovered this difference in the following manner. Having taken two pieces of Iceland spar, he placed them symmetrically, as in fig. 130, with all the faces of the one parallel to all the faces of the other, A /• X, A' G X' being the principal sections of two rhombs. A ray of common light R r, incident upon the first crystal at r, is divided into two pencils r C, r D, O being the ordinary and E the extra¬ ordinary ray, as formerly explained. Now tv the ordinary ray D G , falling upon the second crystal "at G, and the extmordinury one CF at F, should have been each subdivided by douMe refraction, into two pencils, by that crystal; but they are not, the ordinary ray D G being only refracted ordinarily, and the extraordinary ray C F only extraordi¬ narily, as seen in the figure, where these rays F H, GK, emerge singly at H and K, the one an ordinary and the other an ex¬ traordinary ray. If the upper rhomb re¬ mains fixed while the under one is turned l. round 90o> so that its principal section is perpendicular to that of the upper one, as-C shown in fig. 131, the same phenomena will take place, with this difference only, that the ray D G refracted ordinarily by the first crystal, is refracted extraordinarily by the second, and the ray C F, refracted extraor- fto'Viriw* lit i _ _ 7. ' "v ~ icnacieu txiraor- ^ oe dmanly by the first crystal, is refracted ordinarily by the second. " Hence it is manifest, that the ray of common light R r, and the two doubly refracted pencils C F, D G, have all 462 OPTICS. Polarisa¬ tion. difFerent properties. For if R r were to fall upon the se¬ cond rhomb, it would be divided into two pencils ; whereas ' C F and D G refuse to be so divided, and are each refract¬ ed in difFerent ways by the second crystal. Now, in every other position of the four rhombs, between the two where their principal sections are parallel, or perpendicular to one another, the two pencils C I, D G are divided into two pencils, and four separate pencils emerge from the second rhomb. In order to understand the phenomena presented by thesepencils, when the second rhomb performs a com¬ plete revolution behind the first one, let us suppose that the lower rhomb begins to revolve from the position in fig. 129, which we shall call 0° of azimuth, and in which case we shall have two horizontal pencils H E, K O, fig. 131, whose Malus’s law of in tensity. sections1 are shown in the annexed figure at jgg. 0° 221° 45° G7i° 90° 1124° 135° »1571° B, opposite 0° ; A representing the appear-A ance of the aperture through the first rhomb. When the second rhomb has just begun toBO ° move out of its position of parallelism the © 0 first, two extremely faint images begin to ® appear between the other two; and at 22tt ^ © of azimuth they will appear as at C. At 45° © q of azimuth their intensity will be equal, as atE 0, ^ D ; at 671° the two most distant ones will G © have become the faintest; and at 90° the four images will be reduced to two, this being r © the position shown in fig. 130. By conti- © © nuing to turn the second rhomb, other two g © © fainUmages start up, which at 1121° appear ^ & as at G ; at 135° the four images are equally h © © bright, as at H; at 157i° the two outermost ^ are the faintest; and at 180° they all coalesce x©© into one bright image, as at K, having twuce the brightness of either of those at A or F, K ® and four times the brightness of any one of the four at D or H. . , In making the preceding experiment, it will be seen that ' two of the images gradually increase in brightness, while other two gradually diminish. Malus investigated the law of the intensity for these images, both when the pencil of com¬ mon light is incident perpendicularly and obliquely. Our limits will permit us to give only the simplest case, making o — ray refracted ordinarily by the first rhomb. e = the ray refracted extraordinarily by the first rhomb. / o o — the ray refracted ordinarily by the first rhomb, and ordinarily by the second. oe~ the ray refracted ordinarily by the first rhomb, and extraordinarily by the second, ee — the ray refracted extraordinarily by the first rhomb, and extraordinarily by the second, eo — the ray refracted extraordinarily by the first rhomb, and ordinarily by the second. Q — the quantity of light contained in the incident ray. (1 — m) Q — the quantity of light absorbed by the first rhomb. P = the intensity of any of the pencils. P0 — the intensity of the ordinary emergent ray. Pe — the intensity of the extraordinary emergent ray. Then, since the quantity of light contained in the two emergent rays is equal to the incident light diminished by the quantity absorbed, we shall have Q— (1 — w) Q= Q; and since the light is equally divided between the two pencils, we obtain P0 “ m Q, and Pe — ^ w Q,. But the quantity of light m Q which falls upon the second rhomb will be reduced by absorption to mQ — (1 — m) m Q = m2 Q; consequently, if a is the angle formed by the principal sections of the two rhombs, we shall have First pencil, P00 (wi2 Q cos.2 a). Third pencil, Pee “ | (™2 Q cos.2 a). Second pencil, Poe ^ <>2 Q sin.2 a). Fourth pencil, Peo 2= ^ (>2 Q,sin.2a). When the principal sections of the two rhombs are pa¬ rallel, then a = 0, and sin.2 a 2= 0, consequently Poe - 0, and Peo = 0 ; that is, the third and fourth pencils will dis¬ appear. When, on the contrary, the principal sections are at right angles to one another, a ” 90 , and cos. a ™ 0, con¬ sequently P00 = 0, and Pee = 0 ; that is, the first and second pencils will disappear. When the incident ray is not perpendicular to the sur¬ face of the first rhomb, the intensities of the pencils are functions of the angles of incidence and the angle which the ray forms with the principal sections. All the phenomena above described may be produced by combining any two positive and any two negative crystals; but if a positive is combined with a negative crystal, the same effects will be produced when the principal sections are at right angles to each other, as when they are pa¬ rallel in the other cases. The difference between common and polarised light, as evinced by the phenomena of double refraction, is, that the former may always be divided into two pencils by a doubly- refracting crystal, whereas the latter is not capable ofbeing so divided under certain circumstances. As the four polarised pencils, when united, as at K, fig. 132, produce a pencil of common light, or rather a pencil which cannot be distinguished from common light, itis high¬ ly probable that the Iceland spar, in converting common into po larised light, by refracting it into two pencils, has not com¬ municated to it any new property, but has merely sepa¬ rated it into its two elements, just as a prism separates a pen¬ cil of white light into its seven elementary colours by re¬ fraction, these colours again forming white light by their reunion. Polar. tio; "Y Sect. II.— On the Polarisation of Light by Reflection. pok k a tion re- We have already stated, in the history of Optics, theflect- manner in which the celebrated French philosopher Malus discovered the polarisation of light by reflection. Upon repeating his experiments with a variety of opaque and transparent bodies, not metallic, such as glass, water, &c. he found that, when light was reflected at a particular angle from such bodies, it teas polarised exactly like one of the pencils formed by double refraction, the pencil polarised by reflec¬ tion having all its properties identically the same with that of the doubly-refracting crystal. Like the latter, it was no longer capable of being divided into two pencils by a rhomb of Iceland spar ; and as, in the polarisation of light by the double refraction of one crystal, that property depends on the angle formed between the principal sections of the two crystals, as shown in figs. 130 and 131, so, in the pre¬ sent case, the polarisation depends on the angle formed be¬ tween the plane of reflection and that of the principal sec¬ tion of the crystal which polarises the light. In all sue phenomena, indeed, as Malus remarks, t\\Q plane of rejiec tion replaces the plane of the principal section of the crys¬ tal. If we receive the ray polarised by reflection from water at an angle of 52° 45', upon any crystal having double re¬ ar an angle oi - o , , p fraction, it will not be divided into two pencils when the p r* r* . • • 1 1 4-l-» rv/"*! flS II of reflection is parallel to the principal section, as 1111 , been a pencil of common light; but wlil.Je refraCte, entirely, according to the ordinary law, as if t ie y had lost the power of double refraction. If, on the o If we place a circular aperture, the size of the little dark circles in fig. 132, at r, the images will have that form. OPTICS. jisa* hand, the principal section of the crystal is perpendicular on. to the plane of reflection, the reflected ray will be refract- ed wholly, according to the law of extraordinary refrac¬ tion. In all intermediate positions it will be divided into two rays, according to the same law, and in the same pro¬ portions, as if it had acquired its new character by the in¬ fluence of double refraction. In order to analyse this phenomenon completely, he placed the principal section of a crystal vertically; and after having divided a ray into two by it, he made these two rays fall on the surface of water, at an angle of 52° 45'. The or¬ dinary ray was partially reflected, like common light, but the extraordinary ray penetrated the ivater wholly, and not a single particle of it was reflected. When the principal section of the crystal was, on the contrary, perpendi¬ cular to the plane of incidence, the extraordinary ray was partially reflected, and the ordinary ray was wholly re¬ fracted. Malus found the phenomena to be the same for all other transparent bodies, whether solid or fluid; but the angle at which light experienced this modification wtis in ge¬ neral greater in bodies which refracted light most. Below and above this limit the rays were more or less modi¬ fied. This property of reflected light takes place at a different angle for pencils reflected at the second surfaces of bodies, and the sine of the angle at the first surface is to the sine of the angle at the second, as the sine of incidence is to the sine of refraction. Hence, in parallel plates, either of glass or other bodies, the two pencils which are reflected in the same directions from both surfaces have equally re¬ ceived this new property, and the light which has received it is said to have been polarised by reflection^ M. Malus found the same property in black bodies, such as black marble, ebony, &c.2 Malus next proceeded to study the phenomena when the light R, polarised by one plate of glass A, was reflect¬ ed from a second plate C, fig. 133, the . ray RA being in¬ cident on the first plate, and the pola¬ rised ray AC on the second plate at an angle of 56°, the polarising angle of glass. In the case 463 shown in the figure, the plane of reflection ACE, in the plate C, is at right angles to the plane of reflection RAC rom the first plate, and in this case the reflected pencil l/E wholly vanished, all the reflected and polarised light AC having penetrated the glass at C. If we now turn round the plate C from this point, or zero, into different azi¬ muths, so that it is always equally inclined to the polarised ray, a small portion of the ray AC will be reflected from > and this portion will increase till it becomes a maximum, f Qnolle plane A.CE.is Parallel to RAC, or in the azimuth 0t pu continuing to *urn the plate C, the reflected ray CE will gradually diminish, and when C has reached e azimuth of 180° its plane of reflection will be perpen- mcular to that of A, and the reflected ray CE will wholly disappear. In advancing from 180° to 270°, CE will again reach its maximum, and at 360°, when it has returned to J Posltion, as in the figure, it will again return to its mi¬ nimum. While the reflected pencil CE passes from its minimum Polarisa- intensity at 0° and 180°, to its maximum at 90° and 270°, tion. Malus supposes the intensity to vary as the square of the ' cosine of the angle of azimuth, or of any even power of the cosine. Calling a the angle of azimuth which the plane of the second reflection makes with a plane perpendicular to RAC, I the maximum intensity of the reflected pencil, and P the intensity corresponding to any azimuth a, then P = I cos.2 a. If we make a equal to 0°, 90°, 180°, and 270°, we shall have, when a — 0°, cos. a = 1, cos.2 a — 1, cos.4 a = 1, and consequently P=I, or the reflected pen¬ cil is a maximum. When a = 90°, cos. a = 0, cos.2 a = 0 cos.4 a ~ 0, and F = 0, that is, the reflected pencil wholly disappears. It is obvious, from the arrangement of glasses in fig. 132, that, if the light R proceeds from the sky, an observer with his eye placed at E will see a black spot in the part of the sky from which the light R comes, as the whole of the light penetrates the plate C. If the light R comes from a house, the house will disappear if it is at a considerable distance; and by turning round C, the house will have its greatest brightness when the two planes of reflection are parallel. If, in the position when the house was invisible, we breathe upon the plate C, the house will suddenly be¬ come visible, and will again disappear when the breath has evaporated. If we now place the plate C at an angle of 52° 45' to the ray AC, the house will be seen; but if we again breathe upon CC, the house will disappear. The cause of these phenomena is, that by breathing upon C we make the reflecting surface an aqueous one, which refuses to reflect light at an angle of 52° 45', but reflects it at 56°. If we place beside each other two sets of reflectors ar¬ ranged in the manner shown in the figure, C being in¬ clined in the one set 56° to A, and in the other set 52° 45', and the plates C, C being near each other, we may, by breathing upon each at the same time, exhibit the para¬ doxical phenomenon of reviving and extinguishing a lu¬ minous image by the same breath, or we may appear to breathe at the same time light and darkness.3 1. On the Law of the Polarisation of Light by Reflection. After determining the angle at which different bodies r f polarised light, Malus concluded that “ this angle followed iariLtion°' neither the order of refractive powers nor that of the dis- by reflec- persive forces, and that it was a property of bodies inde-tion. pendent of the other modes of action, which they exercised over light.4 In repeating the experiments of Malus, Sir David Brews- Law of the ter measured the polarising angles of a greater number of tangents. S bodies, but experienced many difficulties in connecting ° them together by a simple law. In some substances the light was not completely polarised at any angle. In others purple and blue light was left at the polarising angles ; and in various specimens of glass, different parts of the same surface gave different polarising angles. The first of these phenomena he ascribed to the circumstance that the dif¬ ferently coloured rays of white light were polarised at dif¬ ferent angles; and the second he found to arise from changes that had taken place on the surfaces of glass by partial decomposition, owing to the action of the atmo¬ sphere. By rejecting those substances where the action of the surface was thus masked or disturbed, he was led to the following general law, that the index of refraction of any body is the tangent of its angle of polarisation. a Vf.orie de to Double Refraction, sect. 48. _ a Ibid. sect. 50. tural Magic ^p1"* 12s*11 WaS ^escr^e^ Sir David Brewster, In the Edin. Phil. Journal, vol. vii. p. 140. See also his Letters on Na- Bnll. de Sciences de la Soc. Philos. Juin 1811, No. 45, tom. ii. p. 294 464 OPTICS. The following were the experiments on which this law was founded:— Names of the Observed Polaris- Calculated Polaris- Bodies. ing Angles. ing Angles. Air 45° or 47° 45° O' 32" Water 52 Fluor spar 54 Obsidian 56 Sulphate of lime 56 Rock crystal 57 Sulphate of barytes 58 Opal-coloured glass 58 Topaz 58 Mother-of-pearl 58 Iceland spar 58 Orange-coloured glass...59 Spinelle ruby 50 Zircon 63 Glass of antimony 64 Sulphur... 64 Diamond 68 Chromate of lead 67 591 53 11 50 55 9 3 56 6 28 56 45 22 56 58 29 58 33 1 58 33 40 58 34 47 58 50 23 58 51 12 59 28 6 60 25 8 63 0 45 64 30 10 63 45 2 68 1 42 68 3 j. ^ fX Polarising Angles. ^°!a; * Names of the Bodies. Refrac- 6 6 tic tion. Observed. Calculated. Fluor spar, colourless 1-4341...55° 6'-7...550 6'-7 greenish blue 1-4343...55 3-8...55 7*0 Common opal..... 1-4516...55 29 -3...55 26 -3 Plate-glass, English, colour- | J.5J30...56 36 -0...56 32 -2 less.•••••••••••••••••••••••••• J - colourless 1-5266...56 45 -5...56 46-4 Crown-glass, English 1-5321...56 50 -2...5b 52-0 ! ditto 1-5523...57 12 -6...57 12-6 Flint-glass, English 1-5783...57 41 -0...57 38-5 1 ditto 1-6206...58 16-6...58 19-4 Pyrope 1-8131...61 4-0...61 7-7 Yellow blende 2-3692...67 8-2...67 7-0 Upon repeating these experiments with homogeneous light, our author also found that the angle of polarisation varied with the refrangibility of the light, and that the tangent of the polarising angle was equal to the index ox refraction of the light employed. Hence we are able to explain why, at the maximum po- .g ^ ^ ^ th ~ index of larising angle, a portion ot unpolarised light must always H we h b the remain, and why this portion increases with the refractive ’ and dispersive power of the body. This will be understood jaw 0p^be sines, CL = .= Upon examining the polarising angles of different spe¬ cimens of glass at different periods, after the surfaces were polished, Dr. Seebeck confirmed the explanation given by Sir David Brewster, of the variations in their polarising angles.2 When a 'pencil of light is polarised by reflection, the sum of the angles of incidence and refraction is a right angle. Let MN, fig. 134, be the reflecting surface, and BA aray of light polarised by reflec¬ tion in the direction AD, and let AC be the refracted ray. Then, since EF, the tangent of the polarising angle BAE, Fig. 134. from the following table :— Water. Colour of the Light. Polarising Angle. .53° 4 Index of Refraction. 1-330 Red 1-336 Green, or mean ray 53 11 1-342 Violet 53 19 Plate Glass. 1.515 Red 56 34 1-525 Green 56 45 1-535 Violet 56 55 Oil of Cassia. 1-597 Red 57 57 1-642 Green 58 39 1-687 Violet 59 21 Variation. BG EF* But from the similar tri- angles ABH, AEF, we have AH, or BG: HB :: EF : rad., BG ...0° 15' and HB = consequently CL = HB, and the an- huh .0 21 1 24 gle BAN = CAK. But EAB + BAN = 90°, consequent¬ ly EAB + CAK -= 90°. Hence the complement of the polarising angle is equal to the angle of refraction. When a ray of light is polarised by reflection, the reflected ray forms a right angle with the refracted ray. Since the angles DAM, BAN, CAK, are equal to one another, the angle DAC is equal to the right angle MAK; hence the reflected ray AD forms a right angle with the refracted ray AC. _ . When a pencil of light is incident on the second surface Now itisobvious, that when the green or mean, or most of transparent bodies, at an angle whose . .,,1 nm] thprpfnrp vanishes neither to the index of refraction, the reflected portion will be eimer mnous ray, is polarised, and therefore vanishes, Mfy polarised, or the quantity of polarised light whchd luminous ray, is polarised the red nor the violet has wholly vanished, and conse- quently a portion of unpolarised light, composed of a por¬ tion of these two colours, will still be visible. In oil of cassia the quantity of light is considerable, and is of a fine blue colour. Dr. A. See- So recently as 1830, Dr. A. Seebeck of Berlin has pub- beck’s ex- fished a series of very accurate and valuable experiments periments. macle by an instrument constructed for the purpose, which, contains will be a maximum. As the images formed by the first and second surfaces of a transparent plate are simultaneously polarised, this proposition is established by the experimental results in the preceding table. The angle of polarisation at the second surface oj trans¬ parent bodies is the complement of the angle of polarisation if any doubts had existed about the accuracy of the pre- at the first surface. cedin- law, were sufficient to remove them. Dr. Seebeck’s As the angle ot incidence a the second surfacy® eq™ ceamg iaw, wee nppliratp to the ande of refraction at the first surface, and as this principal object seems to have been to obtain accurate to the angle ot retraction ai u.e nrsc su^c, measures of the polarising angle of different glasses, when latter angle is equal to the complement of the ayle ° P measures oi me pu u ^ S ^ iariSation, it follows that the two polarising angles are com- the surfaces were newly polished, in order to reconcile the law to that class of bodies in which the deviations had plementary to each other. ^ f m fa been found to arise from some chemical or mechanical When a ray of light is polarised by reflec ' ^ changes produced upon their surface. The following table second surface of transparent^ bfldies,the refle y contains Dr. Seebeck’s experiments : form a right angle with the refracted ray. i Mean of four observations by Mains, Biot, Arago, and Brewster. * See Poggendorf’s Annalen, 1830, No. 9, p. 27 ; or Edin. Journ. of Science, N. b. vol. v. p. 99- OPTICS. 465 Tart pi a. Let AB, fig. 135, be a ray incident at the first surface tj ]yiN, AD the ray polarised at that Fig. 135. ^ '^surface, AC the ray incident at the second surface PQ, and CM the ray polarised at that surface; then, if CF be the refracted ray, the an¬ gle MCF is a right angle. But DAC is a right angle, and on account of the parallelism of MN, PC, and BA, CF, the angle FCP is equal to DAM ; but MCP is eqyal to MAC, hence the whole MCF is equal to the whole DAC, or a right angle. Cor. 1. The ray CM, reflected by the second surface, is at right angles to the ray AB incident on the first surface. Cor. 2. The internal reflected ray CM forms with the external reflected ray AD, an angle equal to the angle of deviation CAO. Cor. 3. The ray CF, emerging from the second surface, forms, with the first reflected ray AD, an angle equal to the complement of the angle of deviation. When a •pencil of light is incident upon the separating surface of two media having different indices of ref raction m, m', it will he polarised at an angle whose tangent is equal to the quotient of the greater index of ref raction divid¬ ed by the lesser, or if m exceeds m'. This truth is a necessary consequence of the general law, and was also deduced from direct experiment. If the uppermost of the two media is a parallel plate, such as water lying upon a horizontal surface, &c. the separating surface of the two media cannot, at any angle of inci¬ dence upon the first surface, completely polarise the in¬ cident light, unless the sine of the angle whose tangent is is, when multiplied by m, less than unity. Thus, in the case of water and glass, the polarising angle is 68° 47', but no ray incident upon the water, even at 90°, can fall at such an oblique incidence upon the glass as 48° 47'. For sin. 48° 47' X m' (or the angle of refraction at an incidence of 90°), is = 1-0048. When the upper medium has a higher refractive power than the lower, and lies in a parallel plate upon it, the same law is applicable, with this difference, that the ray is now polarised at the second surface of the denser medium, and the angle of polarisa¬ tion is that whose cotangent is equal to the index of refraction —, of the separating surfaces. In the preceding observations, we have considered only the light which is incident at the polarising angle. It becomes interesting to inquire, what is the condition of the light which is incident at angles above and below the polarising angle. Malus, Arago, Biot, Fresnel, and other distinguished philosophers, considered the light thus re¬ flected as consisting of two pencils, one of which pre¬ served its state of common light, while the other pencil ^as polarised in the plane of incidence. In the year 815, however, Sir David Brewster was led, by direct ex¬ periments, to a very different opinion, namely, that the pencil of light which was supposed to have preserved its c laracter of common light had suffered a physical change m condition, or had acquired in various degrees a cha¬ ncier approaching to complete polarisation. He found, or example, that a pencil of light reflected from glass, 61 er at 62° SO' or 50° 20', was so far polarised, that it "!as wllolIy polarised by a second reflection at either of ese angles; whereas, had the unpolarised part been atI!In°n light? it could not have been polarised at any g e but 56° 45'. In like manner, he found that three reflections at 65° 33'or 46° 30', and/o^r at 67° 33'or Polarisa- 43° 51', polarised the whole pencil; and in general he tion. found that a ray of light partly polarised by reflection at ^ Y any angle, will he more and more polarised hy every suc¬ cessive reflection in the same plane till its polarisation is complete, whether the reflections are made at angles all above or all below the polarising angle. These views were not acceded to by philosophers, though founded on direct experiment; and, so late as 1825, Sir John Herschel, in discussing the question, gives his de¬ cision in favour of the opinion held by the French philo¬ sophers.1 Sir David Brewster was therefore induced to repeat and extend his experiments, and succeeded in es¬ tablishing his original view of the subject on an impreg¬ nable basis. A brief account of these experiments will form the subject of the next section. 2. On the Motion of the Plane of Polarisation by Reflec¬ tion. MM. Fresnel and Arago, and Sir David Brewster, were Motion of engaged about the same time in inquiries upon this sub- the plane ject. If we suppose a pencil of polarised light polarised ^ Polarisa- in a plane inclined 45° to a vertical line, and if we reflecttion* it at different angles from a transparent surface in which the plane of reflection is perpendicular to the horizon, the plane of polarisation will be gradually reduced from 45° to 40°, 35°, 30°, 25°, &c. as we diminish the angle of in¬ cidence from 90° till we reach the polarising angle, when the plane of polarisation will be inclined 0°, or will be brought into the plane of reflection. At angles less than the polarising angle the plane continues to turn in the same direction, till at 0° it is again inclined 45° to a ver¬ tical plane, or to the plane of reflection, having performed a revolution of 90°, the first 45° during the change of in¬ cidence from 90° to 56° 45', and the other 45° from 56° 45' to 0°. M. Fresnel represented these changes by the following law : i being the angle of incidence, i! the angle of refrac¬ tion, x the primitive inclination of the plane of the polar¬ ised ray to the plane of reflection, and p the inclination to which that plane is brought by reflection. rr, cos. (i 4- *') Ian. tan. x ^—-—(. cos («—«') When x — 45°, tan. x z= 1, and cos. (i 4- i') tan.

70 25 20 24 48 + 0 32 80 36 20 35 49 +0 21 85 40 50 40 32 + 0 18 The following observations were made by Sir David Brewster on glass. Glass. the planes of polarisation, at an incidence of 45°, the angle ] of rotation, when the plane of the polarised ray is 45°, on. is equal to the angle of refraction, while the new inclina-^ ' tion of the plane of polarisation to the plane of reflection, or £>, is equal to the deviation i — i'. These phenomena may be represented to the eye as in fig. 136, where MN represents the plane of incidence di¬ vided into ninety equal parts, and ab, ab, ab the planes of Fig. 136. 90°. 88 . 86 . 84 . 80 . 75 , 70 .45° 0' 45° 0' 0° 0' .43 4 42 49 +0 35 .40 43 40 36 +° 7 .38 47 38 22 +0 25 .33 13 33 46 —0 33 .28 45 27 41 + 1 4 .22 6 21 3 + 1 3 65 14 40 13 53 +0 47 60 56 50 45 40 . 6 10 6 16 —0 6 . 0 0 0 0 0 0 . 9 0 9 0 0 0 .16 55 16 31 +0 24 .22 37 23 1 —0 24 30 32 25 33 19 —0 54 20 10 .39 .44 0 40 4 —1 4 0 43 49 +0 11 90° 85 80 75 70 67 60 50 O'. 0 , 0 0 0 43 0 0 .45° .34 .24 .14 . 4 . 0 .12 .24 0' 30 0 30 30 0 30 0 Diamond. ...45° ...33 ...23 ...13 ... 3 .... 0 ,...11 ....23 O'. 56 . 12 . 8 . 54 . 0 . 41 . 30 . . 0° -f-O + 0 + 1 + 0 , 0 +o 4-0 0' 34 48 22 36 0 49 30 polarisation of the same pencil of light incident at the an¬ gles marked upon the curve line. At 90° of incidence, for example, the pencil A has its plane of polarisation inclined 45° to the plane of reflection M; but at 70° the same plane is inclined only 21°, and at 56° it is inclined 0°. At 40° it is inclined 23° in another direction ; at 23° about 38°, and at 0° it is inclined 45°. Our author also made another series of experiments, which confirms the general formula. As a? = 45° in the preceding experiments, he wished to observe the law of variation for (p when x varied from 0° to 90°. He took a crystal of quartz with a fine natural face parallel to the axis, and he found, that at an angle of incidence of 75°, and when x was = 45°, the inclination of the plane of po¬ larisation to the plane of reflection was 26° 20'. We have therefore cos- ^ ?) — tan. 26° 20', and consequently cos. (i—i') the general formula becomes tan. p — tan. x. tan. 26 20', by which the third column in the foliowing table has been calculated. Inclination of Plane of Polarisation. Observed. Calculated. V alues of x. 0... 10... 20... 30.. . 35.. 40.. 45.. 50.. Difference. . 0° . 4 .10 .15 .20 .23 .26 .30 O'. 54.. 0. 50. 0. 0° 0' .4- 0 25 .—0 16 .—0 12 0° O'... 4 29... 10 16... 16 2... 19 12 4-0 48 30 22 40 4- 0 50 20 26 27 — 0 7 0 30 40 — 0 40 55 35 30 35 23... 60 40 0 40 45... 70 53 0 53 49... 80 70 0 70 29... 90 90 0 90 0... It is a curious circumstance, that at an incidence of 45° the deviation produced by refraction, or i — i\ is, in every substance, the complement of the angle of refraction i' to 45° : and in the action of all substances in turning round 4-0 7 .—0 45 .— 0 49 .—0 29 0 0 3. On the partial Polarisation of Light, and the Law of its Intensity. In order to apply these results, Sir David Brewster con¬ ceives common light to be composed of two pencils A, B, fig. 136, having their planes of polarisation ab, cd at right angles to each other, and of equal intensity. Two such pencils united comports itself under all circumstances ex¬ actly like common light. We are as much entitled to con¬ sider a beam of common light as composed in this manner, as we are to regard white light as composed of seven differ¬ ently refrangible rays. The prism analyses the one, and doubly-refracting crystals, and the action of transparent surfaces, analyse the other, and common light is recom¬ posed by the two oppositely polarised pencils, as much as white light is recomposed by the union of the seven co¬ loured rays. Considering common light in this manner, Sir David Brewster was led to obtain a complete explana¬ tion of the phenomena of polarisation produced by re¬ flexion and refraction. „ A beam of common light will be represented as at An, composed of the two beams A, B, ab and cd being the planes of polarisation A of each of them. In or- N der, however, to analyse f J the action of a reflecting surface in changing the shall physical condition of the beam of common llght» ^i tj n represent it as in fig. 136, where the planeso P° ab, cd are each inclined 45° to the plane of in^de“cT® \:nd These two beams are obtained from,a rllornb „prture 0f spar, upon one of whose surfaces is placed an ap ,L size of A or B, and the rhomb is turned round till IB the size ot A or a, ana me ruumu — widence principal section is inclined 45° to the plane o OPTICS. 467 MN. In this position the double beam or pencil A, B will turn its planes of polarisation as in fig 136. At an incidence of 90°, or as near it as possible, no change is produced in the pencils A, B, the angle aec being still 90°. At an incidence of 80° the angle aec is reduced from* 90° to 66®; at 70° it has been reduced to 40°; and at 56°, the maximum polarising angle, it has been reduced to 0°, or the planes of polarization ab, cd being now parallel, or, what is the same thing, the whole of the reflected pencil being polarised in the plane of incidence. Below the polarising angle, the planes ab, cd continuing to turn in the same direction, are again inclined to each other. At 40° they are inclined 50° ; at 23° they are inclined 38° ; and at 0°, ora perpendicular incidence, they are again brought back to their primitive inclination of 90°, or the state of common light. The two curves in the figure show the progressive change which takes place in the planes of po¬ larisation, these planes being a tangent to the curve at the incidence which corresponds to any particular part of it. “ Such,” says Sir David Brewster,1 “ being the action of the reflecting forces upon A and B taken separately, let us now consider them as superposed and forming na¬ tural light. At 90° and 0° of incidence, the reflecting force produces no change in the inclination of their axes or planes of polarisation ; but at 56° in the case of glass, and 67° 43' in the case of diamond, the axes of all the particles are brought into a state of parallelism with the plane of reflection; and consequently when the image which they form is viewed by the rhomb of calcareous spar, they will all pass into the ordinary image, and thus prove that they are wholly polarised in the plane of reflection. “ Hence we see that the total polarisation of the reflect¬ ed pencil at an angle whose tangent is the index of refrac¬ tion, is effected by turning round the planes of polarisa¬ tion of one half of the light from right to left, and of the other half from left to right, each through an angle of 45°. Let us now consider what takes place at those angles where the pencil is only partially polarised. At 80°, for example, the angle of the planes a b, c d h 66°, that is, each plane of polarisation has been turned round in oppo¬ site directions from an inclination of 45° to one of 33° with the plane of reflection. The light has therefore suf¬ fered a physical change of a very marked kind, constitut¬ ing now neither natural nor polarised light. It is not na¬ tural light, because its planes of polarisation are not rect¬ angular ; it is not polarised light, because they are not pa¬ rallel. It is a pencil of light having the physical character of one half of its rays being polarised at an angle of 66° to the other half. It will now be asked how a pencil thus characterised can exhibit the properties of a partially po¬ larised pencil, that is, of a pencil part of whose light is polarised in the plane of reflection, while the rest retains its condition of natural light. This will be understood by placing the analysing rhomb, with its principal section, in the plane of reflection, and viewing through it the images A and B at 80° of incidence. As the axis of A is inclin¬ ed 33® to MN or the section of the rhomb, the ordinary image of it will be much brighter than the extraordinary image, the intensity of each being in the ratio of cos.2 p to sin.2 p, p being the angle of inclination, or 33°, in the pre¬ sent case. In like manner, the ordinary image of B will he m the same ratio brighter than its extraordinary image, t lat is, by considering A and B in a state of superposition, qao e^traordinary image of a pencil of light reflected at ^will be fainter than the ordinary image in the ratio of sin. 33° to cos.2 33°. But this inequality in the inten- s,ty tf*6 two pencils is precisely what would be produ¬ ced by a compound pencil, part of which is polarised in 'e plane of reflection, and part of which is common light. When Malus, therefore, and his successors analysed the Polarisa- pencil reflected at 80°, they could not do otherwise than ti°n- conclude that it was partially polarised, consisting partly of light polarised in the plane of reflection, and partly of natural light. The action of successive reflections, how¬ ever, afforded a more precise means of analysis, in so far as it proved that the portion of what was deemed natural light had in reality suffered a physical change, which ap¬ proximated it to the state of polarised light; and we now see that the portion of what was called polarised light was only what may be called apparently polarised ; for though it disappears, like polarised light, from the extraordinary image of the analysing prism, yet there is not a single par¬ ticle of it polarised in the plane of reflection. “ These results lead to conclusions of general importance. The quantity of light which disappears from the extraor¬ dinary image, is obviously the quantity of light which is really or apparently polarised at a given angle of incidence; and if we admit the truth of the law of repartition dis¬ covered by Malus, and represented by Poo = Po cos.2 p, and Poe = Po sin.2 p, and as we can determine

+ cos.2 © = 1," r cos/p r “ we have the quotient and the sum of the quantities sin.2

2 sin.2(* + i')^’ ~ ‘ tan.2(i + i') sin.2* •> tan. * N . oy V cos. (i — *')/ 'N cos. (i + i') \2 ) ' . * 77 yr 1 y cos. (I — v)/ +( tan « This formula is equally applicable to a single pencil of polarised light of the same intensity as the pencil of par¬ tially polarised light. In all these cases it expresses the quantity of light really or apparently polarised in the plane of reflection. «in order to show the quantity of light polarised at dif¬ ferent angles of incidence, I have computed the following table for common light, and suited to glass in which m = 1-525. “ As the preceding formula is deduced from princi¬ ples which have been either established by experiment or confirmed by it, it may be expected to harmonize with the results of observation. At all the limits where the pencil is either wholly polarised or not polarised at all, it of course corresponds with experiment; but though, in so far as I know, there have been no absolute measures taken of the quantity of polarised light at different inci¬ dences, yet we are fortunately in possession of a set of ex¬ periments by M. Arago, who has ascertained the angles above and below the polarising angle at which glass and water polarise the same proportion of light. In no case has he measured the absolute quantity of the polarised rays: but the comparison of the values of Q at those angles at which he found them in equal proportions, will afford a test of the accuracy of the formula. This com¬ parison is shown in the following table, in which column 1 contains the angles at which the reflecting surface polar¬ ises equal proportions of light; column 2 the values of p, or the inclination of the planes of polarisation; and co¬ lumn 3 the intensities of the polarised light computed from the formula. , Inclination of Planes Proportion of of Polarisation to MN, Polarised Light, or never can become equal to 0°; that is, that the pencil cannot be so completely polarised by any number of re¬ flections at angles different from the polarising angle, as it is by a single reflection at the polarising angle ; but we shall see that the polarisation is sensibly complete, in con¬ sequence of the near approximation of 6 to 0°. “ I found, for example, that light was polarised by two reflections from glass at an angle of 61° 3', and 60° 28' by another observation. Now, in these cases, we have 6 after 1st 0 after 2d ^mity of Reflection. Reflection. UnTPol™d Light. two reflections at 61° 3'...6° 45' 0° 47 0-00037 60 28....5 38 0 33 0-00018 The quantity of unpolarised light is here so small as to be quite unappreciable with ordinary lights. “ In like manner, I found that light was completely polarised by five reflections at 70°. Hence, by the for¬ mula, we have Values of 6. Unpolarisecl Light. 1 reflection at 70o...20o O' 0-23392 2 7 32 0-03432 3 2 45 0-00460 4 1 0 0-00060 3 0 22 0-00008 The quantity of unpolarised light is here also unapprecia- Polarisa- ble after the fifth reflection. H011- In another experiment it was found that light was whol- ly polarised by the separating surface of glass and water at the following angles : Values of 6. Unpolarised Light. By 2 reflections at 44° 51'...0°56' 0-0005 By 3 42 27....0 26 0-0001 “ In all these cases the successive reflections were made at the same angle; but the formula is equally applicable to reflections at different angles,— “ 1. When both the angles are greater than the polaris¬ ing angle,— . Unpolarised Light. 1 reflection at 58* 2', and 1 at 67° 2'...0° 34' 0-0002 “ 2. When one of the angles is above and the other below the polarising angle,— . Unpolarised Light. 1 reflection at 53°, and 1 at 58° 2'...0° 12'....0-000024 This experiment requires a very intense light; for I find in my journal that the light of a candle is polarised at 53° and 78°. “In reflections at different angles, the formula becomes cos. (js + *') cos. (I I') , .. . tan. = X Tp--,- I and * being the an- cos. («— «') cos. (1 + I') ° gles of incidence. In like manner, if a, b, c, d, e, &c. are the values of p or 0 for each reflection, or rather for each angle of incidence, we shall have the final angle, or tan. 6 = tan. a x tan. b x tan. c x tan. d, &c. “ It is scarcely necessary to inform the reader, that when a pencil of light reflected at 58° 2' is said to be polarized by another reflection at 67° 2', it only means, that this is the angle at which complete polarisation takes place in diminishing the angle gradually from 90° to 67° 2', and that even this angle of 67° 2' will vary with the intensity of the original pencil, with the opening of the pupil, and with the sensibility of the retina. But when it shall be determined experimentally at what value of p, or rather at what value of Q, the light entirely disappears from the extraordinary image, we shall be able, by inverting the formula, to ascertain the exact number of reflections by which a given pencil of light shall be wholly polarised. “ As the value of Q depends on the relation of i and *', that is, on the index of refraction, and as this index varies for the different colours of the spectrum, it is obvious that Q will have different values for these different colours. The consequence of this must be, that in bodies of high dispersive powers, the unpolarised light which remains in the extraordinary image, and also the light which forms the ordinary image, must be coloured at all incidences ; the colours being most distinct near the maximum polar¬ ising angle. This necessary result of the formula was found to be experimentally true in oil of cassia, and va¬ rious highly dispersive bodies. In realgar, for example, p is 0 at an angle of 69° 0' for blue light, at 68° 37' for green light, and at 66° 49' for red light. Hence there can be no angle of complete polarisation for white light, which was also found to be the case by experiment; and as Q must at different angles of incidence have different values for the different rays, the unpolarised light must be com¬ posed of a certain portion of each different colour, which may be easily determined by the formula. “ Such are the laws which regulate the polarisation of s Hence we have assumed m = L428, the tangent of 55°, in the preceding calculations. s -p,1.. 0 V10US that the rule can only be true when m = LOGO; so that its error increases with the refractive power. ,rhil. Trans. 1830, p. 80. 470 OPTICS. Polarisa- light by reflection from the first surfaces of bodies that are tion> not metallic. The very same laws are applicable to their second surfaces, provided that the incident light has not suffered previous or subsequent refraction from the first surface. The sine of the angle at which p or Q has a certain value by reflection from the second surface, is to the sine of the angle at which they have the same value at the first surface, as unity is to the index of retraction. Hence

and cot.

cot.

— 58° 40' when x = 45°. results. Inclination observed. .. 0° 0'.... .. 7 10..., .. 9 40 ... ..17 10... 15 24 42 ... 20 32 30 ... 25 39 15... 30 44 10 43 57 35 49 38 49 28 40 54 36 54 31 OPTICS. The following were the “ In all these cases the formula expresses the quantity of l|^| 5 10 Inclination calculated. ... 0° 0'., ... 7 ... 8 ...16 ...24 ...31 ...37 20 19 25 Difference. . 0° 0' .— 0 ■+ 1 + 0 10 21 45 6 + 0 36 19 54 + 1 + 1 + 0 + 0 + 0 11 21 13 10 5 light really or apparently polarised in the plane of refrac¬ tion. v “ As the planes of polarisation of a pencil polarised q- 45° and — 45° cannot be brought into a state of coincidence by refraction, the quantity of light polarised by refraction can never be mathematically equal to the whole of the transmitted pencil, however numerous be the refractions which it undergoes ; or, what is the same thing, refraction cannot produce rays truly polarised, that is, with their planes of polarisation parallel.” ion. 11 On the partial Polarisation of Light hy one or more Refractions. 45 58 40 50 63 10 55 66 60 70 65 74 70 76 75 79 80 83 23 85 86 23 5 — 0 25 — 0 9 — 0 17 — 0 38 59 63 19 58 67 15 18 70 56 8 74 24 56 77 42 20 80 53 — 1 83 58 — 0 86 0 + 0 0 16 0 46 33 35 23 90 90 0 90 0 0 0 “ The last column but one was calculated by the formula cot. 6 = cot. x . (cot. 58° 40')2. “ In determining the quantity of polarised light in the refracted pencil, we must follow the method already ex¬ plained for the reflected ray, mutatis mutandis. The prin¬ cipal section of the analysing rhomb being now supposed to be placed in a plane perpendicular to the plane of re¬ flection, the quantity of light Q! polarised in that plane will be Q' = 1 — 2 cos.2 p, the quantity of transmitted light being unity. cot.

43-23 43-26 43-39 43-41 43- 64 44- 78 46-33 49-10 53-66 61-36 79-5 93-31 124-86 162-67 257-56 329 95 333-20 359-27 391-7 499 44 560-32 616-28 666-44 676-26 744-11 819-9 904-81 1000- 956-77 956-74 956-61 956-59 956-36 955-22 953-67 950-90 946 33 938-64 920-5 906 69 875-14 837-33 742-44 670-05 666-80 640-73 608-3 500-56 439 68 383-72 333-56 323-74 255-89 18-0-1 95-19 .0- 3J3 <0 M 3 0 0-07 1-73 7-22 11-6 17-24 24-4 32 2 44-0 57-4 79 5 91-6 112-7 129-8 152 3 157-6 157-65 157 6 156-7 145-4 134-93 123-7 11111 108-67 89-8 65-9 36-3 0- the form! 1ob^lous’/rom a consideration of the principle of ised lin-ht °r r^ecte(i light, that the quantity of polar- Vol’xvi8 not nn& at h*’ because the force which polar- ises it is there a minimum. At the maximum polarising Polarisa- light, Qis only 79-5, because the glass is incapable of re- tio»- ecting more light at that angle, otherwise more would have been polarised. The value of Q, then, rises to its maximum at-78° 7', and descends to its minimum at 90°; but the polarising force has not increased from 56° 45' to y < ’ af i- f value of shows. It is only the quantity of 1 eflected light that has increased which occasions a greater quantity of light to disappear from the extraordinary ima,re of the analysing rhomb. & “ The case, however, is different with tne refracted light. The value of Q' has one minimum at 0°, and another at 90°, while its maximum is at 78° 7'; while the force has its minimum at 0°, and its minimum at 90°, where its effect is a minimum only because there is no Imht to po¬ larise. At the incidence of 78° 7', where the^quantities (4, (T reach their maxima, the reflected light is exactly one half of the transmitted light; sin.2 — cos.2 © and tan. or tan.

which we shall have occasion to refer to m0^e fu. y f ct gard to the two first crystals. In other crysta s P crystallization is the general cause of these irr g In Iceland spar, zircon, ice, tourmaline, ^ a other minerals, the tints of the rings are very nea y U of Newton’s scale ; but there are other crystals, such ^ phyllite, in which Sir David Brewster and i ^ ^ schel discovered remarkable deviations, whic scribed in a subsequent section. ]ue 0f The intensity of the polarising force, or tn the tint polarised at a given thickness, has be ^afolloW. ed by different persons for different cryst^- f uniaxal ing have been given by Sir John Hersche crystals. : OPTICS. Numerical Value Thicknesses that pro¬ of the highest duce the same / Tint. Tint. Iceland spar 35801 0-000028 Hydrate of strontia 1246 0-000802 Tourmaline 851 0-001175 Hyposulphate of lime 470 0-002129 Quartz 312 0-003024 Apophyllite, first variety 109 0-009150 Camphor 101 0-009856 Vesuvian 41 0-024170 Apophyllite, second variety 33 0-030374 third variety 3., 0-366620 These measures are calculated for the yellow rays. 481 Fig. 149. Sect. IX.—On the System of Rings produced by Biaxal Crystals. The biaxal system of rings was discovered by Sir David Brewster, while he was looking along one of the axes of topaz when the crystal happened to reflect the light of a part of the sky which was partially polarised, so that they were seen without the aid either of a polarising or an an¬ alysing plate. Upon examining other minerals, he discovered that the possession of two systems of rings was the characteristic of by far the greater number of crystallized bodies. In some of the ci ystals, such as topaz, the lines along which each system of rings is seen are so much inclined to each other, that we cannot see the two systems at once i whereas in others, where the inclination of the lines is small, both the systems may be distinctly seen at the same time. This will be understood, in the case of topaz, from fig. 149, where MN is a plate of topaz with parallel faces of cleav¬ age perpendicular to PQ, the principal axis of double re¬ fraction. If we expose this plate to polarised light, so that the po¬ larised ray passes along the line ABeE (the plane of incidence be¬ ing in one of the two neutral axes of the plate); and if the eye at A receives this ray without using the analysing plate, it will see in the direction of that ray a sys¬ tem of oval rings of extreme beauty, hke that shown in Plate CCCLXXXIII. fig. 32. When the polarised light is transmitted along the line CBrfD, equally inclined to the perpendicular PQ, it will see a si¬ milar system. The lines BD, Be are therefore the result¬ ant axes of topaz, along which the double refraction vanish¬ es. Ihe angle ABC is about 121° 16', but the inclina- tion of the refracted rays or of the resultant axes is only i' n j ”1? ar ian^’S are seen kj transmission in the direc- ion Ud, Ee, but only when the analysing plate is used, it we now receive the reflected ray upon the analysing P] ,e system of rings will appear as in fig. 33, a e CCCLXXXIII., which differs from fig. 32 only in W FKrtS near major axis* The colours are the same, darthe cei?tfaI sPots are much smaller, and the mass of cid Wlt 1 wllich ^ey are surrounded encroaches con- vi y-nPun the blue Part of the first ring- The same round Z1 ^en at 9°G’ 180°’ 2270 S but uPon turning and mo6 anaJysing Plate, we shall see, at 45°, 135°, 225°, tivnlv f .’ a.tbirc* set> shown in fig. 34, which is compara- ritief arn -in ltS co^our’ but distinguished by its peculia- 32 but-n“S ge.nera^ structure it resembles the set in fig. er 'snnt- m themiddle of each central spot there is a dark- green h v0mpri 0f blue and red chiefly> with a little rings eVery ring is divided int0 two fin?/ Tb' i-^blcb bas ^he same colours as the original vol. xviS dlV1Slon tbe rings occupies only a part of the semicircumference of each, and is not seen beyond the third ring. When the analysing plate begins to move from 0 , 70 , &c. where fig. 33 is seen, towards 45°, 135°,' &c. two blue spots, and the division of the rings, begin to appear at A and A in all the rings, and in the two central spots, and move along each till they reach B at 45°, 135°, &c. Continuing to turn the analyser, the spots and divi¬ sions move onward from B to C in all the rings, &c., and disappear at C at 90°, 180°, &c. This curious system of rings is obviously the first set in fig. 32, seen at the same time with their complementary rings, and is a very rare phenomenon. J - The biaxal system of rings is best seen in nitre or Rings in saltpetre, in which the inclination of the resultant axes is nitre, only about 5° . . °.r forming an angle of 2T with the axis of the six-sided prism. When a plate of nitre, about the sixth or eighth of an inch thick, is placed before a small analysing plate, and very close to it, and the eye also held as close to the analysing plate as possible, we shall see the beauti¬ ful biaxal system of rings discovered by Sir David Brews¬ ter, and shown in Plate CCCLXXXIII. fig. 35, where the plane passing through the two axes of nitre is parallel or perpendicular to the plane of primitive polarisation. At angles inclined 45° to these planes, the rings assume the form shown in fig. 36. In passing from the one of these states to the other, the rings assume the forms shown in figs. 3/ and 38. Ihe colours begin at the centres A and B of each system; but at a certain distance, varying with the thickness of the plate, the rings, in place of returning and encircling each pole, encircle the two poles, as an el¬ lipse does its foci. When the thickness of the plate is very small, the rings enlarge, and the fifth ring will sur¬ round both poles. At a less thickness the fourth, and so on, till at a very small thickness the first ring, will surround both poles, and the system then resembles much the uni- axal system of rings. If the plate of nitre is very thick, the rings diminish in size. These colours deviate more and more from those of Newton’s scale, and the tints do not begin at the poles A and B, but at virtual poles in their vicinity. The colours of the rings within the two poles are ret/, and beyond them blue, and the great body of the rings is pink and green. The rings have been called isochromatic lines, or lines of equal tint; and the axes passing through the poles A, B, optical axes, or axes of compensation, or resultant axes. We have already given a long list of the various mine¬ rals and crystals which exhibit the biaxal system of rings, and also the position of the line which bisects the anguTar distance between the resultant axes, which is the princi¬ pal axis of the crystal. The following table, showing the inclination of the re¬ sultant axes in different crystals, was drawn up from the observations of Sir David Brewster. Several observations by other observers have been added. Character Inclination of Principal of Result- Axis. ant Axis. ...,*.Negative 2°or3° 0' Sulphate of nickel, certain speci- ) p . . mens j I ositive ..3 0 Carbonate of strontites Negative 6 56 — barytes Ditto Nitrate of potash Ditto, Mica, certain specimens Ditto Talc Ditto Carbonate of lead Ditto Sulphato-carbonate of lead Ditto Mother-of-pearl Ditto Hydrate of barytes Ditto Mica, certain specimens, about Ditto 14 Arragonite... ...; Ditto 18 3 e Names of Minerals. Glauberite.. ,.5 ..6 ..7 10 10 li 13 20 0 24 35 30 28 18 0 18 482 0 P f'P i Names of Minerals. Character of Principal Axis. Inclination of Result¬ ant Axis. arig ion. 19c Pyroxene (Miller) Prussiate of potash, certain speci-1 positive 19 mens J Cymophane Ditto Borax Ditto 28 Anhydrite1 Ditto 28 Mica (Biot) V30 t0 ^ Apophyllite, biaxal Negative Bo Sulphate of magnesia Ditto 37 barytes Positive 37 Spermaceti, about Ditto.. 37 Tincal, or native borax Negative ..38 30' 34< 51 42 7 0 8 24 42 40 48 0 42 4 Fig. 150. Nitrate of zinc, estimated at about 40 Stilbite Positive 41 Sulphate of nickel Ditto.. 42 Tartrate of ammonia (Miller) Negative 42 20 (Herschel) 4o Carbonate of ammonia Negative 43 Anhydrite (Biot) (Herschel) ^3 Mira Negative 45 Lepidoiite.. Ditto- 45 Benzoate of ammonia Positive 45 Sulphate of zinc Negative 44 magnesia and soda Positive 4b Hopeite Negative 48 Brazilian topaz Positive...••••■* Sulphate of ammonia Ditto...49 or4-- Sugar Negative 50 Sulphate of strontites Positive 50 Murio-sulphate of magnesia and iron...Negative 51 lb Sulphate of ammonia and magnesia...Positive 51 — Heulandite (Herschel) Phosphate of soda Negative 5o Comptonite Positive 56 Felspar Negative 58 Sulphate of lime Positive 60 Oxynitrate of silver Ditto.. b2 Dichroite or iolite Negative 60 Topaz (Aberdeenshire) Positive bo Sulphate of potash Ditto.. 67 Carbonate of soda Negative 70 Acetate of lead Ditto. /0 Citric acid Positive 70 Tartrate of potash Negative 71 Benzoic acid (Miller) Ditto o Tartaric acid Ditto < Sulphate of oxide of iron and am- 1 79 monia (Miller) j • ••• Tartrate of potash and soda 1 ositive 80 Carbonate of potash Kyanite Positive 81 Hyper-oxymuriate of potash. Muriate of copper. 0 24 41 48 0 0 8 28 49 0 50 0 0 0 17 20 6 30 0 16 50 0 0 1 25 29 20 0 0 0 .82 .84 87 88 89 Epidote, about ^ Peridot Crystallized Cheltenham salts Hyposulphate of soda (Marx) Succinic acid, estimated at about 90 Sulphate of iron, about Many of the measures in the preceding table were taken with much care; but some of them were only esti¬ mated, and others will admit of correction by the use of as 1 to „ op better specimens than the author was able .oj.rocure.^ ^ ^ 0E . then ,et 0 30 48 0 30 19 56 14 20 0 0 I c s. discover the law of the tints by which every point of the complex system of rings can be calculated, Sir David Brewster considered the optic or resultant axes P, P' as produced by two or more rectangular axes, the principal one passing through O, and the other two at AB and CD. We shall suppose, however, the most simple case, where the axes are only two, viz. that at O, and another either coinciding with AB or CD, perpendicular to O. Now, if O is a negative axis, AB must also be negative ; but if we take CD for the other axis, it must be positive ; for as the axis CD compensates the negative axis O at P, acting in the same plane, it must be a positive axis, for a negative axis would have united its effect with that of O. For a similar reason, thi axis at AB must be negative, in order to compensate the negative axis O in a plane at right angles to it. Supposing, then, O and AB to be two negative axes, a; in mica, let it be required to determine the system of rings which they will produce, or the tint at any point F. Now we may either assume the relative intensities of these axes, or, what is better, the angle formed by the two poles p? P5 where the actions of the two axes are compensated, as this angle can be readily measured in any crystal. As the action of the axis AB (or the tint which it produces) at P is destroyed or compensated by the action of the axis O, or the tint which it produces, and as the tint is propor¬ tional to the square of the sine of the angle which the ray makes with the axis, it is evident that the intensity of the axis at O must be to the intensity of AB, as 1 to g'-^yop- For as the tint produced at P by AB at an inclination of 90°, which is its maximum tint, is equal to the tint of b produced at P at an inclination equal to OP, the maximum tint produced at O will be found thus : Sin.2 OP : rad.- or sin 2 90° — 1: ^— . We have therefore obtained an * sin.2 OP accurate expression of the relative intensities of the two negative axes O and AB. If we had supposed the rings to be produced by a nega¬ tive axis O and a positive one CD (which would equal y account for the phenomena), then the intensity of U wi be to that of CD as cos.2 OP is to sin.2 OP. . From a great number of observations made at all incli¬ nations to the resultant axes, and from accurate measure ment of the projected rings, Sir David Brewster found all the phenomena of the rings, with all their varieties form and curvature, vvere represented by the folio £ The tint produced at any point of the sphere, axii action of two axes, is equal to the diagonal of a pum gram whose sides represent the tints produced by earn separately, and whose angle is double of the ^hn by the two planes passing through that point of P and the respective axes. . . , ron„;red In showing the application of this law, let it b _ | to find the tint produced at E, fig. 150, by the « of the two axes O and AB, whose relative in » * Through E draw three great circles AEF. In order to explain the biaxal system of rings, and to 1 This must have been a different mineral from that examined by Biot. OPTICS. 483 T = tint required at the point E ; & — the arch between the point E and the axis O ; — the arch between the points E and C; a — the tint produced separately at E by the greater axis b — the tint produced separately at E by the lesser axis; J, _ the angle of the forces; = the angle CEF ; w = the angle OEF ; A = the arch FO, or the angle OAF, or the azimuth on the great circle CPO passing through the poles P, P, or centres of the two systems of rings ; D = the arch FE, or the declination or distance of the point E from the same great circle ; P — half the difference of the angles at the base or at the diagonal of the parallelogram of forces. Then we have cos. 6 — cos. A x cos. D, p = 90° — D, tan. D COS. M — 7, tan. 6 tan. D tan. tp 2 AEO = ^ = 2 (180° —w) = 2 w. Since, then, the tints a, b produced at E by the axes O and AB are as the squares of the sines of the distance of E from these axes, or as sin.2 OE and sin.2 AE, and as the relative intensities of the axes are as 1 to -—,we shall sin.2 OP have a — sin.2 OE, and b — sin.2 AE X sin.2 OP. Having thus found the sides of the parallelogram of forces whose angle is the diagonal T of this parallelo¬ gram, or the compound tint at E, will be obtained in the following manner: Tan.^-^^and 4 + 2 ^ = greater angle at the base. Hence T= ,°r--» sin. £ + J When a = &, T = 2a (cos. cr -j- w). When a — b and the two axes O, and AB equal or &> and T -|- 2a (cos. 27r). When twice the angle formed by the planes OE, AE or = 90°, then T = Va2 62. When ^ = 180°, T — a — b. When p ~ 0° or 360°, T = a b. Such is the method of determining the tints, and con¬ sequently the form of the isochromatic curves in relation to the real axes to which the forces refer; but in relation to the poles P, P, the law of the tints may be more simply expressed by the formula T £ sin. PE x sin. P'E, where t is the maximum tint at A, which must be pre¬ viously determined. This rule was deduced by M. Biot mathematically from Sir David Brewster’s law, and it was afterwards established experimentally by Sir John Her- schel, without being aware of its having been deduced from the general law. The preceding general law is equally applicable when ie nngs are formed in homogeneous light. ir John Herschel,1 in examining the systems of biaxal ri??s’ found that they resembled lemniscates, as represent- e m the annexed figure. In these curves the rectangle PE X P'E is invariable throughout each curve, and the Polarba- Fig. 151. value of this constant rectangle in any one curve is a X b, b being the parameter of the curve, and a half the distance between the poles P, P. The quan¬ tity a is of course the same for each curve, but b in different curves in¬ creases in the arithmeti¬ cal progression 0, 1, 2, 3, &c. for the several dark intervals of the rings, beginning at the poles, and in the progression |, f, <$rc. for the brightest intermediate spaces. Many interesting conclusions have been deduced from the preceding general law by Sir David Brewster. When the two negative axes O and AB, fig. 150, are of equal in¬ tensity, then their action will be compensated at C and D, and C D will be a smg\e positive axis of double refraction, and also of an uniaxal system of rings like those in zircon ; and the isochromatic curves given by the preceding for¬ mulae will be circles surrounding the axis. Hence it follows, that two negative rectangular axes of double refraction and polarisation compose a single positive axis. If vve now suppose a negative axis at CD, equal in intensity to any of the other two, it will evidently destroy the positive axis of compensation at CD, so that three equal and similar ne¬ gative axes in any crystal destroy each other ; and hence our author was led to the conclusion, that all the tessular crystals in which there was neither double refraction nor polarisation had three such axes. But if the third axis at CD is not equal to O or AB, and if O and AB are unequal, then we shall have all the phenomena of a crys¬ tal with two axes. In order to compute the tints thus produced by three unequal axes, let O, AB', and CD be three axes, and P, P' the centres of the double systems of rings which they produce. We have already shown that the resulting tint of two axes O and AB, at any part E, is T « sin. “ sin. ^ +if In order, however, to combine this tint with another, we must know the direction of it. Since is the double of the real angle of the planes in which the forces from O and AB act, the direction of the new plane in which these forces act must form an angle with the real direction of O, whose complement is tion. 14+ £ 4 2 4 4- ^ 2’ or it forms with the real direction of A an angle whose complement is 2 4 2 Hence the direction of the resultant in relation to BE, the direction of the third force with which it is to be com¬ bined, is known. In order to illustrate this in a case where the truth of the result will be immediately seen, we shall take the case of three equal axes, the general resultant of which is no¬ thing. In fig. 150, let O, AB, and CD be the three equal axes, and E the point where we require to know the effect of their combined action. Take AE = 70°, CE = 60°, then EG = 30°, EF = 20°, AG = 66° 44', OG = 23° 16', OE = 37° 17'; then 1 Treatise on Light, sect. 903. 484 OPTICS. a = sin.2 AE = 0-883104 b - sin.2 CE = 0-7500 c - sin 2 OE = 0-36694 a + c = 1-25004 ■ c = 0-51616. 4 + ?r — j 237c ( 122c 37c 40c 77c 16' 54' 12' 4' 52' Combining then O and AB, we shall have T = 0-7500, which will be + or positive, as is greater than 180°. Then — 4- 49° 4 T- 2 — 19', which gives 40° 21' for the direction of the new plane in which the forces O and A produce the combined tint ot 0-7500. But the angle w or OEG = 40° 41', so that the resultant lies in the plane CEG; and hence, it we com¬ bine with this resultant, or + 0-7500, the force 0-7500, produced by CD, the result will be nothing. Ibis method is also applicable to the combination of axes of double retrac¬ tion, the numbers corresponding to a, b, c being in that case the difference between the squares of the velocities of the ordinary and extraordinary rays, as produced by each axis separately at the point E. . The following table of the intensities of the polarising force in biaxal crystals has been given by Sir John lier- schel: Value of the Highest Tint. Nitre 7400 Anhydrite, angle of axis 43° 48', 1900 Mica, angle of axes 45° 1307 Sulphate of barytes -521 Heulandite (white), angle of axes 54° 17 249 Thicknesses that produce the same Tint. 0-000135 0-000526 0-000765 0-001920 0-000402 J The numbers belong to the yellow ray. Sect. X.— On Conical Refraction in Biaxal Crystals. Conical re- The phenomenon of conical refraction seen along the axes fraction. 0f biaxal crystals was deduced by Sir \\ . Kami on the undulatory theory, and was discovered experimentally and examined by Professor Lloyd in arragomte. It fol¬ lowed from the theory, that a single ray, proceeding r a point within the crystal, and emerging at each of the four poles, must be divided into an infinite number of emergent rays, constituting a conical surface; and that a single ray incident externally would be similarly divided. In order to examine the emergent cone formed in air, Professor Lloyd placed a lens of short focus atlts tance from the first surface of a plate of arragomte 0-49 of an inch thick, having its parallel faces perpendicular to the principal axis of the crystal, and so that the centra part of the pencil might have an incidence nearly parade to the optical axis. He then looked through the crystal at the light of a lamp placed at a considerable distance, and observed a point more luminous than the space aroun it, having a sort of stellar radiation. In order to examine this phenomenon, he placed a plate of thin metal, having a minute aperture, on the surface of the crystal next he eve, and adjusted the aperture so that the line connected with the luminous point on the first surface might be in the direction of the optical axis. When the adjustment was complete, there appeared at first a luminous circle with a small dark space in the centre, and in this dark central space were two bright points, separated by a narrow and well-defined dark line, as shown in Plate CCCLXXXIV. fijrs 39 and 40. When the aperture in the plate was slight¬ ly shifted, the phenomena rapidly changed, assuming suc¬ cessively the forms shown in figs. 41, 42, 43, In the first stao-e of the change the central dark space became great¬ ly enlarged, and a double sector appeared in the centre. The circle was reduced to about a quadrant, and was se¬ parated by a dark interval from the sector just mentioned. This is shown in fig. 41. The remote sector then disap¬ peared, and the circular arch diminished, as in fig. 42; and as the inclination of the internal ray to the optical axis was farther increased, these two luminous portions merg¬ ed gradually into two doubly-refracted pencils. This change is shown in fig. 43. In these experiments the emergent rays were received directly by the eye placed close to the aperture on the second surface. Professor Lloyd succeeded in showing the phenomena on a screen with the sun’s light, and he found the light sufficiently distinct when the diameter of the section was one and a half inch. Upon examining the cone with a tourmaline, Professor Lloyd was surprised to observe that one radius only of the circular section vanished in a given position of the tourmaline, and that the ray which disap¬ peared ranged through 360°, as the tourmaline was turn¬ ed through 180°, the rays of the cone being all polarised in different planes. Upon a more attentive examination he discovered the remarkable law, “ that the angle between the planes of polarisation of any two rays of the cone is half the angle between the planes containing the rays themselves and the axis:' The angle of the cone was found to be 6° 24', 5° 56', and 6° 22'; the mean of which is 6° 14. When the aperture was considerable, such as that form- ed by a large-sized pin, two concentric circles were seen to surround the axis, the inner one being nearly twice as bright as the outer one, and consisting of unpolarised light, while the outer one wTas polarised according to the preceding law. By using smaller apertures the inner circle grew less, until it became a point in the centre of the fainter exterior circle, which remained fixed. With a still less aperture a dark space sprung up in the centre, incieasing as the aperture diminished, until, with a very minute aper¬ ture, the breadth of this central space increased to about three fourths of the entire diameter. In these cases the appearances are as shown in figs. 44 and 45. Mhen the line joining the luminous point on the first surface was slightly inclined to the axis, the appearance was that shown in fig. 46. . . . . ., Professor Lloyd observed an interesting variation in the phenomena, by substituting a narrow linear aperture ior the circular one on the first surface of the crystal, this aperture and the one in the plate next the eye eing 111 the plane passing through the optic axes. The line ia the appearance shown in fig. 47, swelling out into the form of an oval curve round the optical axis. By using a very minute aperture next the eye, the phenomenon was as shown in fig. 48. When the plate next the eye was slight ly shifted, so that the plane passing through the aper u g did not coincide with the plane of the optic axes, the curves rapidly changed, preserving, however, the form of the choid, whose pole was the projection of the axis o ^ emergent cone, and asymptote the line on face. These effects are represented in figs. 49 an . The second kind of conical refrfctlon.dedu ®in(rfe eX. ticallv bv Sir W. Hamilton takes place when a sin0 termd ray Ts incident upon a biaxal crystal, soffiat one re¬ fracted ray coincides with an optic axi • , , there should be a cone of rays withinthe cryM^ cone gle of the cone in arragonite being 1 55. A will have its rays refracted at emergence, ^ parallel to the incident ray, they will form a s U ^ ^ of rays in air, the character ot whose ^tion J t ^ face of emergence being only 1° 55' at a distance eq irisa. m. -o- face of emergence being only the thickness of the crystal. nre the size In order to detect the existence a"d ™f.aft of a lamp of this cylinder, Professor Lloyd used the .ght ht pasS placed at some distance, and he _ • ht line, the through two small apertures placed in a stra g OPTICS. 485 Influe 1 jfpte; . one in a screen near the flame, and the other in a plate of metal close to the first circle of the crystal. Under '"ordinary circumstances, the incident ray will be doubly refracted within the crystal,, and the two pencils will emerge parallel to the second surface. Professor Lloyd was able to distinguish these two pencils by means of a lens; and turning the crystal slowly, so as to vary the in¬ cidence, he observed a position in which the two rays changed their relative places rapidly on any slight change of incidence, and appeared at times to revolve round one another as the incidence was changed. Being convinced that the ray was now at the critical incidence, Professor Lloyd changed the position of the crystal relative to the incident ray very slowly ; and after much care in the ad¬ justment, he at last saw the two rays spread into a conti¬ nuous circle, and exhibit the phenomena which we have already described in his own words in our history of Op¬ tics. Professor Lloyd measured the angle of the cone by an indirect method, and found it 1° 50', differing only 5' from the angle deduced from theory.1 Sect. XL—On the Effect of Pressure and Heat on the Double Refraction of Crystals ivith One, Two, and Three Axes. The influence of pressure and heat in modifying the e doubly-refracting structure of bodies that previously pos¬ sessed that property, and of creating a new doubly-refrac- tive structure in uncrystallized bodies, was first studied by Sir David Brewster.2 By applying compressing and dilating forces to minerals, he succeeded in altering their doubly-refracting structure in every direction; but the effect was always most easily seen when it was produced along the real axes of uniaxal crystals, or the resultant axes of biaxal ones, where the effect of the natural forces was either nothing, or compen¬ sated. The following were some of the results to which he was led by applying the forces to parallel surfaces. Axis of Compression and Dilatation parallel to the Axis of the Crystal. Positive crystals... fCoranressed... {Ti"tVi3e jn New- j ( ton s scale. (Dilated -[Ti^s Ascend in V ( JNewton s scale. (Compressed... ITi";s descend in Negative crystals...< 1 Newton s scale. (Dilated J Tints rise in New- V. I ton s scale. Axis of Compression and Dilatation perpendicular to the Axis of the Crystal. (Compressed...descend in Positive crystals 1 c Newton s scale. “(Dilated / Tints rise in New- V I ton s scale. I Compressed... | ton’s scale, j Tints rise in New- \ ton’s scale. Negative crystals... < v ; (Dilated -f pj8 descend in V ( JNewton s scale. The axis of compression and dilatation is the line per¬ pendicular to the two surfaces pressed together or drawn Polarisa- asunder. tion. I he above results were obtained by experiments both v “ v~—■' on uniaxal and biaxal crystals. When the axis of compression was perpendicular to the axis of double refraction of an uniaxal crystal, it was paitially converted into a biaxal one with two axes, the poles of the two resultant axes being distinctly visible.3 M. Fresnel was, we believe, the first person who ob- Influence served the influence of heat in altering the tints of sul- heat. pkate of lime perpendicular to the lamina;, but we are not able to refer to the details of his experiments. Profes¬ sor Mitscherlich, however, has investigated the action of heat upon this mineral so completely as to include all previous experiments in his results. Having found that heat acts upon calcareous spar differently in different di¬ rections, expanding it in the direction of its axis, and slightly contracting it in directions perpendicular to the axis, he sought to determine if any variation in the dou¬ ble refraction was produced by heat. By the method of interferences, and observing the compensation produced by crossing plates of crystals at different temperatures, he observed that a change in the double refraction was pro¬ duced. In extending these experiments, Professor Mitscherlich Mitscber- found that the two resultant axes of sulphate of lime in- lich. dined 60° to each other at common temperatures, approach¬ ed each other when heated, till they met, and constituted one axis of double refraction. By increasing the heat they again separated in a plane perpendicular to the lami- nce. In this experiment the principal axis of double re¬ fraction which bisected the optic axes gradually increased, while the second real axis perpendicular to the laminse diminished and disappeared when the crystal assumed the uniaxal state. A new axis then sprung up in the plane of the laminae perpendicular to the principal axis. Sir John Herschel, in mentioning this remarkable ex- Sir John periment, states that he observed the tints of a plate of Herschel. sulphate of lime rise rapidly in the scale when the plate was moderately warmed by the heat of a candle held at some distance below it, and sink again when the heat was withdrawn. He found, on the contrary, “ that mica simi¬ larly heated undergoes no apparent change in the position of its axes, or in the size of its rings, though heated near¬ ly to ignition.”4 The extraordinary experiment of Professor Mitscherlich Recent ex- was repeated by Sir David Brewster with one of the spe-perirnents. cimens of sulphate of lime, in which he discovered one of the resultant axes of this mineral. The following is the account which he has given of this experiment, and of the discovery of a stiil more curious property in glauberite? The specimen of sulphate of lime was about one and a half inch thick in the plane of the laminae, and the system of rings which surrounded this axis was exceedingly mi¬ nute, with the usual black brush at each end of them. I he other system of rings could not be seen in this speci¬ men, owing to the manner in which it was cut. Having brought the crystal to a considerable heat, and exposed it to polarised light, it wras a singular sight to see the sys¬ tem of rings travelling along towards the line which bisects the optic axes, like a celestial body passing through the field of a telescope, and changing their form and size as they advanced. The specimen did not permit me to see the two systems unite, and still less to see them open out 207.See InSh Transactlons’ 1833’ vo1- xvii-; and London and Edinburgh Philosophical Magazine, 1S33, No. 8, p. 112, No. 9, p. 3 EdhburffhVralso Pf ; i181-6’- P'167; antI Edinburgh Transactions, vol. viii. p. 281. s r , 8 transactions, vol. viii. p. 285. 4 Treatisp nn T Load, and Edin. Phil. Mag. December 1832, vol. i. p. 417. L b ’ sect. 1113. 486 OPTICS. Polarisa- again in a plane at right angles to the laminse; but from tion. tiie degree of heat which I used, and which drove off the water of crystallization from part of the specimen, I pre¬ sume that the complete phenomenon cannot be developed without destroying the constitution of the crystal; that is, that after the two systems of rings have opened out in a new plane, they will not return, by cooling, through their state of union, into their primitive inclination of 60° in the plane of the laminae. “ A property of a similar kind, but perhaps a still more extraordinary one, I discovered some years ago, subsequent to Professor Mitscherlich’s discovery ; and I have slightly noticed it in a paper on glauberite, published in the Edin¬ burgh Transactions.1 This interesting mineral has at or¬ dinary temperatures the curious property of two axes of double refraction for red light, and only one axis for violet light. If we apply heat to it, the two optic axes for red light gradually close, and, at a temperature which the hand can endure, the two systems of rings for red light have united into one system, so that the crystal has now only one axis of double refraction for red light. By continuing to increase the heat, the two axes separated, and the single system of rings opened out into two systems, lying in a plane at right angles to that in which they were placed at first. The heat was now less than that of boiling water. By increasing it, the inclination of the optic axes gradual¬ ly increased. . “ I now applied artificial cold to a crystal of glauberite at the ordinary temperature of the atmosphere. 1 he in¬ clination of the optic axes for red light increased, as might have been predicted; but, what was very unexpected, a new axis was created for violet light, the plane ot the two violet axes being coincident with the plane of the two red optic axes at and below the ordinary temperature. An in¬ crease of cold increased the inclination of the optic axes for all the colours of the spectrum ; the inclination of the axes being least for the most refrangible, and greatest for the least refrangible rays. “ These results appear very complicated when we begin with the effects at an ordinary temperature, and view them in the manner in which they were observed ; but if we commence the experiments at a low temperature, such as the freezing point, the order and connection of the pheno¬ mena will be more easily understood. “ At 32° glauberite has two axes of double refraction for rays of all colours, the inclination of the axes for the violet rays being least, and that for the red the greatest. As the temperature rises, the optic axes for all colours gia- dually approach, and the axes for violet first unite into one. At this time the crystal has two axes for all the other colours ; but as the heat increases, all the other pairs of axes unite in succession, and form a single system of rings. But before this has taken place, the axes for violet rays have opened up again in a plane at right angles to that in which they originally lay, and they are followed by all the other pairs of axes ; so that at a temperature much below that of boiling water, each pair of axes ap¬ pears with different inclinations arranged in a new direc- tion. . “ During all the changes which have been described above, the crystal has preserved its constitution ; and by abstracting the heat, the phenomena are all repeated in an inverse order. “ If the crystal should happen to be observed at that temperature, which very often occurs when the greenish- yellow or most luminous rays have the optic axes corre¬ sponding to them united, or form a single system of rings, olatj then the blue rays will have two systems of rings lying in tim j one plane, and the red rays also two systems of rings in a “r plane at right angles to this. In two rectangular positions,, namely, when the planes of the double axes coincide with: or are at right angles to the plane of primitive polarisa¬ tion, the black cross will be very distinct; but in interme¬ diate positions it will be much less so, and the uniaxal system of rings which predominates, from the greater in¬ tensity of their light, will have that indistinctness of cha¬ racter which, whenever it occurs, indicates a peculiar ac¬ tion of the doubly-refracting force on the differently-co . loured rays. When the black cross is perfect and equall; distinct in all positions, while the colours of the rings de¬ viate from those of Newton’s scale, then the axes for al colours are obviously coincident, and the peculiarity ir. the colour of the rings is owing to an irrationality in tht action of the doubly-refracting forces on the differently coloured rays.” A series of highly valuable experiments on the change lessor which temperature produces in the double refraction o:'lM|' crystals,2 have been made by Professor Rudberg of UpsaL1 Professor Mitscherlich having only determined the ratio between the mean double refraction of Iceland spar in a ! cold and in a heated state, without ascertaining the sepa¬ rate variations in each pencil, Professor Rudberg was de¬ sirous of supplying this desideratum. For this purpose he constructed a box, AB, havingfour of its faces double, so as to enclose a space which received through the pipe P, and retained, the steam from a boiler. This space communicated also with the external air. The other two faces of the box were formed with plates of mi¬ ca. The inner box, therefore, Fig. 152. contained only air, which was heated by the surround¬ ing steam. A thermometer T indicated the temperature of the air. A tube R, pass¬ ing through the two lower surfaces of the box, formed a free communication be¬ tween the interior and the exterior air, so that their elasticity was the same. Through this tube R, without touching its sides, there rose _ from the centre of the repeating circle a vertical copper rod, carrying a plate C, upon which the crystal was pla¬ ced. This rod was attached below to another plate of # copper, which rested on a ring of copper, which, having iii teeth upon its circumference, could be moved by a screw. ; By this arrangement he could perform the experiments $ as readily as if there had been no heating apparatus to ob¬ struct them. The heating apparatus was attached by a rod ;• Q of iron rising from the masonry on which the repeat¬ ing circle rested. _ - The experiments were made to determine the index o refraction of the ray F of Fraunhofer’s spectrum near the ,i boundary of the green and blue spaces. In this way he ; obtained the following results. . ,qo „e( 1. Calcareous Spar. Refracting angle of prism ^ 55' 9". i I a. Ordinary Ray. The minimum deviation of the line F produced by the prism was 52° 53'43". With a difference of temperature of 64° (Reaumur, we presumey. uiuerem-e ui i-cwpciamiv, v.. , ‘ i-i. this ray suffered no change in its deviation; from w 1 1 Edin. Trans, vol. xi. part ii. page 273. 2 This interesting paper was communicated by the author to Sir David Brewster, and published in Philosophical Magazine, December 1832, vol. i. p. 489. the London and Edinburgh ^ OPTICS. 487 iractit produc bjpre Hire. author concluded, that the refractive ■power of calcareous SPAR for the ordinary ray either does not change at all 'with the temperature, or decreases with it by a quantity extremely small. The index of refraction of F at the ordinary temperature was T66802. b. Extraordinary Ray. By the difference of tempe¬ rature of 64°, the deviation was increased 2' 28", or 2' 3F' when corrected, which gives for the index of refrac¬ tion, 1-49118 at 64° 1*49075 at ordinary temperature 0-00043 increase. Hence, in thx extraordinary ray, a rise of temperature of Polarisa- 64° increases the index of refraction 0-00343. tion- Proi’essor Rudberg confirmed this result in the presence ^ v-^" of Professor Mitscherlich in 1832. 2. Rock Crystal. Refracting angle of prism 45° Rock crys- 20 £j f• tsii* In both the ordinary and extraordinary ray, the devia¬ tion was decreased by a rise of temperature 42". The in¬ dices for the ray F became in the extraordinary ray 1-55868, being 0-00028 more than at the ordinary temperature ; and in the ordinary ray, 1-54944, being 0-00026 less. 3. Arragonite. With four prisms he obtained the fol-Arragon- lowing results. - ite. Prism, No. 1. Variation of the deviation —5' 8" Variation of refracting angle No. 2. — P 53" + 16" When corrected for the deviation of the plate of mica, they became Variation of deviation — p Variation of angle -j- 30 Hence he obtained the following indices of refraction : 47" 0 No. 3. -4' 3" - P53" 3' 57" -1 44 At ordinary temperature.. At increased temperature. No. 2. 1-53478 1-53416 Changes on index — 0-00062 No. 3. 1-69510 1-69421 0-00089 No. 4. — 2'58" — 4 8"-6 — 2' 52" — 40" No. 4. 1-69058 1-68976 0-00082 Hence, says our author, the double refraction of arra¬ gonite appears to decrease a little with the temperature, be¬ cause the refracting power in the direction of the axis A has diminished in a smaller ratio than that along the axes B and C. In other respects arragonite comports itself quite differently from calcareous spar. The axis A of arra¬ gonite obviously corresponds with the axis of crystallization of the spar ; but notwithstanding this, the refractive power in this direction diminishes in the former, and, on the contrary, increases in the latter, besides, that in the direc¬ tion perpendicular to the axis A, the refractive power di¬ minishes considerably in arragonite, whilst, on the con¬ trary, it undergoes almost no change in calcareous spar. While heat and pressure thus modify the doubly-re¬ fracting structure in minerals, they are capable of creat¬ ing it with regular axes in several soft substances. This effect is quite different, as we shall soon see, from that which is produced upon bodies by pressure, where the re¬ sult is modified by the external form of the body, and where the double refraction disappears when the heat or pressure is removed, or when the body is subdivided. A permanent change is induced upon the soft solids in ques¬ tion, and, when subdivided, each part of the mass or plate preserves the property communicated to it. Sir David Brewster described, in the Philosophical Transactions for 1815,1 the original experiment which he made on this sub¬ ject with a mixture of rosin and white wax; but in the same work for 1830,2 he has given a detailed account of his experiments, and of the conclusions to which they lead respecting the origin of the doubly-refracting structure. Ihe following is the fundamental experiment described by our author. “I took a few drops of the melted compound (rosin and ees wax), and placed them in succession on a plate of t ick glass, so as to form a large drop. Before it was cold aid above the drop a circular piece of glass about two turds of an inch in diameter, and, by a strong vertical pressure on the centre of the piece of glass, I squeezed °ut the drop into a thin plate. This plate was now al¬ most perfectly transparent, as if the pressure had brought the particles of the substance into optical contact. “ If we expose this plate to polarised light, we shall find that it possesses one positive axis of double refraction, and exhibits the polarised tints as perfectly as many crys¬ tals of the mineral kingdom. The structure thus com¬ municated to the soft film by pressure does not belong to it as a whole, nor has it only one axis passing through its centre, like a circular piece of unannealed glass. In every point of it there is an axis of double refraction perpendi¬ cular to the plates, and the doubly-refracting force varies with the inclination of the incident ray to this axis, as in all regular uniaxal crystals. “ When the two plates of glass are drawn asunder, we can remove one or more portions of the compressed plate, and these portions act upon light exactly like plates of uniaxal mica or hydrate of magnesia, and develope a dou¬ bly-refracting force of nearly equal intensity.” By reasoning from this experiment, our author is led to Cause of the opinion that double refraction is acquired by the par-double re¬ ticles of bodies at the instant of their aggregation, anci fraction, arises from the pressures produced in the direction of three rectangular axes, by the forces of aggregation. When these forces are very weak, double refraction will not be pro¬ duced ; when they are sufficiently strong and of equal in¬ tensity, they will produce tessular crystals; when they are equal in tw-o rectangular directions, they will produce uniaxal crystals ; and when they are unequal in all the three directions, they will form biaxal ones. In this way all the phenomena of cleavage may be readily explained* Upon some substances heat performs the same part as pressure ; but our limits will not permit us to detail our author’s experiments on this subject. Sect. XII.— On the Deviation of the Polarised Tints from those of Newton's Scale. In all his investigations respecting the colours of thin plates, M. Biot happened to use only such crystals as Page 31, 32. » Page 87- 488 OPTICS. Polarisa- gave polarised tints similar to those of Newton’s scale, and tion- he therefore considered this to be their character. In 1813, however, when Sir David Brewster described the rings in topaz, he gave a list of all the colours in different azimuths round the optic axes, and he not only found these colours to vary in these different azimuths in the same ring, but observed some colours at the extremity of the optic axes. In his paper on the laws of polarisation, published in the Philosophical Transactions for 1818, he remarks, that “ in almost all crystals with two axes, the tints in the neighbourhood of the resultant axes, when the plate has a considerable thickness, lose their resemblance to those in Newton’s scale, as will be more minutely described in an¬ other paper.” In April 1817 he communicated to the Royal Society of Edinburgh an account of the extraordinary system of rings in the apophyllite from the Tyrol, which consisted of purple and yellow light, like the residual co¬ lours arising from the combination of irrational spectra. In examining the colours of the polarised rings in bi- axal crystals, he was led to divide them into two classes, viz. 1. Those that had the red ends of the rings inwards, or between the resultant axes, and the blue ends oid- wards. 2. Those that had the red ends of the rings out¬ wards, and the blue ends of the rings inwards. The crystals in which the deviation is very striking are given in the following table. Class 1.—Red ends inwards. Carbonate of lead. Sulphato-bicarbonate of lead. Hyposulphate of strontia (Herschel). Tartrate of potash. Nitre. Sulphate of barytes. of strontites. Tartrate of potash and soda. Phosphate of soda. Arragonite. Topaz. Mica. Anhydrite. Chromate of lead. Muriate of mercury. of copper. Oxynitrate of silver. Sugar. Crystallized Cheltenham salts. Nitrate of mercury. ■ of zinc. of lime. Class 2.—Red ends outwards. Native borax. Sulphate of magnesia. Arseniate of soda. Unclassed. Superoxalate of potash. Oxalic acid. Sulphate of iron. Cymophane. Felspar. Benzoic acid. Chromic acid. Nadelstein. Hyposulphate of soda (Her- lours, overlapping each other, and these five constituting I! ^ an irregular system, unlike those produced by ordinary m.' crystals. In crystals where the displacement of the rings is great, the oval central spots seen in Plate CCCLXXX1II. figs. 32, 33, and 34, are drawn out, as Sir John Herschel remarked, into long spectra or tails of red, green, and violet light, and the extremities of the rings are distorted and highly colour¬ ed, as in fig. 51, Plate CCCLXXXIV. W hen we view these spectra with coloured media, they are found to consist of well-defined spots of the several simple colours, arranged on each side of the principal section, as shown in fig. 52. These results are capable of being rigorously calculated by the law of resultant axes given by Sir David Brewster, and may be considered as a proof of that law. If this were not the case, tartrate of potash and soda would have two axes for every different ray of the spectrum, and four series of poles extending each over a space of ten degrees. In order to show how these phenomena may be calcu¬ lated by two axes, let O and A, fig. 153, be two negative axes,which in red light compensate each other at F and F ; then, if O and A had the same proportional action on the vio¬ let and other rays as on the red rays, F would also be the point of compensation for the violet and other rays. In this case F would be the centre of all the sys¬ tems of rings, as in uniaxal crystals, and the tints those of Newton’s scale. But if the axis O has a greater proportional action upon the violet and other rays than A, the point of compensation will be at/, which will be the centre of the violet system of rings, the centres of all the other sys¬ tems being between F and /if the action of 0 upon them is of an intermediate nature. This is the case with all the crystals in Class 1 of the foregoing table. On the other hand, if O has a less proportional action on the violet than on the red, c, c will be the points of compensation for the violet rays, and the centres of the two systems of violet rings. The most remarkable instances of deviated tints are those in apophyllite, a crystal with one axis, discovered by Sir Da¬ vid Brewster. Sir John Herschel, in examining a number of apophyHites, found that some specimens exexcise negative action upon the rays at one end of the spectrum, a positive action upon rays at the other end, and no action at all upon the mean refrangible rays, the doubly refracting action ceas¬ ing, in the one case, in the yellow rays, and in another in the indigo.2 In other specimens, the diameter of the rings was nearly the same for all the colours of the spectrum, and hence the rings were approaching to a series of black and white ones. All these phenomena may be separately cal* schel) Sir John Herschel found anomalous tints in hyposul r - ✓ . , phate of lime, and Vesuvian, both crystals with one axis, a culated by the law of resultant axes already mentione , circumstance which we ascribe to that axis being the re- on the supposition that apophyllite has three rectangu ar sultant of three axes, two of which are equal. axes of double refraction. Sir David Brewster ha is- In examining the rings formed by biaxal crystals, Sir covered, in the tesselated apophyllite, portions whic ac David Brewster found that the black spot at the point of two axes co-existing with portions that had one axis, an compensation was not in the centre of the rings, and the in his coloured drawings of the phenomena exmbite y position of this spot for topaz is given in his table of these this mineral, he has pointed out a most extraordinary a colours.1 of symmetry which regulates its varying double reirac- T . It is to Sir John Herschel, however, that we owe the tion ; and as he had shown that a double dispersive pov^er Herschel’s complete investigation of this subject in reference to bi- existed in the same crystal, the following exp ana ion axal crystals. By using homogeneous light, he found that the remarkable phenomena of apophyllite approac ics the angle of the resultant axes VOp, fig. 129, was different the character of demonstration. . , for the different colours of the spectrum, varying, in the Let O be the positive axis of uniaxal apophy i e, case of tartrate of potash and soda, from 75° 42' in red let A and B be two positive axes which, if equa, wcr ^ light, to 55° 14' in violet light, so that with white light we produce a negative axis at O. But as the real axis a ^ have a system of rings, consisting of five rings of all co- a positive one, the apparent or finally resultant axi experi¬ ments. 1 Phil. Trans. 1814, p. 204, 205. 2 Cambridge Trans, vol. i. p. 21-24. Pol *- ti OPTICS. O will be a single axis, negative if the negative is the strongest, and positive if the positive is the strongest. Let us now suppose that the two axes at O have equal intensity, viz. + 0 = — O for yellow light (— O being the resultant 489 Anak Fig. 154. of -f A and -f- B), and that — O acts more powerfully upon the red rays than q. 0, while + O acts more powerfully upon the violet rays. In this case the two axes + 0, — O will exactly com¬ pensate each other. In yellow light, a yellow ray will experience neither double refraction nor polarisation ; whereas in red light, the predominance of — O will leave a single negative axis for red rays, and produce a negative system of rings ; and in violet light the predo¬ minance of -f- O will leave a single positive axis of double refraction for violet rays, and consequently & positive sys¬ tem of rings. This compensation resembles that of a compound lens, consisting of a convex and concave lens of equal curvature, of such a glass that their refractive index for yellow light is equal, while the index of refrac¬ tion for the violet rays is greater in the convex lens, and the index for the red rays greater in the concave lens. Such a lens will converge the violet rays, diverge the red rays, and produce no deviation at all in the yelloio ones ; that is, the same compound lens will be a plane lens in yelbw light, a convex one in blue light, and a concave one in red light. Hence each order of colours in apophyllite is as it were a secondary or residual spectrum arising from the opposite action of unequal negative and positive axes. From the fact of some apophyllites exercising a negative action, Sir David Brewster stated his expectation that apophyllites might be found in which the double refraction is negative for all the rays of the spectrum ; and several years afterwards he discovered the remarkable mineral of omhverile, which is an apophyllite with this property.1 The phenomena of glauberite already described afford an additional illustration of these views. Sect. XIII.— On Crystals with Planes of Double Refrac¬ tion exemplified in Analcime. Analcime or Cubizite, a mineral which has been ranked among the cubical crystals, might have been expected to have had no double refraction if this had been its form. It was found, however, by Sir David Brewster, to be a singular body in its action upon light, and to exhibit the extraor¬ dinary property of rtiany planes of double refraction, or planes to which the doubly-refracting structure was relat¬ ed in the same manner as it is to one or two axes in other minerals. Analcime crystallizes most commonly in the form of the msitetrchedron, as in fig. 53, Plate CCCLXXXIV. If we suppose a complete crystal of it to be exposed to po- arised light, it will give the remarkable figure shown in J>' ’ where the dark shaded lines are planes in which ere is neither double refraction nor polarisation, the on e refraction and the tints commencing at these planes, an . reaching their maximum in the centre of the space enc osed by three of the dark lines. The tints are those n 1 ewton s scale, and are negative in relation to each of .e °^lr 11X68 °1' the icositetrahedron. When light is trans- 1 e through any pair of the four planes which are ad- jacent to any of the three axes of the solid, it is doubly na^ac e ’ t^le least refracted image being the extraordi- in /]°n-e’ anc^ conseclucntly the double refraction negative re ation to the axes to which the doubly-refracted ray 18 Perpendicular. . ^ If we suppose the crystal to have the form of a cube, Polarisa- the planes of double refraction will be, as in fig. 54, a plane tion. passing through the two diagonals of each face of the v-'1”’' cube. The tints vary as the square of the distance from the nearest plane of double refraction. The tints shown in figs. 53 and 54 cannot of course be seen at the same time, but are deduced from observations made by transmitting polarised light in every direction through the crystal. Sect. XIV.— On the Double Refraction and Polarisation of Composite Crystals. In all the crystallized bodies whose action upon light we Composite have been considering, excepting analcime, the phenome-crystais- na are identical in all parallel directions, the smallest frag¬ ment having the same property as the largest, from what¬ ever part of the crystal it is taken. In the mineral w orld, however, and among the products of artificial crystallization, there occur crystals which are composed of several individual crystals whose axes are not parallel. These crystals sometimes occur in such regular symmetrical forms, that mineralogists have long regarded them as simple forms ; and it is probable that they would have still been viewed in this light, if they had not been exposed to the scrutiny of polarised light. One of the most remarkable of these composite crystals is Iceland spar, some specimens of which were observed, even by Bartholinus and Huygens, to exhibit phenomena quite different from those which we have already describ¬ ed. The property which they possessed of multiplying the images of a luminous body seen through them had been carefully studied by Benjamin Martin, Professor Robison, Lord Brougham, Malus, and others; but until the publication of Malus’ work on Double Refraction, no sound explanation w^as given of these remarkable pheno¬ mena. Malus describes the phenomena as produced by fissures parallel to the surface of the variety of this mineral de¬ scribed by Haiiy under the name of chaux carbonatee equiaxe. He explains the duplication of the images on the supposition that there is a fissure or real opening be¬ tween tlie conjoined faces of the spar, and he ascribes the varying tints to a cause not adequate to the production of such splendid phenomena,—to the colouring of the thin plate of air included in the fissure. He states correctly, that the secondary images are doubled by two fissures, tripled by three, &c.2 This class of phenomena was particularly investigated by Sir David Brewster, who found that the fissures de¬ scribed by Malus were thin crystallized laminae of Ice¬ land spar, having their axes of double refraction inclined to that of the portions of the crystal which it separated ; that these laminae varied in thickness, the thinnest pro¬ ducing a large system of rings, and the thicker plates smaller systems, the plates being sometimes so thick that no colours whatever appeared. Hence it was obvious that each crystal of this hind was a polarising and an analysing apparatus, the thin lamina? being the plate which exhibited its polarised tints in this singular position. In order to understand this remarkable structure, we have represented the laminae in fig. 155 by the planes ABCD, ebcg, afhd parallel to the edges EGFH, and also to the long diagonals of the rhomboidal faces, or per¬ pendicular to the short diagonal EF. When w^e look through a crystal with only owe of these laminae, we observe the two principal images of the candle A, B, or luminous VOL. XVI •Edinb. Journal of Science, No. xiii. p. 115. * Theorie de la Double Refraction, p. 194-1011. 3 Q 490 OPTICS. Polarisa- body, while fit a vertical incidence, tion. an(i separated just as they would s'—"'v'—have appeared in a common crystal of the same thickness. But on each side of this double image is a single- polarised image C and D, C being po¬ larised in the same plane as B, and D in Fitr. 156. Fisr. 155. series of rectilineal fringes complementary to the former Po. reflected series is seen. They also are polarised in the same plane as C, or the lowermost secondary image, andbe-^' come much more distinct, by causing the oppositely pola¬ rised pencil to disappear. The structure which produces the preceding phenome¬ na, and the duplication of the images, will be understood from fig. 157, where ABCD the same plane as A. Let us suppose that these phenomena are seen through a rhomb w ith only one plane ABL ( g. 155 and through the faces EACD, BEHC Then, it we incline the rhomb in different directions slightly, we shall see the images C, D disappear when they have a certain distance from A, B. If we incline the rhomb, bringing EA nearer the eve than CD, the images C, D will ap¬ proach to AB, and will be found to disappear nearer and nearer to AB as the inclination is increased, it being ne¬ cessary to bring the edge EG nearer the eye than AD, to make C and D disappear. While C and D are thus ap¬ proaching to A, B, they become less and less coloured till they are all white. If we incline the rhomb in an oppo¬ site direction, so that GD is brought nearer the eye than EA the images C, D recede from A, B, and become more highly coloured, the two images A, B becoming also J0- loured. The images C, D sometimes appear doubled when this inclination is going on, but it is only a dupli¬ city of colour, so to speak, in consequence of the spectrum being divided by portions of it passing into the reflected pencil. When we bring EC nearer the eye than AD, the colours increase, A and B become also coloured, and an apparent colorific duplication of the images C and D takes place. If the rhomb is inclined in an opposite direction, so that AD is brought nearer the eye than EC, the images C D become also at first more coloured ; but by increasing the inclination, the image C recedes rapidly on the right side from A, B, contracts in breadth, and becomes pnsmati- cally coloured, the spectrum which it exhibits being sub¬ divided by several black lines or bands, the parts of the spectrum corresponding to these black lines or dark ban s having passed into the reflected ray. 1 he spectrum D recedes as rapidly to the left, expanding in breadth, and even disappearing, as well as the images A, b. All these phenomena are more finely seen, and the law of their changes more easily detected, if, instead of a can¬ dle, we look at a long line of light, such as the narrow opening between the edges of the window-shutters. If we look through the faces ADl H, ADLG^of the rhomb, placing a prism of glass with an angle of 12° or lo upon one of the faces, to permit the refracted rays to emerge at a moderate angle of deviation, the prismatic images formerly described will be large spectra, subdi¬ vided by black spaces into 4, 5, 6, &c. coloured images of the candle, or of the long luminous line, exhibiting one of the most magnificent phenomena that can be witnessed. These phenomena vary, of course, with the thickness m the enclosed laminae, and as the laminae increase in thick¬ ness the subdivisions of the spectral images become more numerous. . . r When wre reflect light from these laminae, ABED, for example, by allowing the light to enter by the face BFHL, and emerge through the face AFHD, the boundary of total reflection is marked by a series of brilliant rectilineal fringes, polarised in the same manner as the image C, which is now the lowermost. When the light is transmitted through the laminae at the boundary of total reflection, by entering through the face BECG, and emerging through AFHD, a is the principal section of a crystal of this kind of Ice¬ land spar, having AD for its axis. One of the lami¬ nae oppositely crystallized is shown at M?n, Nn, but much thicker than they are ge¬ nerally, the angles AmM, D?iN being 141° 44'. A Fig. 157. ray of ordinary light R5 will he refracted in the lines bcy bd. These rays entering the laminae MN, wall be again re¬ fracted doubly ; but as the vein is so thin as to produce the system of uniaxal rings, the colours will vary with the thickness of the film and the inclination of the ray to the axis of the lamina. The four pencils will emerge from the lamina at e, ^ and will be refracted again, as in the figure, into the pencils em, eny fo, fp, the colours of enyfo being complementary to those of em,^. That the multiplication and colour of the images are pro¬ duced by the causes above explained, has been proved by Sir David Brewster, by actually placing laminae of differ¬ ent crystals between the prisms AN, BN. In this way, by introducing different films in different azimuths, most beautiful combinations may be produced. If we grind down the angles A and B, so as to have two Me faces perpendicular to the"’ axis AB, the uniaxal systemfefthe of rings is beautifully modified by the action ot the d Vl Iliiga AO J , na MN ; and that this was the cause of the singular tranS’ formations which the rings experienced in different crystals, was proved by the author above quoted, by inserting lami¬ nae between two plates of the chaux carbomtee basee of Haiiy, whose natural faces are perpendicular to the axis. These transformations are exceedingly beautiful, home of them are shown in figs. 55, 56, and 57, one of the rings consisting of eight dark radii, while the complemen¬ tary system has its inner circle marked with eight dark- coloured spots. These rings suffer beautiful changes, both bv the motion of the plane round its axes when the analys¬ ing plate is stationary, and by the motion of the analysing plate when the rhomb is stationary. In studying these ph - nomena in a great variety of crystals intersected with one or more laminae, Sir David Brewster noticed a v y markable fact. A rhomb of spar which produced o«e part of it the transformed systems already mentione , hibited a singular effect in another part, where ^ tallization appeared perfect and simple, and • were decidedly no veins or laminae. In oneposi ° ^ muth of this crystal, this portion gave, as migh 1 . , w th the black cross mutn or tms crystal, uu» piui — - o , expected, the regular system of rings with the all Vi # , ,ro shown in fig. 29. But upon turning 1^01111^ the rings became elliptical, as shown at AbE S the first order of colours in one quadrant having j second order of colours in the adjacent qua ran arms of the black cross took the contorted po , being the continuations of it afterwards, viz. am, c ’ ticai so very faint as to show the continuity f ^k. linors. In this figure the rings ot the same orde ediith the same figure. The very same pi "® "- which points to important theoretical colBeque^ j ^ observed by the same author in another ™ elliptical wholly without veins, but the rings were not as in fig. 58. , , c;r David This composite structure was discovered by OPTICS. 491 a* :|:,n Brewster in various minerals, and he has described it plates, giving a single system of rays having the very pe- very minutely in the case of Brazilian topaz, sulphate of culiar colours which have been already described. A num- potash, and opophyllite* her of veins appear at the edges, as shown in the figure. All Sir John Herschel, we believe, first noticed this struc- the other slices lying below this exhibit the beautiful tessel- ture in Brazilian topaz, and observed that the central portion ated figure shown in fig. 01. The outer case MNOP which of the crystal had a different colour from the external as it were, binds together the internal portions, consists of portion, and that the plane of the principal section of the a great number of parallel veins or plates, which (five the different parts made angles of 20 rt:0. Sir David Brewster colours of grooved surfaces. This frame encloses nine found very remarkable arrangements of the coloured por- different crystals, namely, the central lozenge abed, the tions, which he has represented in coloured drawings in prisms A, B, C, D with trapezoidal bases, and the four the Cambridge Transactions, vol. ii. In some of these triangular prisms ehl, him, nkg, gfe, all of which are sepa- crystals the structure was tesselated, as in fig. 158, where rated by distinct lines or veins, which are nearly all visible ABED, CBEF, are the two external tesselae, at one of the by the microscope by a proper method of illumination, obtuse angles of the rhomboidal section. If we suppose In polarised light they are all seen with great facility. The most extraordinary fact connected with this struc- Fig. 158. that these tesselae are divided into four laminae, 1, 2, 3, 4, and that MN is the principal section, or one of the neu¬ tral axes of the central portion of the crystal contiguous to DEF, then the laminae 1, 1 have their principal section in the direction aa', forming a very small angle with MN; the laminae 2, 2 have their principal section in the line bb, and so on to the superficial laminae 4, 4, which have their principal section in the direction inclined from 10° z±: to 22° z±z to MN, the inclination varying in different crystals. The lines aa', bb', &c. are also the principal sec¬ tions of the corresponding laminae on the side NC. In like manner, the principal sections aa', /3/3', &c. of the la¬ minae in BCFE, are the principal sections of the corre¬ sponding laminae on the other side AN. As the laminae, however, are infinite in number, the principal sections have every possible direction between dd' and dd* The bipyramidal sulphate of potash, which Count Bour- non supposed to be a simple crystal, wras found by Sir Da¬ vid Brewster to be a tesselated crystal, composed of three pair of crystals of the prismatic sulphate of potash com¬ bined so that each pair had their principal axis parallel. H'hen exposed to polarised light, each pair gave the sys¬ tem of biaxal rings, and when held at a distance from the eye, had the tesselated appearance shown in fig. 59, Plate ELCLXXXIV., each opposite pair of the triangles having the same tint.1 Ihe most remarkable of this class of minerals, and in- eed the most remarkable body in the whole mineral ’ingdom, is the tesselated apophyllite. It crystallizes most commonly in four-sided rectangular prisms, like CD, fig. • It we remove the uppermost slice A and the under¬ most B to the thickness of between the 50th and the 100th 0 arVnch, and examine it either by the microscope or by poaused light, we shall find that it is like other uniaxal iure is, that the central lozenge has only one axis of double refraction, like the terminal plates A, B, fig. 60, while the four prisms A, B, C, D, and the four triangular spiaces, have two axes. In A and D the planes of the resultant axes are coincident, as in the opposite triangles of sulphate of potash, and lie in the direction MN, while the planes of the resultant axes in B arid C lie in the direction OP. When the plate MONP is exposed to polarised light and turned round its axis before the analysing plate, the lozenge abed wall be dark in every position of the plate, while the portions A, B, C, D will depolarise the light, or be luminous, when MO or ON are parallel or perpendicular to the plane of primitive polarisation. Remarkable as is the structure which we have now de¬ scribed, it is greatly excelled in beauty by another variety of Faroe apophyllite, in which Sir David Brewster dis¬ covered the most extraordinary organization. He has given an enlarged coloured drawing of the fine symmetrical tints which it exhibits in polarised light, in the Edinburgh Trans¬ actions; but we hope its structure may be understood by the following description which he has given of it. The crystals have a greenish-white tinge, and are aggregated together in masses. The quadrangular prisms are in ge¬ neral below one twelfth of an inch in width ; they are al¬ ways unpolished on their terminal planes; they have the angles at the summit more deeply truncated than the other quadrangular prisms from Faroe ; they are always perfectly transparent; and may sometimes be detached in a complete state, with both their terminal summits. “ In examining this variety of apophyllite, I was enabled, by the perfection of the crystals, to study their structure through the natural planes, and at right angles to their axes. The phenomena which this investigation presented to me w'ere of a very singular and unexpected nature. In symmetry of form and splendour of colouring they far surpassed any of the optical arrangements that I had seen, while they developed a singular complexity of structure, and indicated the existence of new laws of mineral orga¬ nization. “ When a complete crystal of this variety of apophyllite is exposed to polarised ligVt, with its axes inclined 45° to the plane of primitive polarisation, and is subsequently examined with an analysing prism, it exhibits, through both its pair of parallel planes, the appearance shown in fig. 62. In turning the crystal round the polarised ray, all the tints vanish, re-appear, and reach their maximum at the same time, so that they are not the result of any hemitropism, but arise wholly from a symmetrical combi¬ nation of elementary crystals possessing different primitive forms and different refractive and polarising powers. The difference in the polarising powers is well shown by the variation of tint; and the difference of refractive power may be observed with equal distinctness by examining the Polarisa¬ tion. 1 See Edinburgh Philosophical Journal, vol. i. p. 1. i 492 OPTICS. Polartsa- crystal with the microscope under favourable circumstan- tion. ces 0f illumination, when the outlines of the symmetri- cal forms shown in fig. 62 will be clearly visible. “ In examining the splendid arrangement of tints ex¬ hibited in the figure, the perfect symmetry which appears in all its parts is particularly remarkable. The existence of the curvilineal solid in the centre ; the gradual diminu¬ tion in the length of the circumscribing plates, in conse¬ quence of which they taper, as it were, from the angles of the central rectangle to the truncated angles at the summits; but, above all, the reproduction of similar tints on each side of the central figure, and at equal distances from it, cannot fail to strike the observer with surprise and admiration. “ The tints exhibited by each crystal vary, of course, according to its thickness; but the range of tint in the same plate, and at the same thickness, generally amounts in the largest crystals to three of the orders of colours in Newton’s scale. The central portion, and the two squares above and below it, have in general the same in¬ tensity, while the four segments round the central por¬ tion, and some of the parts beyond each of the squares, are also isochromatic. In the central part the colours have a decided termination; but towards the summit of the prism their outline is less regular, and less distinctly marked ; though this irregularity has also its counterpart at the other termination. A part of these irregularities is sometimes owing to the longitudinal striae on the natu¬ ral faces of the crystal, so that by carefully grinding these off, the beauty and regularity of the figure is greatly im¬ proved. “ In order to ascertain the order of the colours polarised by the crystal, and observe in what manner they passed into one another, I transmitted the polarised light in a direction parallel to one of the diagonals of the quadran¬ gular prism, and thus obtained, as it were, a section of the different orders of colours from the zero of their scale. The result of this experiment, which is shown in fig. 63, was highly interesting, as it displayed to the eye not only the law according to which the intensity of the polarising forces varied in different parts of the crystal, but also the variation in the nature of the tints, and the connection be¬ tween these two classes of phenomena. At the points in the diagonal mn, opposite to ba of the crystal, the tints rose to the seventh order of colours; and in other two places opposite to cdy they were only to the sixth; while near the summits at mn, they descended so low as the/o«r^ or¬ der. Hence it follov/s that the four curvilineal segments, fig. 62, are next to these in intensity; that the central portions of the squares are again inferior to these ; and that the weakest polarising force is near the summit of the prisms. At ab, the fourth, fifth, and sixth fringes have a singularly serrated outline, exhibiting, in a very interest¬ ing manner, the sudden variations which take place in the polarising forces of the successive laminae. “ Having thus described the structure and properties of the tesselated apophyllite, it becomes interesting to in¬ quire how far such a combination of structures is compa¬ tible with the admitted laws of crystallography. The growth of a crystal, in virtue of the aggregation of minute particles endowed w’ith polarity, and possessing certain primitive forms, is easily comprehended, whether we sup¬ pose the particles to exist in a state of igneous fluidity or aqueous solution. But it is a necessary consequence of this process, that the same law presides at the formation of every part of it, and that the crystal is homogeneous throughout, possessing the same mechanical and physical properties in all parallel directions. “ The tesselated apophyllite, however, could not have Pa ^ been formed by this process. It resembles more a work of t. art, in which the artist has varied, not only the materials, ^ but the laws of their combination. “ A foundation appears to be first laid by means of an uniform homogeneous plate, the primitive form of which is pyramidal. A central pillar, whose section is a rectangular lozenge, then rises perpendicularly from the base, and con¬ sists of similar particles. Round this pillar are placed new materials, in the form of four trapezoidal solids, the primi¬ tive form of whose particles is prismatic; and in these solids the lines of similar properties are at right angles to each other. The crystal is then made quadrangular by the ap¬ plication of four triangular prisms of unusual acuteness. The nine solids arranged in this symmetrical manner, and joined by transparent veins performing the functions of cement, are then surrounded by a wall composed of nu¬ merous films, deposited in succession, and the whole of this singular assemblage is finally roofed in by a plate exactly similar to that which formed its foundation. “ The second variety of the tesselated apophyllite is still more complicated. Possessing the different combinations of the one which has just been described, it displays, in the direction of the length of the prism, an organization of the most singular kind. Forms unknown in crystallo¬ graphy occupy its central portion ; and on each side of it particles of similar properties take their place at similar distances, now forming a zone of uniform polarising force, now another increasing to a maximum, and now a third descending in the scale by regular gradations. The boun¬ daries of these corresponding though distant zones are marked with the greatest precision, and all their parts as nicely adjusted as if some skilful workman had selected the materials, measured the spaces they were to occupy, and finally combined them into the finest specimen of na¬ tural mosaic. “ The irregularities of crystallization which are known by the name of made or hemitrope forms, and those com¬ pound groups which arise from the mutual penetration of crystals, are merely accidental deviations from particular laws which govern the crystallizations in which they oc¬ cur. The aberrations themselves testify the predomi¬ nance of the laws to which they form exceptions, and they are susceptible of explanation by assuming certain po¬ larities in the integrant molecules. The compound struc¬ ture of the apophyllite, however, cannot be referred to these capricious formations. It is itself the result of a ge¬ neral law, to which there are no exceptions, and when more deeply studied and better understood, it must ultimately lead to the introduction of some new principle of organi¬ zation, of which crystallographers have at present no con¬ ception. . “ The difficulty of accounting for the formation of apo¬ phyllite is in no way diminished by giving the utmost li¬ cense to speculation. We cannot even avail ourselves of the extravagant supposition of a crystalline embryo, which, like that of animal and vegetable life, gradually expands to maturity. The germ of plants and animals is nourished by a series of organs, of which, however recondite be the operation, we yet see the action and witness the effects, but in the architecture of apophyllite no. subsidiary organs are seen. The crystal appears only in its state of perfec¬ tion ; and we are left to admire the skill which preside at its formation, and to profit by the instruction which is so impressively conveyed by such mysterious organization. We have represented in figs. 66 and 67 the figure pro duced by polarised light by an internal slice of the barre or cylindrical apophyllite from Kudlisaet, in Disco Islan , 1 Edinburgh Transactions, vol. ix. p. 323. OPT i- brought home by Sir Charles Giesecke. The figures are from ditFerent specimens. The shaded part of them has Yonly one axis of double refraction, while the four sectors have two axes, the luminous sectors being analogous to the prisms]A, B, C, D, and the dark figure to the central lozenge abed, in fig. 61. The mechanical structure of the cleav¬ age planes resembles the optical figure even after the planes are ground.1 Sect. XV.—On the Absorption of Light by Uncrystallized Bodies. When a beam of light passes through the most transpa¬ rent media, such as air and water, a certain portion of it is lost. This loss of light is particularly apparent in such bodies when a beam of light has traversed a great thick¬ ness of the gas or the fluid. This loss of light has been called absorption, and the Hght lost is said to be absorbed; a term which we use at present as merely expressing a fact There are two kinds of absorption which may be no¬ ticed. 1. That in which all the rays of the spectrum are proportionally absorbed or lost; and, 2. that in which dif¬ ferent quantities of the differently coloured rays are lost. Those bodies in which the first kind of absorption takes place are colourless, and those in which the second kind takes place are coloured. In black ink, for example, the transmitted light of the sun is white. In red ink it is red, more of the most refrangible rays of the spectrum being lost than of the least refrangible ones. When a beam of the sun’s light falls upon a piece of charcoal, the light is almost wholly lost or absorbed. Sir Isaac Newton thought that the light was reflected or re¬ fracted “ to and fro” within such bodies till it was lost; but still the question meets us, why is it lost ? If it is scattered in all directions it must emerge again from the charcoal, and be visible in some way or other. In order to meet this and other difficulties, the light is supposed to be detained within the body, and somehow or other unit¬ ed to its substance. In the case of red ink and similar bodies Sir Isaac New¬ ton conceived that the blue rays which were lost w’ere reflected by the particles of the ink, while the red rays were transmitted, as in the colours of thin plates; but as we cannot by any process see these blue rays, we can only say that they are lost, and the cause of their loss is as diffi¬ cult to be found as in the phenomena of imperfect colour¬ less transparency. The following are the general phenomena of coloured absorptions in transparent bodies. 1. Red transparent solids or fluids absorb, generally speaking, the blue end of the spectrum. 2. Blue substances absorb, generally speaking, the red end of the spectrum. 3. Green bodies absorb both the blue and the red ends of the spectrum. I1. Yellow bodies absorb the blue and part of the green of the spectrum. But when we examine more narrowly the action of co¬ loured bodies on the spectrum, we find that a body may derive its peculiar tint from absorbing two, three, four, up to many hundred separate parts of the spectrum, so that the colour of such a body is the combination of all the i parts of the spectrum which are not absorbed. We may mfer, however, from the general tint of the body, what parts of the spectrum it has chiefly absorbed. Bed nitrous ICS. 493 gas, for example, must have acted most powerfully upon Polarisa- the blue end of the spectrum, as we have already seen tion. that it does. Three theories of absorption have been recently publish- Sir John ed, namely, by Sir John Herschel, Baron Wrede, and M. HerseheL Lame, all of which are founded upon the undulatory the¬ ory. Sir John Herschel conceives that light may be lost within bodies by the interference of different parts of a ray, which, after taking two routes of different lengths, meet again in a condition to interfere. This hypothesis has been modified by Mr Whewell in the following man¬ ner: “If we conceive,” says he,2 “ with Sir John Her¬ schel, a medium which will not transmit vibrations except through certain canals, these canals must have a determi¬ nate direction, and therefore such a constitution would give different proportions in different directions. But let a medium consist of certain particles regularly distributed, the intervening space being filled by a medium capable of vibration. Let it be supposed, also, that each vibration, on reaching a medium so disposed, proceeds in part direct¬ ly and in part by the indirect routes which go round some of the particles and rejoin the direct course. We have thus combinations of ramifying and uniting paths, which, though very complex in each direction, are the same in different directions, in consequence of the regular distri¬ bution of the particles. If the distribution, though regu¬ lar, have a reference to certain axes, as in many crystals, the phenomena of absorption may be different in different directions with regard to these axes. “ In this wray the theory of ramifying canals comes to coincide with the theory of vibrations, of which parts are differently retarded, and thus interfere with each other; a theory which has been suggested by other authors.’’ Baron Wrede3 supposes the particles of a transparent bo- Baron dy placed regularly at equal distances, with the ether dif- Wrede. fused between them. When a ray of light is propagated directly through this medium, a portion of it encounters some of the particles, and is reflected backwards, then for¬ wards again, and emerges along with the direct ray, so that the reflected and direct portions will be in a state to inter¬ fere and destroy each other. This theory, which is analo¬ gous to Newton’s, or rather the very same as Newton’s, is liable to the objection we have already urged to every theory in which the light is supposed to be decomposed by interior reflections. Now, Baron Wrede’s hypothesis may explain all the phenomena, such as dark bands and dark lines, which are known to be produced by thin plates of various thicknesses, as Dr Young has stated ;4 and it may even explain those bands and absorptions which have been recently discovered in decomposed glass by Sir David Brewster, where the effects are clearly produced by a com¬ bination of a great number of thin plates,5 but where the reflected light is as copious as the transmitted light. But we cannot conceive it at all applicable to the cases of ni¬ trous gas (to which he has attempted to apply it), and to solids and fluids, in which all attempts have failed to dis¬ cover any of the reflected rays. The hypothesis of M. Lame, which we have already M. Lam£ stated in our history of Optics, is incompatible with the actual phenomena of absorption. In place of the lines and bands depending on the surface of emergence, the system of lines is determined by the action of the first surface of the body, a fact independent of all theory. Of all the theoretical views which we have mentioned, we consider those given by Sir John Herschel and Mr Whe¬ well as the most consistent with observation. They re- ‘ Edinburgh Transactions, vol. ix. p. 328. lavlor’s Scientific Memoirs, part iii. Hub Trans, 1837, part ii. lleport of the Fourth Meeting of the British Association, 1834, p. 551. 4 Elements of Natural Philosophy, vol. i. p. 468. 494 OPTICS. Jlecent in quiries. lieve us from the difficulty of accounting for the reflected light; but though they have this in their favour, they are not founded on any direct data, and indeed were brought forward, as Mr Whewell remarks, “ to show that there is no incongruity between the undulatory theory and the phenomena of absorption.” ■ An attempt has been recently made by Sir David Brewster to deduce an explanation of absorption, both in uncrystallized and doubly refracting bodies, from direct ex¬ periment ; but as the details have not been published, we can only at present give a very general notice of it. Having been led to suppose, along with Dr Young, that a transparent medium transmits light in two sepaiate P®r“ tions, one passing through its ultimate particles, and the other through its pores, and that these portions reumte continually after each successive separation, Sir David Brewster endeavoured so to combine a number of thin plates, that the light transmitted through the whole should move with different velocities, the differences being so small as to produce interference. This task he found to be a very difficult one, but he succeeded, after many fail¬ ures, in finding a doubly-refracting mineral upon which he could impress this mechanical condition.2 When he placed a small aperture upon this crystal, in order to exclude as much as possible all the light which had not experienced any change in its velocity, and looked through it at a well- formed prismatic spectrum, or, what was the same thing, analysed the light transmitted by the plate with a good prism, he was astonished at the sight which was present¬ ed to him, not only because it confirmed his views on a subject of such high scientific interest, but from the splen¬ dour of the phenomena which it displayed. The spectrum was covered with the sharpest bright and dark lines and bands grouped with all the irregularity of the solar and nitrous gas lines. The bright lines of maximum inten¬ sity were variously placed ; and in almost every spectium thus formed there was a narrow band of pure homogene¬ ous white light, incapable of being decomposed by pris¬ matic analysis. But the interest of this result did not stop here. The spectrum of the ordinary differed from that of the extraordinary ray, and the brightest lines had a different locality in each of thevn. Here then we have the phenomenon of dichroism, of the absorption of light in crystallized and uncrystallized'bodies, and of bright and dark lines and bands in the spectrum, and of the unequal absorption of rays of the same refrangibility, but differing in colour, all displayed by an artificially produced com¬ bination, in which we know that the phenomena are owing to the interference of rays differently retarded. It can therefore scarcely be doubted that the varied phenomena of absorption arise from the differences of velocity in t e rays which pass through the ultimate pai tides and throug i the pores of bodies. The constitution of the body, or the arrangement of the ultimate particles in the first film on which the light is incident, determines the nature of the absorptive action which the body exercises at diffeient thicknesses. of palladium, tourmaline, and other crystals. The origin 111 of this singular property was not known till Sir David Brewter investigated its origin in iolite, and showed that it''*! was connected with the doubly-refracting structure; that it never occurred in the tessular crystals which did not pos¬ sess double refraction. The connection of dichroism with double refraction, and its general laws, will be understood from the following ob¬ servations. In a specimen of yellow Iceland spar the ex¬ traordinary image is of an orange-yellow colour, while the ordinary image is yellowish-white. Along the axis of double refraction the colour of the two pencils is exactly the same, and the difference of colour increases with the inclination of the refracted ray to the axis. Hence the difference of colour increases in proportion to the difference of the velocities of the two rays, and is consequently a maximum in the equator of double refraction, and is the same in all parallels; the colour along the axis being the natural colour of the mineral. This is the invariable law of the phenomena in uniaxal crystals. The following are the observations made by the author already referred to. Colours of the two Images in Crystals with one Axis. Names of Crystals. Colour whenuts Axis Colour when its Axis is in the Plane of Pri- is Perpendicular at mitive Polarisation, that Plane. Zircon Sapphire Ruby Emerald Emerald Beryl blue Beryl green Brownish white Yellowish green Pale yellow Yellowish green Bluish green Bluish white Whitish Beryl yellow green Pale yellow Rock crystal, al- lWhitish most transparent J Rock crystal, yellowT ellowish white A deeper brown Blue Bright pink Bluish green Yellowish green Blue Bluish green Pale green Faint brown Amethyst Amethyst Amethyst Tourmaline Rubellite Idocrase Mellite Blue Grayish white Reddish yellow Greenish white Reddish white Yellow Yellow Phos. of lime (lilac)Bluish (olive) Bluish green Phos. of lead Bright green Calcareous spar Orange yellow Octohedrite Whitish brown Yellow Pink Ruby red Ruby red Bluish green Faint red Green Bluish white Reddish Yellowish green Orange yellow Yellowish white Yellowish brown Sect. XVI.—-On Dichroism, and the Absorption of Com¬ mon and Polarised Light by Doubly Refracting Crystals. The name of dichroism or double colours, was given very appropriately, byM. Cordier, we believe, to a mineral called iolite, which in common light exhibited two different colours in different directions. Dr Wollaston and several minera¬ logists had observed this double colour in certain crystals . Phil. voi. ii. p. uo/. The same property was afterwards found in several crystallized minerals. Sir John Herschel has found this property beautifully displayed in the sub-oxysulphate of iron, which crystallizes in six-sided prisms. Along the axis the colour is a fv blood-red, while through the sides of the prism it is ot a Lujut green colour. Several tourmalines have also been od- served by Sir John to have these same colours along the axis, and at right angles to it. There can be httle doubt that this property will be found in every crystal of suffieien thickness that has the property of double refraction. if the crystal is colourless, a slight inequality in the inten¬ sity of the two images may be observed; and when distinctly coloured, the difference ot intensity is very ^ 3' seen, even when the two colours are not oi a differen The phenomena of dichroism are best seen in CFys , ‘ with two axes of double refraction, and are well exeaip - i Dr Young made this supposition, not to explain absorption, but to account for the dispersion of colours by refracti Nat. Phil. vol. ii. p. 937- I OPTICS. fied in iolite, a mineral which crystallizes in six or twelve sided prisms. These prisms are of a deep blue colour when ^seen along the axis, and of a yellowish brown colour when viewed in a direction perpendicular to the axis. If abed is a section of the prism of iolite in a plane parallel to the axis of the prism, the transmitted light Fig. 159. will be blue through the faces ab and dc, and ar^ yellowish-brown through ad, be, and.in every \/ direction perpendicular to the axis of the^f prism. If we grind down the angles a, c, b, d, so as to replace them with faces m n, m! n', 6 andop, o'jo', inclined 31° 41' toot?, or to 7j\ /\ the axis of the prism ; then, if the plane rn^0 passes through the resultant axes of double refraction, we shall observe, by transmitting polarised light through the crystal in the directions ac,bd, and subsequently analysing it, a system of rings round each of these axes. The sys¬ tem will exhibit the individual rings very plainly if the crystal is thin ; but if it is thick, we shall observe, when the plane abed is perpendicular to the plane of primitive polarisation, some branches of blue and white light, diverg¬ ing in the form of a cross from the centre of the system of rings, or the poles of no polarisation, as shown at p and p', fig. 67, where the shaded branches represent the blue ones. The summits of the blue masses atp and jo' are tipped with purple, and are separated by whitish light in some speci¬ mens, and yellowish light in others. The white light be¬ comes more blue from p and p' to o, where it is quite blue, and more yellow from p and ft to c and d, where it is com¬ pletely ye//ow. When the plane a 5 c r? is in the plane of primitive polarisation, the poles p, ft are marked by spots of white light, but everywhere else the light is a deep blue. In the plane cadb, fig. 159, the mineral, when we look through it at common light, exhibits no other colour but yellow, mixed with a small quantity of blue polarised in an opposite plane. The ordinary image at c and d is yel¬ lowish brown, and the extraordinary image faint blue, the former receiving some blue rays/and the latter some yel¬ low ones from c, and at a and b, where the difference of co¬ lour is still well marked. r\l\\e. yellow image becomes fainter from a and b to p and jo', till it changes into blue, and the faint blue image is strengthened by other blue rays, till the intensity of the two blue images is nearly equal. As the incident ray advances from c and d to p and ft, the faint blue image becomes more intense, and the yellow one, re¬ ceiving an accession of blue rays, becomes of a bluish white colour. The ordinary image is whitish from p and ft to o, and the extraordinary a deep blue; but the whiteness gra¬ dually diminishes towards o, where they are both almost equally blue. 1 he principal axis of double refraction in iolite is nega¬ tive. The most refracted image \% purplish blue, and the least refracted one yellowish brown. The following table shows the colours exhibited by crys¬ tals with two axes: Colours of the two Images in Crystals with two Axes. 495 Axis of Prism in the A^5s f PrisI" Polarisa- Names of Crystals. Plane of Primitive dlcular to tb0 Ptane tion. Polarisation. of Primitive Polari- Nitrate of copper Bluish white Chromate of lead Orange Staurotide Brownish red Chloride of gold I T ,, and sodium J Lemon yelIow Chloride of gold | T ami ammonia / Lemon yell°"' Chloride of gold f r „ and potassium 5'ellow Augite Blood red Anhydrite Bright pink Axinite Reddish white Diallage Brownish white Sulphur Yellow Sulph. of strontites Blue cobalt Pink Olivine Brown sation. Blue Blood red Yellowish white Deep orange Deep orange Deep orange Bright green Pale yellow Yellowish white White Deeper yellow Bluish white Brick red Brownish white Polarisation. Blood red Names of Crystals. Mica Acetate of copper Blue unate of copper Greenish white r.vlne Bluish green bphene Yellow Axis of Prism in the AxjS °f Perpen- Plane of Primitive dlcular t0 the Plane of Primitive Polari¬ sation. Pale greenish yellow Greenish yellow Blue Greenish yellow Bluish In the last eight crystals of the preceding table the tints are not given in relation to any fixed line. In Withamite, a crystal whose principal axis is negative in relation to the axis of the prism, the dichroism is beau¬ tiful, and is exhibited both in common and polarised light. When common light is transmitted through the two pa¬ rallel faces of the prism, the tint is of a crimson or ame¬ thyst colour, w ith a mixture of straw colour. Upon turn¬ ing the crystal round, the yellow tint disappears, and the colour becomes a deep crimson-red. On continuing to turn the prism, the colour changes to a straw-yellow, and at the end of half a revolution the crystal resumes its com¬ pound tint. In the groups of crystals which have pene¬ trated the quartz, some of them occupy accidentally the position which gives the yellow colour, others that which gives the red colour, and some that which gives the com¬ pound tint, so that, without a knowledge of their dichroitic property, the group might have been considered as com¬ posed of three different sets of crystals.1 The following table contains the characters of the two pencils in crystals, the number of whose axes has not yet been determined. Phosphate of iron Fine blue Bluish white Actynolite Green Greenish white Precious opal Yellow Lighter yellow Serpentine Dark green Lighter green Asbestos Greenish Yellowish Blue carb.of copperViolet blue Greenish blue Orpiment Sulphur yellow Lighter yellow Sir David Brewster found that the dichroism of several crystals is changed by heat, and that in some cases this property may be communicated to them. In several co¬ loured glasses, too, he found an analogous property, when they had received the doubly-refracting structure either temporarily or permanently.2 Sect. XVII—On the Action of the Surfaces of Crystal¬ lized Bodies upon Common and Polarised Light It was remarked by Mains, that the action of the sur¬ face of Iceland spar upon light is independent of the po¬ sition of its principal section, and that its surface acts like that of any common transparent body.3 In examining, 1 Edinburgh Journal of Science, April 1825, vol. ii. p. 219. * See Phil. Trans. 1819, p. 11 ; or Edin. Philos. Jour. vol. ii. p. 340. 3 Th&orie de la Double Refraction, p. 240, 241 ; and Biot’s Traite de Physique, tom. iv. p. 339. 496 OPTICS. 32 32 18 14 Polarija- however, the superficial action of this mineral, Sir David tion. Brewster discovered, that all its surfaces, without excep¬ tion, exercise a remarkable action upon light, and that its polarising angle varied in different azimuths, excepting when the surface was perpendicular to the axis. If A and A!' are the minimum and maximum polarising angles, viz. in azimuth 0°, or in the plane of the principal section, and in azimuth 90°, or perpendicular to that plane, he found that the variation of the polarising angle was re¬ presented by the following expression, where A' is the po¬ larising angle required at the azimuth a: A' = A -f- sin.* a (A"— A) ; in a plane perpendicular to the axis, A" — A = 0? and con¬ sequently no change takes place in the polarising angle ; in planes inclined 45° 23' to the axis on the actual faces of the rhomboid, A — A = 2° 18'; and in planes coincident with the axis, A" — A =r 4° nearly. The following were the measures which our author ob¬ tained on the natural faces of the rhomb : Polarising Angle. Azimuth 0° 57° 74' 50 57' 58 90 59 On faces nearly parallel to the axes : Azimuth 0° 54 90 58 Sir David Brewster also observed that the polarisation was more complete in azimuth 0° than in azimuth 90° on the faces of the rhomb; but more complete in azimuth 90° than in azimuth 0° in faces parallel to the axis. As these experiments clearly proved that the forces which produced double refraction extended beyond the surface of Iceland spar, our author became desirous of as¬ certaining if the light polarised by reflection from the spar suffered any change from the same cause. He therefore thought of weakening the force which produces reflection, in order to allow the interior force to show its weaker influ¬ ence ; and he accomplished this by placing oil of cassia on its surface, and examining the light reflected at the sepa¬ rating surface of the spar and the oil. The experiments which were thus made, and which are detailed in the Philo¬ sophical Transactions for 1819, completely proved that the interior force polarised common light out of the plane of reflection, and modified the law of intensity, according to which light is reflected at different angles of incidence. These experiments excited no attention till 1835, when Professor Maccullagh, of I rinity College, Dublin, began to investigate the laws which regulate the reflection and re¬ fraction of light at the separating surface of two media. He had anticipated from theory effects the reverse of those deduced from the preceding experiments; and in order to account for the latter, he was obliged to modify his theo¬ retical views, and was thus led to the result, that when a ray is polarised by reflection from a doubly-reflecting sur¬ face, the plane of polarisation deviates from the plane of incidence, except when the axis lies in the latter plane. The formula which expresses this deviation represents very accurately the measures of the polarising angles in different azimuths in the natural faces of the rhomb, the only surface in which the exception is true ; but at all other inclinations of the reflecting planes to the axis, the theory and the for¬ mula are in fault, for there is a large deviation when the axis or principal section of the crystal is in the plane of re¬ flection. _ _ Professor Maccullagh’s success in deducing theoretically the general fact of a deviation increasing as the refractive power of the medium approached to that of the spar, induced Sir David Brewster to resume his inquiries, the general result of which he communicated to the British Association at Bristol in 1836, in the following very brief abstract. “ When light is reflected at the separating surface of two media, the lowermost of which is a doubly-refracting one, the reflected ray is exposed to the action of two forces, 1 one of which is the ordinary reflecting force, and the other a force which emanates from the interior of the doubly re- fracting crystal. When the first medium is air, or even water, the first of these forces overpowers the second ; and, in general, the effects of the one are so masked by the ef¬ fects of the other, that I was obliged to use oil of cassia, a fluid of high refractive power, in order that the interior force of the calcareous spar which I wished to examine might exhibit its effects independently of those which arise from ordinary reflection. The separating surface, therefore, which I used, had a small refractive power; and the reflecting pencil is so attenuated, especially in using polarised light, that it is almost impossible to use any other light than that of the sun. “ When a pencil of common light is reflected from the separating surface of oil of cassia and calcareous spar, the general action of the spar is to polarise a part of the ray in a plane perpendicular to that of reflection, and thus to produce by reflection the very same effect that other surfaces do by refraction. “ On the face of calcareous spar, perpendicular to the axis of the crystal, the effect is exactly the same in all azi¬ muths ; but in every other face the effect varies in different azimuths; and depends upon the inclination of the face to the axis of double refraction. On the natural face of the rhomb common light is polarised in the plane of reflection, in 0° of azimuth, or in the plane of the principal section; but at 38° of azimuth, the whole pencil is polarised at right angles to the plane of reflection ; and in other azimuths the effect is nearly the same as I have stated in my printed paper. * “ In order, however, to observe the change which is actu¬ ally produced upon light, it is necessary to use two pencils, one polarised -J- 45°, and the other — 45°, to the plane of incidence. The planes of polarisation of these pencils are inclined 90° to each other, and the invariable effect of the new force is to augment that angle in the same manner as is done by a refracting surface, while the tendency of the ordinary reflective force is to diminish the same angle. Hence l was led to make an experiment in which these opposite forces might compensate one another. I mixed oil of olives and oil of cassia, till I obtained a compound of such a refractive power that its action in bringing to¬ gether the planes of polarisation should be equal to the ac¬ tion of the new force in separating them. Upon reflecting the compound pencil from this surface, I was delighted to find that the inclination of the planes was still 90°, and I thus obtained the extraordinary result of a reflecting sur¬ face which possessed no action whatever upon common or upon polarised light. “ The action of the new force when the plane of reflec¬ tion coincides with the principal section of the crystal isobvi- ously inexplicable by any theory of light, though I have no doubt that the undulatory theory may ultimately accommo¬ date itself to this as well as to other classes of phenomena which it does not at present embrace. The difficulty, no"' ever, is increased by another result of my experiments, whicn it is important to notice. On the faces of the spar w ic are inclined 0°, 45°, 90°, to the axis of double refraction, the action of the new force is symmetrical upon the t pencils of polarised light whose planes are incline + and — 45° to the plane of incidence; whereas in aflm e j mediate faces, whose inclination to the axes is a 67^°, the plane of one of the polarised rays remams statioi ary, while that of the other is turned round 15°. “ This effect is undoubtedly a very extraordinary one, a indicates some singular structure in calcareous spar, nature of which it is not easy to conjecture. larijt ioa. 'r* is k f OPTICS. u “ 1 have examined tnese phenomena by using, in place of oil of cassia, various fluids whose refractive powers descend .^gradually to that of water ; but it would be a waste of time to give any detailed account of them at present. I shall only state, that the action of the new force becomes weaker and weaker as the force of ordinary reflection is increased, by diminishing the refractive power of the oil which is placed in contact with the spar. With an oil of the highest refractive index, the action of the new force predominates over the feeble power of the ordinary force of reflection. With an oil of a lower index the two forces exactly balance each other; while with oils of still lower indices of refraction, the ordinary force overcomes and conceals the action of the new one. “ Although I have obtained pretty accurate measures of the amount of the deviations produced by the new force, on eight surfaces, differently inclined to the axis, and in various azimuths on these surfaces, yet many experiments are still necessary before we can hope to discover the phy¬ sical law of the phenomena; and if this should be done, 1 have no doubt that Mr Maccullagh will be equally suc¬ cessful in the higher attempt of accounting for them by some modification of the undulatory theory.” Sect. XVIII—On the Mutual Action of Polarised Pays. This curious subject has, we believe, not been studied by any other philosophers but M. Arago and M. Fresnel, and we shall therefore make no apology for giving an ac¬ count of the results which they obtained, in the words of M. Fresnel himself:1— “ In studying the interferences of polarised rays, M. Arago and I found that they no longer exercise any influ¬ ence upon one another wdien their planes of polarisation are perpendicular to each other; that is, that they cannot then produce fringes, although all the necessary conditions for their appearance in ordinary cases be scrupulously ful¬ filled. I shall describe the three principal experiments which illustrate this fact, beginning with that which be¬ longs to M. Arago. It consists in making two pencils, emanating from the same luminous point, and introduced by two parallel slits, traverse two piles of very thin trans¬ parent plates, such as those of mica or blown-glass, which are sufficiently inclined to each other to polarise almost completely each of the two pencils, taking care that the two planes are perpendicularly inclined to each other. In this case no fringes can be perceived, whatever care may have been taken thus to compensate the differences of both in varying very gently the inclination of one of the piles ; but when the planes of incidence of the piles are no longer perpendicular to each other, they always cause the fringes to appear. In proportion as the planes cease to be paral¬ lel, the fringes become weaker, and they disappear alto¬ gether when they are rectangular, provided the polarisa¬ tion of the two pencils has been sufficiently complete. It results from these experiments, that rays polarised in the same plane influence one another, like the rays of light not modified ; but this influence diminishes in proportion as the planes of polarisation deviate from one another, and becomes nothing when they are rectangular. The following is another experiment which leads to the same results. Take a plate of sulphate of lime or of rock- oiystal parallel to its axis, and of a uniform thickness; cut it m two, and place each of the halves upon one of the slits j)t the screen. I suppose that we have turned the two ia ves in such a way that the edges which were in contact e ore the division of the plate are parallel, and the axes 1 a 80 Parallel. But, in this case, we only perceive a single group of fringes in the middle of the bright space as it was before the division of the plates. But, if we turn one of these halves in its plane, thus disturbing the paral- e ism of their axes, we make two other groups of fainter hinges spring up, situated one on the right, and the other on the left of the group in the middle, and which are com¬ pletely separated from it, in the white light when the plates of rock-crystal or of sulphate of lime which are used, are only a millimetre thick. It is to be remarked, that the number and breadth of the fringes lying between the mid¬ dle of one of these groups and the central group, is propor¬ tional to the thickness of the plates for crystals of the same kind, or whose double refraction is of the same strength, like rock-crystal and sulphate of lime. In proportion as the angle of the two axes increases, these new groups of fringes become more and more distinct, and attain at last their maximum intensity when the axes of the two plates are perpendicular to each other. In this position, the cen¬ tral group, which had been gradually weakened, altogether disappeared, and is replaced by a uniform light. From this we may conclude, that the rays which produce them, by their interference, are no longer capable of influencing one another. From the position of these fringes, it is easy to see that they result from the interference of the rays, which have undergone the same kind of refraction in the two plates, since, having travelled with equal velocities, they ought to arrive simultaneously at the middle of the bright space which corresponds to the equal routes, if as we suppose the two plates have the same thickness, and always con¬ tinue perpendicular to the rays. Hence, the fringes of the central groups were formed by the superposition of those which arise—1. From the interference of the ordinary rays of the left plate with the ordinary ray of the right plate ; 2. From the interference of the extraordinary rays of the first plate with the extraordinary rays of the second. The two eccentric groups, on the contrary, arise from the in¬ terference of the rays which have undergone diflerent re¬ fractions in the two plates ; and as it is the ordinary rays which move with the greatest velocity in sulphate of lime or rock-crystal, we see that, if we employ one of these two species of crystals, the left group ought to be formed by the union of the extraordinary rays of the left plate with the ordinary rays of the right plate, and the right group by the union of the extraordinary rays of the right plate with the ordinary rays of the left plate. This being established, it remains now to determine the direction of polarization in each of the pencils which interfere, in order that we may deduce from it what are the relative directions of the planes of polarization which favour or hinder their mutual influence. Analogy shews that the mode of the polarization of light ought to be the same as in the small plates in crystals thick enough to divide it into two dis¬ tinct pencils. But as this hypothesis might perhaps be an object of discussion, and contradict an ingenious theory of one of our most celebrated philosophers, we shall not pre¬ sent it at first as a certain principle, and we shall have re¬ course to a direct experiment to determine the planes of polarisation, both of the ordinary and extraordinary rays which emerge from these plates, which we suppose to be one or two millimetres thick. This thickness is sufficient to allow us to cut one of their edges obliquely, and obtain by this prismatic form the separation of the ordinary and extraordinary rays. We then find that they are effectual¬ ly polarised, the first in the principal section, and the others in a perpendicular direction. If we are not sufficiently convinced that this is their manner of polarisation in emerg 497 Polarisa¬ tion. Elemrns dr /->/„, : r ■ riginal Memoir, but have translated this portion of it from M. Pouillet s very valuable work, entitled ns (la 1 "ytiquc Experimental et de Meteorologie, liv. viii. chan. iii. VOL. XVI. 1 3 R 498 OPTICS. Polarisa¬ tion. ing from each plate when these two surfaces are parallel, we shall find a new demonstration of this in the facts that we are about to describe, setting out from the principles established by the experiments of M. Arago, and which are besides confirmed by others, of which we are going to speak. If, on the contrary, we no longer question the di¬ rection of the polarisation of the ordinary and extraordinary rays, actual experiment will afford us a second demonstra¬ tion of these principles. When the axes, indeed, of the two plates were parallel, the rays which had experienced the same refractions in the two crystals were found po¬ larised in the same direction, and those of contrary colours in rectangular directions. It is thus that the group o fringes in the middle which proceed from the interference of rays of the same name, had a maximum intensity, and the two others, which resulted from the interference of t le rays of contrary names, did not appear again. But when the axes of the two plates formed an oblique angle, of 4 5 toi instance, the rays of a contrary name, and those of the same name, could act at the same time one upon the other, since their polarising planes were no longer rectangular, and the three groups of fringes were produced. When, m short, the axes became perpendicular to one another, the rays o the same colour were polarised in rectangular directions, and the central group, to which it had given birth, vanish¬ ed, while the ordinary rays of the left plate were then po¬ larised parallel to the extraordinary rays of the right plate, and this is the cause why the right group which they pro¬ duce attained its maximum intensity. It is the same with the left group, arising from the interference of the ordinary rays of the right plate with the extraordinary rays of the left plate. .. , . , The following is a third experiment, which entirely con¬ firms the results which we have drawn from the first. Ha¬ ving polished a rhomb of calcareous spar upon two oppo¬ site faces, wrought with care so as to be quite parallel, 1 sawed it perpendicularly to these faces, and I obtained in this manner two rhombs of equal thickness, and m w ic i the routes of the ordinary and extraordinary rays were ex¬ actly parallel at the same incidence. I placed them one be¬ fore the other, so that the rays proceeding from the luminous point which had traversed the first rhomb passed through the second, taking care that their faces were perpendicular to the direction of the incident rays ; moreover, the prin¬ cipal section of the second rhomb was perpendicular to that of the first, in such a manner that the four pencils which they produced were in general reduced to two ; the ordi¬ nary pencil of the first rhomb was refracted extraordinarily in the second, and the extraordinary pencil of the first was refracted ordinarily in the second. From this arrangement it followed, that the difference of the route, proceeding from the difference of velocity of the ordinary and extraor¬ dinary rays, was found compensated for by the two emerg¬ ing pencils. They crossed each other, too, at a very small angle, and such that the fringes ought to have had a mag¬ nitude much more than sufficient to be seen ; and, notwith¬ standing, though the necessary conditions for the produc¬ tion of the fringes, in ordinary circumstances, were care¬ fully observed, I never could succeed in making them ap¬ pear. While I was searching for them with care, holding a mag¬ nifying-glass to my eye, I gently varied the direction of one of the rhombs, sometimes to the right, sometimes to the left, in order to compensate the effect resulting from any difference of thickness that might have existed; but in spite of this trial, repeated a great many times, I never could perceive any fringes ; and this is not surprising, after what the other experiments have taught us, since the two pencils emerged polarised at right angles to each other. But what proves that the absence of fringes does not de¬ pend upon the difficulty of arriving by trials at an exact compensation is, that I easily succeeded in making them ] appear by employing the light which had been polarised before it entered the rhombs, and in causing it to receive s a new polarisation after its emergence. It is, then, com¬ pletely demonstrable from the experiments which I have described, that rays polarised at right angles cannot exert any sensible influence upon one another; or in other words, that their union always produced the same intensity of light, whatever may be the difference of route of the two pencils which interfere. Another remarkable fact is, that when they have been once polarised in rectangular directions, it is not sufficient that they are brought back to a common plane of polariza¬ tion, in order that they may give apparent signs of their mutual influence. If in the experiment of M. Arago, in¬ deed, or that which I have described, we cause the rays which have emerged from the two slits, and which are pola¬ rized at right angles, to pass through a pile of inclined platesof plane glass, no fringes were perceived, in whatever direction its ray of incidence was turned. Instead of a pile, we may employ a rhomb of calcareous spar, if we incline its principal section at 45° to the plane of polarisation of the incident pencils, so that it divides into two equal parts the angle which they make with each other, each image will contain the half of each pencil, and these two halves having the same plane of polarisation in the same image, ought to produce fringes there, if it is sufficient to bring back the rays to a plane of common polarisation, to re-establish the apparent effects of their mutual influence. But the fringes can never be obtained by this method, as long as the rays have not been polarised in the same plane, before they were divided into two pencils polarised at right angles. When the light has experienced this previous polarisa¬ tion, on the contrary, the interposition of the rhomb makes the fringes reappear. The most advantageous direction to give the primitive plane of polarisation, is that which divides Tnto two equal parts the angle of the rectangular planes, in which the two pencils are polarised in the second instance, because then the incident light is equally divided between them. Suppose, in order to fix our ideas, that the primi¬ tive plane of polarisation is horizontal, it will be necessary that the planes of polarisation impressed upon each of the two pencils, is inclined 45° to the horizontal plane, the one above it and the other below it, in such a man¬ ner that they remain perpendicular. We can obtain this rectangular polarisation either with the help of the two little piles employed in the experiment of M. Arago, or with two plates whose axes are rectangular axes, or, finally, with a single crystallized plate: We shall only consider this last case, the two others presenting phenomena pre¬ cisely similar. To divide the light into two pencils, which cross under a small angle, and which may thus produce fringes, the apparatus of two mirrors is generally better tnan the screen pierced by two slits, because it produces more brilliant fringes. It has, besides, the advantage ot giving immediately to the two pencils the previous pohn- sation necessary to our experiment; it is sufficien o purpose that the two mirrors should be of glass not ti > and inclined 35° to the incident rays ; care must b taken to blacken them behind, to destroy the second r flection. We place near them, in the line of the reflects rays, and perpendicularly to their direction a plate ot su phate of lime or of rock-crystal parallel to the ?X1S’ one or two millimetres thick, inclining its principal tion 45° to the plane of pnmitive polansation, whic , have supposed horizontal. The apparatus eing P we only L a single group of fringes across the pl»t« before its interposition, and it occupies the sampl before its interposition, aim nf‘ lass But if we put before the magnifying-glass, a pne 0 | plates, inclined in a horizontal or vertical direction, OPTICS. L cover on each side of the central group another group of fringes, which is the more distant as the crystallized plate U is thicker. If we replace the pile of plates by a rhomb of calcareous spar, whose principal section is divided horizon¬ tally or vertically, we shall see in each of the two images which it produces, the two systems of additional fringes which the interposition of the pile of plates has caused to appear; and it deserves to be remarked, that these two images are complementary to one another ; that is to say, that the ob¬ scure bands of the one correspond to the brilliant bands of the other. We see in this experiment a new confirmation of the principles demonstrated by the preceding ones. The rays which have experienced the refractions of opposite names, cannot influence each other, because, in emerging from the same plate in the case we are now considering, they are found polarised in rectangular directions; consequently the groups to the right and the left cannot exist, at least while we have not re-established the mutual influence of those rays by bringing them to a common plane of polarisation ; this is what is effected by the interposition of the pile of plates or of the rhomb. The fringes thus produced are the more distinct, as the two pencils of contrary names which concur in their formation are more equal in intensity ; and this is the reason why the direction of the principal section of the rhomb, which makes an angle of 45° with the axis of the plate, is the most favourable to the appearance of the fringes. When the principal section of the rhomb is parallel or perpendicular to that of the plate, the rays re¬ fracted ordinarily by the plate pass entirely into one image, instead of being divided between the two, and all the ex¬ traordinary rays pass into the other image, so that there can be no more interference between them ; and the ad¬ ditional groups of fringes disappear, each image presenting only the fi inges which resulted from the interference of the rays of the same name, that is to say, those which compose the central group. These two groups of additional fringes which polarized light exhibited in the first position of the rhomb, afford one of the most exact methods of measuring double re- laction and of studying its law. Their eccentric position, indeed, depends on the difference of route of the ordinary and extraordinary rays which emerge from the plate; and we can judge of the number of undulations by which the ex¬ traordinary rays of the right pencil remain behind the or- dinary rays of the left one, by the number and width of the fringes comprised between the middle of the right group, and that of the central group. We may determine this differ¬ ence °f route still better, by measuring the interval between the middle of the two extreme groups, which is the double 1 wJfT. ,lst'lnce from the middle of the central group. ite ig it is best suited for this kind of observations, be¬ cause it is brightest, and renders the central band of each group easier to.be observed. By comparing the thickness the plate with the difference of the observed route, we ! may deduce from it the ratio of the velocities of the ordi- naiy and extraordinary rays.” Sect. XIX. — On the Production of Double Refraction tioii' Pressure> and slotv and rapid Indura- 499 Unders, tubes, spheres, cubes, and rectangular plates of Polarisa- fffss, all the phenomena of which were discovered by Sir tion. .David Brewster. . . 1. Cylinders of Glass with one axis of double ref raction. 1 take a cylinder of g]assj ACBD, fig. 69, from half an inch to an inch in dia¬ meter or upwards, about one-half an inch or more in thickness, and transmit heat uniformly from its circumfer¬ ence to its centre, it will exhibit, when placed between the polarising and the analysing plate, and held about eight or ten inches from the eye, the system of uniaxal rings shewn in fig. 69, exactly similar to those in fig. 29; and by turning round the analysing plate, we shall see the com¬ plementary set, as in fig. 31, these rings will be seen as if they were in the substance of the glass, and hence, if we cover up any part of the circular surface, we shall cover up a corresponding part of the system of rings. The axis of the system or of double refraction is here fixed in the axis of the cylinder, and does not lie in every direction parallel to that axis, as in regularly crystallized bodies. The system of rings thus produced is negative, like those in calcareous spar. As soon as the heat reaches the axis of the cylinder, the rings become less bright, and they disappear entirely when the heat is uniformly distributed through the glass. 2. Positive Axis.—If we heat a similar cylinder of glass uniformly in boiling oil or otherwise, and cool it rapidly at its edges by encircling its margin with a cold and good conducting material, it will exhibit a similar system, which will vanish when the glass is uniformly cold. This system of rings, however, is positive, like those of Zircon, and if it is placed above the equal negative system, produced as already described, they will destroy each other. If the two systems are not equal, we shall have a system equal to tneir difference, as in positive and negative uniaxal crystals. In both these systems the tint at any point varies as the square of the distance of that point from the axis, so tfiat if I is the tint at any distance D, the tint t corre¬ sponding to any distance d, will be t= ——. If V is the d2 velocity of the ordinary ray, we shall have the velocity of the extraordinary ray v = Y2 a d2. If we transmit polarized light through the cylindri¬ cal surface of these cylinders, we shall observe the pheno¬ mena of biaxal systems exactly the same, as in rectangular plates, fig. 81, the tints being produced by the action of the positive or negative axis of the cylinder acting in op¬ position to an axis passing through each diameter of the cylinder, drawn perpendicular to any point in the middle line of the cylindrical surface. (’fVar110us phenomena of double refraction and the sys- » npn ,PO anfd nngS’ may be Pr°duced either transiently P manently in glass and other substances, by heat and nd ’ anc* dilatation, and by slow and gradual light ov n’ Phenomena thus produced in polarised he beautiful, and throw much light on abject of double refraction. Art-1- On the Transient Influence of Heat and Cold. e influence of heat and cold may be exhibited in cy- 2. Oval Cylinders, with two axes of double refraction. If we perform the two experiments above described with oval cylinders, as in fig. 70, we shall have a system of rings with two axes. A new axis is developed perpendicular to the axis of the cylinder, and in the case of the heated cylinder the new axis at O is a positive one, while in the CA°£e™y,inder ifc is a negative one, the neutral black lines AD, LB separating the two classes of tints, and corre¬ sponding to the dark hyperbolic branches in biaxal systems of rings. The figure referred to is that shewn in azimuths inc ined 45 to the plane of primitive polarization ; but in the azimuths of 0° and 90°, the branches AD, CB re¬ sume the form of the rectangular cross. 3. Cubes and Parallelepipeds of glass with double refraction. Cubes of Glass. — When the shape of the glass is that of a cube as in fig. 71, the figure which it pro¬ duces in azimuth 0° by the two processes of heating and 500 Polarisa¬ tion. OPT cooling is that shewn in the figure, the tints being nega- gative or positive according as we apply heat or cold. The complementary system is shewn in fig. 12. Parallelepipeds of Glass—In a parallelepiped 0.38 of an inch square, and 1.11 long, the direct and complemen¬ tary systems at 0° of azimuth are shewn in fig. 73 and 74. The first of these consist of a black cross, surrounded with beautiful fringes of contrary flexure, and four bright green spots of the third order. The coloured spots at the angles of fig. 74 are of a brilliant pink colour, with a spot of blue in the middle of each. When the azimuth is 45°, the direct and complementary systems change into fig. 75 and 76. 4. Cylindrical Tubes of Glass with two axes of double re¬ fraction. When the cylinder has the form of a tube, as in fig. 77, the double refraction is singularly distributed by the application of heat or cold either to the outside ABCD of the cylinder, or to its inside abed, or to both. A black circular fringe mnop, is the central line which se¬ parates the outside or positive structure from the internal ne¬ gative structure, and rice versa. The breadth of the inter¬ nal annulus a o is always less than A o, that of the exter¬ nal one. They approach to equality as the bore of the cylin¬ der widens, and the negative structure grows very small, as shewn in fig. 78, when the bore diminishes; so that when the bore becomes infinitely small, the system becomes either wholly negative or positive, according as heat or cold has been used. If when fig. 77 is fully developed, we cut a notch EF in the cylinder, we shall have a biaxal system of fringes in which there is a positive structure be¬ tween two negative ones, or vice versa, as shewn in fig. 79. The diameter op, fig. 77 and 78, is a geometrical mean between the interior and exterior diameters of the tube, that \$,op — V (AB Xab). 5. Rectangular Plates of Glass, with planes of double re¬ fraction. If a well annealed parallelepiped of glass EFCD, fig. 80, is submitted to the processes already described, or even if we lay one edge of it CD on a piece of iion almost red hot, and place the whole between the po¬ larizing and analyzing plates, so that if the heated edge CD is inclined 45° to the planes of primitive polariza¬ tion, and the eye can see the whole surface of the glass, a series of remarkable phenomena will be produced. The moment the heat enters the lower surface at CD, fringes of brilliant colours are seen above CD, and almost at the same instant, before the heat has reached the upper EF, or even the central line a b, similar fringes will appear at EF. Colours, at first faint blue, then white, yellow, orange, red, &c. of the first order spring up at ab, and these central colours are separated from those at the edges by two dark lines or planes MN, OP, corresponding to'the hyperbolic branches in biaxal crystals, the double refraction between MN and OP being negative, in refer¬ ence to a line perpendicular to the fringes, while it is positive without MN and OP. The tints thus developed are those of Newton’s scale. If T is the central tint in the line « 6, D the distance of either of the lines MN, OP, from a b, the tint t at any other Td2 distance d, will be * = T —- -^F, a formula deduced from Td2 the opposition of two axes. The term -jj2- represents the influence of the principal axis or axes perpendicular to the line a 5 at every point of it; but as the axis in the plane of the plate produces an uniform tint Tj whose maximum is ICS. in the line ab, where the action of the other axis disap. p0i; pears, and as these axes oppose each other hy acting rec- tt tangularly, they will compensate each other in the linesw' MN, OPj and the tint at any point must always be equal to Td2 the difference of the tints, or to T The magnitude 2 D, or the distance between MN and OP, is a function of the breadth of the plate or b, and 2 D: V = 10 : 16.02 and D r= .312 B2. The fringes seen through the thickness of the plates is shewn in fig. 81, and the one seen through the ends in fig. 82. If we wish to find the tints in reference to the lines M N, O P, let 5, V be the distance of any point from these lines, whose distance from a b was d, then we have 2 = 1—d, 2 := 1 d and 1 —d2, that is the tint at any point varies, as the product of the distances of that point from the planes of the resultant axes M N, O P. Ifwe makev2 = an expression which gives v the velocity of the extraordi¬ nary ray, we shall have the extraordinary refraction in such plates. 6. Spheres and Spheroids of Glass with double Refraction. Spheres If we place a sphere of glass in a glass-trough of hot oil or otherwise heat it regularly, we shall find that when the heat is passing to the centre of the sphere, it will exhibit a positive uniaxal system of rings like that in fig. 69, in every direction in which we transmit the polarized light; that is, it will have an infinite number o\'positive axes of double refraction. If a hot sphere of glass is immersed in a glass-trough of cold oil, a similar system of rings will be produced in every possible direction ; but it will be negative. Spheroids. If we substitute oblate and prolate spheroids in place of the sphere in these experiments, we shall find that they will have each a positive system of rings round their axis of revolution. It the polarised light is transmit¬ ted through an equatorial diameter, we shall find that there are two axes of double refraction, the black cross opening out when the axis of revolution is inclined 45° to the plane of primitive polarisation. In the prolate spheroid the black cross opens out in a different plane. 7. On the Effects produced by combining Plates of Glass under the transient influence of heat and cold. If we combine any two plates of the same shape, the resulting system of fringes will be equal to the sum of their systems or effects, if the plates are of the same name, that is, both positive or both negative, or to the difference of their effects, if they are of different names. W hen the plates are solids or symmetrical forms, such as cylinders, cubes, or quadrangular plates, no essential variation o figure is produced by the combination; but when the plates are rectangular, very interesting phenomena are ex¬ hibited when plates of the same or of different names are crossed rectangularly. Sir David Brewster has given or mulae for calculating the forms of the compound or isochro- matic curves, as he calls them, but our space will on y per mit us to exhibit the effects to the eye. When equal rectangular plates of similar names, a is, both negative or both positive, are crossed, the p e nomena of the intersectional fringes, as they may be ca e , are shewn in fig. 83, where the isochromatic curves llWCTOO las* • • When the plates are of different names, the oneP0S1.tl™ and the other negative, and of the same breadth, an same number of fringes, the isochromatic curves are cles, as in fig. 84. OPTICS. 501 Pol;i ’ tio When the plates are of different names, and of different be parabolas, as shewn in fig. 91, whose vertex will be to- y> i • breadths, but containing the same number of fringes, the wards the convex side of the bent plate, if the principal 0tiaonSa isochromatic curves will be ellipses, as in fig. 85. axis of the other plate is positive, but towards the concave ' side, if that axis is negative. 8. On the effects produced by altering the form of, or subdi¬ viding plates of glass under the influence of heat or Art. IV. On the Double Refraction produced by gradual cold. Induration and difference of Density in soft Solids. If we alter the shape of any of the plates above described, the form of the isochromatic curves is immediately changed. If we cut any rectangular plate into two by a line pass¬ ing through its middle, each of the two plates thus pro¬ duced has the property of the whole plate, though the fringes are less numerous. If a plate ABCD gives the tints shewn in fig. 86, OP and MN being the dark neutral lines; then if we cut it with a diamond at ab, so as to sub¬ divide it into two plates, as in fig. 87, each of the plates EFrs, GH r s, will have the same structure as ABCD, viz. two neutral lines op, m n, and assume positive and ne¬ gative tints. Art. II. On the Permanent Influence of Rapid Cooling. In March 1814, Sir David Brewster found that glass melted and suddenly cooled, as in the case of Prince Ru¬ pert’s drops, possessed a permanently doubly refracting power, and he communicated this fact in a letter to Sir Joseph Banks, dated April 8. 1814 ; and without knowing that Dr Seebeck had published in December 1814 similar results with cubes of glass, our author had discovered that cubes, cylinders, plates, spheres, and spheroids of glass, exhibiting permanently the phenomena described in th e preceding pages, may be formed by bringing them to a red heat, and cooling them rapidly and equally on their edges. A great variety of beautiful optical figures, developed in polarised light, may thus be obtained by cooling the glass on metallic patterns. A very simple elfect of this is shewn in fig. 88, where the plate of glass was cooled by resting it at its centre on a cy¬ linder of iron. The phenomena of luminous sectors, separated by a black cross at the central part of the uniaxal system of rings, which Sir David Brewster discovered round cavities in the diamond, in glass, and in various gums, arise from the gradual induration of the mass, combined with the elastic pressure of the air included in the cavities : They are therefore not properly cases of induration alone. When isinglass is dried in a circular trough, it exhibits, by polarised light, the uniaxal system of rings like glass, in fig. 69. When it is indurated in the form of a rectangular mass, by the exposure of two sides, fringes are produced pa¬ rallel to these sides, and biaxal like those in rectangular plates of heated glass. A sphere of transparent jelly or isinglass, when allowed to indurate gradually, will have an axis of double refraction in every direction, like a sphere of glass heated. In like manner an indurated spheroid will exhibit the biaxal struc¬ ture of a spheroid of glass. The most splendid examples, however, of this class of facts are exhibited in the lenses of fishes and animals, as shewn in figs. 92 and 93. The first of these shews the doubly refracting structure of the crystalline lens of a cod, along the axis of vision. The central and the external lu¬ minous sectors have a negative doubly refracting structure, while the intermediate ones have 3l positive structure.1 The figure given by the crystalline lens of a cow is shewn in fig. 93, where there are four series of luminous sectors, the central ones hemg positive, the next negative, the next positive, and the last negative? Art. III. On the production of Double Refraction by Com¬ pression and Dilatation. The effects of compression and dilatation in producing double refraction were discovered by Sir David Brewster, and communicated to the Royal Society in 1815. Our li¬ mits will permit us to only give a slight notice of them. The phenomena both of compression and dilatation or extension may be well seen by bending, merely with the orce of the hands, a square rod, or a long and narrow plate of glass, as in fig. 89. When it is held between the polarising and analysing plate, eight or ten inches trom the latter, with its edge AB inclined 45° to the plane ot primitive polarisation, the whole thickness of the glass wi be covered with two series of coloured fringes, like those in the figure separated by a dark neutral line MN, where there is neither compression nor dilatation. The nnges on the convex side are negative, being produced >y t e extension ot the glass in the direction m \, ra B, while those on the concave side are produced by the com- pression of the glass in the directions C n, D n. The iso- c rnmatic curves marked by similar figures, indicating the °* t^e co^ours’ are bent 35 in the figure, ti en a P^ate °h bent glass producing fringes crosses o icr at right angles, the effect at the intersectional in !? 8 ,wn in fig- 90, where the tint is supposed only m ,e white of the first order- taller.aiPlate °f be.nt glass is crossed W1th a plate crys- e y heat, the fringes in the intersectional square will CHAP. II. ON CIRCULAR POLARISATION. 1. Circular Polarisation in Rock-crystal and Amethyst. The general phenomena of circular polarisation were dis¬ covered by M. Arago in 1811. He found that in plates of rock-crystal, the colours polarised along its axis were dif¬ ferent from those which he had studied in plates of other crystallised bodies. When they were analysed by a prism of Iceland spar, he found that the two images had comple¬ mentary colours in the ordinary tints, but, what was re¬ markable, they descended in Newton’s scale as the prism revolved, so that if the tint of the extraordinary image was red, it became in succession orange, yellow, green, and blue. Hence he concluded that the differently coloured rays had been polarised in different planes in passing along the axis of the rock-crystal. M. Biot took up the subject at this point, and investi¬ gated it with his usual ingenuity and success. He found that while in some crystals of quartz the tints descended in the scale of colours, by turning the analysing prism from right to left, in others they descended m the scale by turning the prism from left to right. The one he called left-handed quartz, and the other right-handed quartz. He took a plate of quartz, for example, jjth of an inch thick, and having polarised the homogeneous colours of the spectrum, he transmitted them in succession along the axis of this plate, and obtained the following 1 See Phil. Trans., 1816, p. 311. 2 See Phil. Trans., 1837, vol. ii. 502 OPTICS. Circular results. W hen the analysing plate was in 0 of azirnutu, polarisation t]ie rcd light polarised by the plate was a maximum. ' When the analysing plate was turned from right to left, the red tint gradually diminished, and after a rotation of 171°, it wholly vanished. With a plate 2-25ths of an inch thick,” the red tint did not vanish till after a rotation of 35°, and so on, every additional 25th of an inch of rock crystal requiring an additional rotation of 11 ^ to make the tint vanish. A whole inch of quartz, for example, would require 25 X 17^0=437i°, or one whole turn, and 77^° more to cause the red tint to vanish. It is obvious that twenty- five plates of quartz, l-25th of an inch thick, would produce the same effect as- one inch of it. . Wrhen right-handed plates, however, are combined with left-handed ones, the rotation produced is equal to the dif¬ ference of their actions ; thus a plate of left-handed quartz l-25th of an inch, combined with a plate 2-25ths of an inch, would produce a rotation of only 17^°. The following table contains the rotations produced upon the other coloured rays of the spectrum, as given by M. Biot:— Arc of rotation for l-25th Names of the ray. 0f an inch in quartz. Extreme red, 17°‘4964 Limit of red and orange, 20 *4798 Limit of orange and yellow, 22 -3138 Limit of yellow and green, 25 ’6752 Limit of green and blue, 30 -0460 Limit of blue and indigo, 34 *5717 Limit of indigo and violet, 37 *6829 Extreme violet, 44 *0827 M. Biot conceived that this property of quartz belonged to its ultimate molecules, but Sir David Brewster proved that this was not the case, by shewing that heat deprived quartz of the property of circular polarisation; and Sir John HerscheTs beautiful discovery, that it was connected with the crystallisation of the mineral, put this result beyond a doubt. He found that those crystals in which the plagied- ral faces described by Hauy, went round the crystal from right to left, exhibited the optical properties of left-handed crystals, and those crystals in which the plagiedral faces leant round the crystals from left to right, had the properties of right-handed crystals. Hence he concluded that what¬ ever he the cause which determined the direction of rotation, the same law acted in determining the direction of the pla¬ giedral faces. . When Sir David Brewster discovered the system of rings in quartz, he found the tints of circular polarisation occu¬ pying, as might have been expected, the inner circle of the rings as shewn in fig. 94, only small portions of the black Pig. 94. crogs being visibie ; but these black portions were larger as the plate became thinner. In examining the structure and properties of the ame- Amethyst. gir Davi(i Brewster found that this singular mineral was actually composed of the two different kinds of quartz, viz., the right-handed and the left-handed. These two kinds of quartz are arranged in veins, as represented in figs. fi95, 96. In fig. 95, the shaded veins which correspond hlg , to each alternate face of the pyramid turns the planes of polarisation from right to left, while all the rest of the crys¬ tal turns the same planes from left to right; and what is very interesting, the black lines where these two structures unite have no action whatever on the planes of polarisation. In some specimens these opposite veins are so very minute, that they destroy each other’s action upon the polarised ray, and when this happens, the single system of rings appears with its black cross, and entirely free of any of the tints of circular polarisation. The colouring matter of the amethyst is arranged in a very singular manner in relation to these veins; and the fracture across the veins exhibits a beauti¬ ful, and sometimes a regular rippled structure, resembling the engine-turning of a watch, and affords an infallible mi- ci® ir neralogical character of the amethyst, whether its colour is Pdat, jon yellow, orange, olive, green, blue, or perfectly colourless. w The general structure of well crystallised amethysts is Fig, shewn in fig. 96, which is of the natural size, and is taken from one of the finest specimens that Sir David Brewster met with. “ On the three alternate sides of the prism,” says he, “viz., MN, OP, and OR, are placed sectors McN, OdP, QaR, which are divided into two parts by dark lines cc', dd!, aa', which separate the direct structures of A, C, and E from the retrograde structures of B, D, and F. On the other three alternate faces of the prisms are placed the three veined sectors Mc5aR, NcMO, and YdbaQ, which meet at b in angles of 120°, and consist of veins of opposite struc¬ ture, alternating with each other, and so minute, that in many places the circular tints are almost wholly extinguish¬ ed by their mutual action. The direct sectors A, C, andE, are all connected together by the three radial veins ba, be, bd, and are therefore to be considered as the expanded ter¬ minations of these veins. The retrograde sectors B, D, and F, are expansions of the first retrograde veins next to bde, dba, and abc, and the lines cc', dd', and aa', are continua¬ tions of the dark or neutral lines which separate the first re¬ trograde vein from the direct radial veins. “All the sectors A, B, C, D, E, and F, are of a yellowish brown colour, and all the rest of the crystal is of a pale likw colour, the lilac tints being arranged in the manner previ¬ ously described. The phenomena which I have now men¬ tioned as existing in this specimen are very common in the amethyst; and I have never yet found a specimen in which the yellow tints were not confined to those portions which formed the expanded terminations of veins; a fact which in¬ dicates that this would have been the colour of the crystal, whether its action were direct or retrograde, and that the lilac colour affects in general those portions which are com¬ posed of opposite veins.” The subject of circular polarisation received great acces- Fres s sions from the genius of M. Fresnel. He conceived that adlsc' ies- ray passing along the axis of quartz should be refracted in two pencils, and he ascertained this to be the case by the following experiment. He took a prism ACB of right- handed quartz, having its faces AC, BC, equally inclined to its axis AB, so that a ray PV should be incident at angles of 75° on either face. As a ray, however, refracted at R, would not emerge at all from the other side CB, he took another similar prism, but from a crystal of left-handed quartz, and having cut it into two halves, he placed these two halves ACD, BCE, as in the figure, so that he had an achromatic combina- Fig. 160. tion of three prisms. Now a ray PQ inci¬ dent perpendicularly at Q, should pass straight on without deviation, or double , .p,, refraction, if quartz were like other uniaxal crystals. But it me pencil PQ suffer any double refraction at Q, this double re¬ fraction will be doubled at R, because ABC has an opposi e kind of double refraction. The same effect takes place a > so that the ray PQ at its emergence at T, ought to have a very sensible double refraction, even if that at U was y small. NowM. Fresnelfoundthatthisdouble refraction actu¬ ally existed, but upon examining the image he found ttia had suffered a new kind of double refraction, and acqmrt'_ _ properties. In place oftheir being polarised in opposrtep ’ like other doubly refracted pencils, which, when exa with a doubly refracting prism, give two unequal 1 g alternating in brightness during the revolution ot t 1 prism, they exhibit the following properties:—- 1. Either of the quartz rays, when examined wi prism, gave two images of equal intensity in every p° Cir OPTICS. Recem )erime Fig. 161. r of the prism. Hence they resemble unpolarised light, as if iciar on they consisted of two rectangularly polarised rays. 2. They differ from unpolarised light in having the fol¬ lowing remarkable and characteristic property. If either of them are incident at right angles, as shewn at RP, fig. 160, upon the face AB of a parallelepiped of crown glass, having its refracting index 1-51, and its angles ABC and ADC 54-g-0, it will suffer two total re¬ flexions at Q and S, emerging perpen¬ dicularly from the surface DC in the direction ST. Now this ray ST is found to be completely polarised in a plane inclined 45° to the plane of its reflexions, whatever may be the po¬ sition of that plane. If the other ray is incident at rp, and is reflected at q and s, so as to emerge in the direction st, the one ray ST will be polarised in a plane 45° to the right, and the other st 45° to the left of the plane of reflexion. Hence they emerge when superimposed in a state of common light. Hie two rays RP, rp, are said to be circularly po¬ larised. 3. If a ray thus circularly polarised is transmitted through a thin crystallized plate, and parallel to its axis, it is divided by double refraction into two rays of complementary tints, thus shewing a decided difference from a ray of common light; and these complementary colours always differ from those that are produced from light, polarised and analys¬ ed in the usual way, by an exact quarter of a tint either in defect or in excess- 4. A. circularly polarised ray transmitted again along the axis of rock crystal, and subsequently analysed, produces, like common light, no colours, and differs in this respect from polarised light. As two circularly polarised rays RP, rp, emerge from FresneFs rhomb, (as the parallelepiped of glass AB CD, fig. 160, has been called), in rays ST, st, polarised +45° to the plane of reflection, it occurred to Fresnel, and hefound it to be so, that a ray TS polarised 45° to the plane of reflexion m the rhomb, would emerge in the direction PR, as a cir¬ cularly polarised ray, possessing all the properties of one of the rays formed along the axis of quartz. - In an extensive series of experiments, of which we shall give some account in the following chapter, Sir David Brews¬ ter had occasion to examine some of the kindred phenome¬ na of circular polarisation. His first experiments on this subject preceded those of Fresnel. He found that total re- tlexion produced polarised tints analogous to those of crys¬ tallised laminae, and he supposed that these colours were produced by the interference of two portions of light, the one partially reflected in the first instance, and the other beginning to be refracted, and caused to return, by the con- mued operation of the same power.1 In continuing his experiments, he found that the colours produced by total re exion did not rise in the scale by successive reflexions ; an at ie end of 1816, he announced in the Journal of the oya nstitution,I2 that he had discovered “a new species o moveable polarisation, in which the complementary tints never rise above the white (the bluish white) of the first iaer, by the successive application of the polarising influ- i.e’, ,?' . determined experimentally the angles at tlJu- tmt y38 successively produced and destroyed, and fW 1SC0T ereC some ^ie losing properties of total re- snpp^n> r TaS ^r.esnel’ however, that discovered this new snip i° l)0‘ar'sation to be circular, and made those other to S' n dl.S?°nerieS which we have just detailed. We owe vPr •ir fl13 Brewster, however, the discovery of the in- ^—mn ot the spectrum in the phenomena of total reflexion, 508 of which we shall give some account in the next chapter. Circular . . glving the name of circular polarisation to that which Polarisahon is impressed on the two rays along the axis of quartz, b resnel was guided by theoretical considerations. Mr. Airy Discovery inn nftlA0fMr-Airy Fig. 162. Fig. 97. See Chromatics, vol. vi. p. 646, and Phil Trans. 1830, p. 310. has, however, taken a different view of the condition of the light forming these two rays in quartz, and has been led to results of very h,gh interest. The following are the expe¬ riments, which we shall give in his own words, on which he founded his deductions. They were made with a Fres- nei s rhomb, htted up as in the annexed figure, where the rhomb is shewn at rr. “ 1. If Fresnel’s rhomb, mounted as in the annexed figure,be placed to receive the polarised light, so that the plane of reflex¬ ion passes through the divisions 45° and 225°, the calc spar will present another appearance 97. The rings are abruptly and absolutely dislocated: those in the upper right hand quadrant and the quad¬ rant opposite to it, are pushed from the centre by one-fourth of an interval, and those in the other quadrants are drawn nearer to the centre by the same quality. The line separating the quadrants is no¬ where black ; the intensity of its light is uniform, and about equal to the mean intensity. If the plane of incidence pass through 135° and 315°, the phenomena of adjacent quad¬ rants are exactly interchanged. No alteration is made by turning the analysing plate round the incident ray ; the lines dividing the quadrants are always parallel and perpen¬ dicular to the plane of reflexion at the analysing plate. “ 2* If the plane of reflexion in the rhomb pass through 0 and 180°, or through 90° and 360°, the phenomena are precisely the same, and undergo the same changes as those in ordinary rings. If while the plates are crossed, the rhomb be turned gradually from the position 0° towards 45°, the rings are gradually changed, at first becoming (as far as the eye can judge) elliptical, and then assuming the form represented in fig. 98. . “ 3- If a P^te of quartz, whether right or left handed, be Flg’ 98' interposed between the crossed plates, a set of rings is seen like those in fig. 94. As far as the eye can judge, the rings Fje. 94. are exactly circular, but there is no black cross, and the central tint is not black, but removed from it by a number of tints in Newton’s scale proportional to the thickness of the quartz. Thus with a thickness of 0*48 inch, the central tint is pale pink; with a thickness 0"38 inch, the central tint is bright yellowish green; with thickness 0-26 inch it is a rich red plum colour; with thickness 0T 7 inch, it is a rich yellow. “ The colours then appear to be nearly the same, begin- ning from the centre, as in Newton’s scale, beginning with the tint representing this central tint. At a considerable distance from the centre, four dark brushes begin to be vi¬ sible, in the same directions as the arms of the black cross in calc spar. “ 4. Now, (supposing the crystal right handed), if the plate of quartz be thin, and the analysing plate be turned, the upper part towards the observer’s left hand, a bluish short-armed cross appears in the centre, which, on turning further, becomes yellow, and the rings are enlarged. On turning still further, the cross breaks into four dots. The rings are no longer circular, but of a form intermediate be¬ tween a circle and a square, their diagonals (as well as the cross) being inclined to the left of the parallel, and perpen¬ dicular to the plane of reflexion. See fig. 99- If the ana- F- q0 lysing plate be turned the other way, there is no cross ; the Ig form ot the rings is changed from circular nearly as in the former case. “ 5. If the plate of quartz be thick, the dilatation, and the rings, and the change of form are all the perceptible phe- 2 Vol. iii. p. 213. 504 OPTICS, Circular nomena. And on turning the analysing plate continually polarisation to the left, the rings continually dilate, and new spots start '-*~y^''up continually in the centre, and become rings. If the crystal be left handed, the remarks in this and the last ar¬ ticle apply equally well, supposing the analysing plate turn¬ ed in the opposite direction. “ 6. If Fresnel’s rhomb be placed in the position 45 , and the light thus circularly polarised pass through the quartz, on applying the analysing plate instead oi rings, there are seen two spirals naturally inwrapping each other, as m tig. Fie. 100. 100. If the rhomb be placed in position 135°, the figure is turned through a quadrant. If the quartz be left handed, the spirals are turned in the opposite direction. ^ I he cen¬ tral tint appears to be white. With the rhomo which 1 have commonly used, (which is of plate glass, but with the angles given by Fresnel for crown glass), there is at the centre an extremely dilute tint of pink. ^ I think it i e y that this arises from the cross in the angles, as the inten¬ sity of the colours have no proportion to that in other parts of the spirals. The figure was drawn from the appearances sjiven by a plate of quartz O'26 inch thick. & “ 7. If two plates of quartz of equal thickness, but cut one from a right handed, and the other from a left handed crys¬ tal, be attached together, and put between the polarising and analysing plates, the left handed slice nearest to the polarising Fisr. 101. plate, the appearance presented is that of fig. 101. tour spirals (proceeding from a black cross in the centre, whic is inclined to the plane of reflexion), cut a series of circles at every quadrant. The points of intersection are in the plane of reflexion, and perpendicular to it. This is the simplest way of describing the form ; but if we followed the colours which graduate most gently, we should say that the form of each is alternately a spiral and circular arc, quadrant at- “^At a distance from the centre, the black brushes are seen. If the combination be turned, so that the right hand¬ ed slice is nearest to the polarising plate, the spirals are turned in the opposite direction. This is one of the most beautiful phenomena of optics. The slices from whose ap¬ pearance the figure was drawn, are each 0'i6 inch thic • The preceding phenomena are described as they appear when examined with an analysing plate of unsilvered g ass. The following are the theoretical views which Mr. Airy considers as consonant with these experiments. They had been originally suggested to him by the desire of finding some connecting link between the peculiar double refrac¬ tion in quartz, and the common double refraction. “ 1. I suppose the ordinary rays to consist of light ellip- tically polarised, the greater axis of the ellipse being per¬ pendicular to the principal plane, and t^e extraordinary rays to consist of light elliptically polarised, the greater • axis of the ellipse being in the principal plane. “ 2. I suppose that when the ordinary ray is nght-ellip- tically polarised, the extraordinary ray is left-ellipticaliy- polarised, and vice versa. . ~ “ 3. I suppose that the proportions of the axes of the two ellipses are the same, each proportion being one of equality when the direction of the ray coincides with the axis, and becoming more unequal, according to some un¬ known law, as the direction is more inclined to the axis; the minor axes of the ellipses having sensible magnitudes when the rays are inclined 10° to the axis. « 4. j suppose that the course of the rays after refraction can be determined by the construction given by Huygens for calc spar, with this difference only, that the prolate spne- roid for determining the course of the extraordinary ray must not be supposed to touch the sphere for determining the course of the ordinary ray, but must be entirely con¬ tained within it.” In a supplement to his investigations, Mr. Airy remarks, Cir r that he has not yet ascertained the law which connects theP°fr ,, ellipticity of the rays with the angle that they make with^'% the axis. He considers, however, the following points as made out:— “ One of the rays is certainly right-handed elliptical, and the other certainly left-handed elliptical. The major axis of one is certainly perpendicular to the principal plane of the crystal, and the major axis of the other is certainly in tiiat plane. Mr. Airy remarks, that in some trials for mea¬ suring the ellipticities of the rays, he seems to have arrived at the conclusion, that the proportion of the axes of the or¬ dinary ray is more nearly one of equality than the propor¬ tion of the axes of the extraordinary ray.” This subject has recently been investigated by Profes-ProH sor Maccullagh, whose object was to pave the way for a Mae' mechanical theory, by shewing that all the phenomena may1# be grouped together by means of a simple geometrical hy¬ pothesis. Setting out from this hypothesis, he arrives im- mediately at all the known laws, and obtains at the same time a law that was previously unknown, and which is tech¬ nically called the law of ellipticity. By this law Professor Maccullagh has been able to compute the ellipticities ob¬ served by Mr. Airy in rays inclined to the axis of quartz, from the angles of rotation observed by M.Biot in rays pa¬ rallel to that axis.1 The phenomena of circular polarisation were discovered by Sir David Brewster, in plates of glass possessing the doubly refracting structure. M. Dove of Berlin has found it also in compressed glass and has published an inteiesting memoir on the subject, in which he takes little notice of the previous labours of others, on the various subjects of which he treats. As our limits will not permit us to give any ac¬ count of its contents, we must refer our readers to the ori¬ ginal memoir.2 SECT. I, On the Circular Polarisation of Fluids. Although this remarkable property was discovered in some fluids by M, Seebeck by independent observation, yet M. Biot had anticipated him in it, and has made this sub¬ ject so completely his own, by a series of the most elaborate and beautiful researches, that if he had done nothing else tor science, they would have ensured him a high reputation. We regret extremely that our limits will not permit us to give any thing like a full and satisfactory account oi his dis¬ coveries, particularly those contained in his valuable papero 1832. We must therefore refer the reader to his original memoirs, and present to them in as abridged a form as pos¬ sible his leading results. . f M. Biot discovered that some fluids turn the planes a polarised ray from right to left, and others from e t o right. He found also that the tints rose in the scale as m quartz by an increase in the thickness of the fluid, following table contains some of his results :— I. Fluids that turn the Plane of Polarisation from Left to Right. J Arcs of rotation with the red ravs, with a thick- ness of 200 millimetres. Colours. . 9()° -3'2 Oil of fennel seeds Palish green 13| carraway seeds Colourless ^ ^ lavender Greenish a 6 '58 rosemary 03 .($ maijoram Orange yellow 7 sassafras X6!)0" 14 •12 savine... Yellow........ ^ .g^ bitter oranges Greenish yellow ^ ^ .bergamot Colourless .53 lemons ^^Vths of oil of oranges. o™.geyelU.w...;--y;0 ^ M pe j Reddish or. •.K™' T.yI0Cs Scientific Metnoirs. vo,. i. par, i. p. 75. L OPTICS. mlar sation II. Fluids that turn the Plane of Polarisation from Right to Left. Essential oil of turpentine Greenish 59°-21 Naphtha Greenish 15 -21 Oil of anise seeds Greenish... l .51 —— mint Limpid >28 505 lior. Dextr at FeSent!tTWI’’at eSual densities and Elliptical 1 'li ning round the plane of a polarised ray, polarisation only heins superior to it. The name of dex-' w ll a The^” ST? t0 il in 0rder t0 mark the direction as will as the powerful energy of its force of rotation. dwe. Veliowish roSctured. Gf stnroh‘who. PerS°Z l!aVe more recently found a sugar of or, I, li a p0Wcr of rotati™ almost equal to that Oil of mustard an I oil of hitter almonds exercise no ac- tw 1 SUgaJ °f Canes- They have also discovered tion upon polarised light. ,..at’ sugar of canes is dissolved in water mixed with M. Biot found that in a solution of natural camphor in 11 ^te *u]Phunc a«d, and heated below the boiling point, it alcohol, in which there was 0-37117 of camphor in weight 1 Jr L - °f turmn? the Planes of polarisation from to I of the solution, and its density 0-87221, the rotation J 1 right, like sugar of grapes not solidified. Sugar of for red light, and a thickness of 152 millimetres, was 17° !?rC-h submitted to the same process did not experience M. Biot likewise found, that the colouration of liquids did not exercise any influence on their rotatory propertv. We regret that want of room prevents us from giving any account of M. Biot’s more recent, and extremely interest¬ ing researches on the growth and nutrition of plants. These researches have a high practical value, and shew in a man"er that the most abstract researches in physi- 56 fiom left to right. A solution of artificial camphor in alcohol, on the other hand, with 0-0917 of camphor to of the solution, and having its density 0-8455, and in a thickness of 1357 millimetres, produced only a rotation of 24°, but in the opposite direction, from right to left. In gum from Senegal, of which 47"4 parts was dissolved in 99-1 of distilled water there was a rotation from rhdit to left, of 12° 13' 20", with a thickness of 152 millimetres. The following table contains the results which our obtained from different kinds of sugar .- author ^ SdenCe Wil1 S0°ner 0r later find some ll^ful application" Proportion of sugar in 1 of the solution. Sugar of canes, syrup of.. 0-25 — 0-50 0-65 Sugar of milk™ 0-14 -Starch ....0-65 Crystallisable principle of honey ^...0-34- From Left to Right. Arc of rotation of red Molecular light in a thickness of power of Density. 11052 1-2311 1 3114 1-0537 1 -2460 1-1329 16 47 30 Sugar of grapes -g.' 83° 94 70-18 59-99 43-32 10 The rotation From right to left. being observed for the yellow rays, and the thickness of solution 152 millimeters as before. Sugar of grapes in syrup q, q„ Uncrystallisable principle of honey, alcoholic solution 3 38 20 -the same dry j CHAP. III. ON ELLIPTICAL POLARISATION. The phenomena and laws of elliptical polarisation, as they ai e at present known, have been investigated only by Sir David Brewster. This species of polarisation forms the connecting link between plane polarisation and circular polarisation, passing nearly into the former when exhibited by gakcna and into the latter when exhibited by silver. Sir David Brewster found at an early period, what Malus had previously observed, that the light reflected from me¬ tals was polarised in different planes. The former, how¬ ever, found, that the pencil polarised in the plane of re¬ flexion was a ways more intense than that polarised in a per¬ pendicular plane, and which he conceived had entered the metal and been partially absorbed. He found the differ¬ ence between the intensities of these pencils to be least M. Biot made experiments with various vegetable juices, sdver a”d greatest in galaena, metals which had an interme- ■ • - ■ - ~ J Chute effect, being arranged as in the following table. Order in which the metals polarise most light in the plane of reflexion. ..5 50 ..5-33 ..1-81 ..8-00 10-00 ,.3-33 ..1-81 ..2-5 Galaena. Steel. Copper. Lead. Zinc. Tin plate. Grey cobalt. Speculum metal.Brass. Arsenical cobalt. Platinum. Grain tin. Iron pyrites. Bismuth. Jewellers'gold. Antimony. Mercury. Fine gold. Common silver. Pure silver. Total reflexion from glass. all of which gave a slight rotation from right to left. T,,. c .. Thickness of fluid. Rotation 1)0 °/gTel-Wlute 160 millimetres.... Do. red and white mixed 160 Chasselas Muscat lfin Verjuice... . JVZZAeo Lnasselas of Fountainbleau 160 Common black grape 160 Apples for cider Red gooseberries very ripe 80 ernes of the service tree 160 2-5 He found also that, by increasing the number of re- M. Biot also found that claret white nbo™ 1 i i Jxi0nsZ6' who}e of the light could he polarised in one sulphuric ether, citrif add dSoTved in > c P T' iT. 6 ^lte ^ ofa wax candle 10 feet distant, is 30 to 37 of water, sulphuric acitlnure Jnd^rrd^0^01^1011 °f Pfansed by ^reflexions from between 60 0 and80<>, olive oil, produced noeffect Nonpolarised lilt ’ ^ ?0rf1.than? from ^,andin to- He found, however that Xtarfo Nd dS 1 • ,1 tal ^fl^^'^vhere the dhpticdpolarisation becomes circular; proportion of 53 of acid to 52 of water n™ 1 7ed 1,n ,the and wIlen1 the two pencils are equal, the total polarisation of °f 8° from right to left produced a rotation the pencil cannot be effected by any number of reflexions. memoi^is foatofohe^0118 dLSUm inf)^0' Poised light These reflexions are made from tw? metallic Power of rotation, whfoh Almost [rfolp nfth T J 8^en0r Plate? Plac"d betwf» ^ polarising and analysing plate or orted by sugar of canes It ™ T 18 6X' ^ W!hen the plane °f metallic ^flexions is parallel g canes. It surpasses all animal and vege- or perpendicular to the plane of primitive polarisation, its velop^anfsJt free thVdextrhil^01” laUndry St’ hot water> ar,y one of which will rupture the en. VOL. XVI. 3 s i 506 OPTICS. „ 0 i i „-i. ;«r>i;r,orl Ko antlmr “ without any theoretical reference the term circular Elliptic. Elliptical azimuth will be 0°, 90°, 180 , &c. cand wne i polarisation is from this and other facts experimentally ap-polarisat; polarisation to that plane, its azimuth will be 45 , , • oronriate.1 In like manner, without referring to the theore-'^yy ~ ‘ In azimuth 0° no colours are observed by reflexions ^J^tstence of elliptical vibrations ^ by the in- from two plates ofsilver placed parallel to one ano er^ju terference of two rectilineal vibrations of unequal ampli- in the case of crystallised lamime whose axes are m 0 ol terierenee u ^ tKo / tudes we may give to the new phenomenon the name of 1350 orazimuth, the tnost brilUant contplemcn- “^*“4 •V colours are seen, either by turning round e ana y g represented by the variable radius of an ellipse.” Now, it is a curious fact, that while silver restores the ray to angles of 39° 48', other metals restore it to angles deviating more and more from 45°, as is shewn in the fol¬ lowing table: Inclination of restored ray. Total reflexion from glass 45° 0' Pure silver 39 48 Common silver 36 0 Fine gold 35 0 Jewellers’ gold 33 0 Grain tin 33 0 Brass 32 0 Tin plate.... 31 0 Copper 29 0 Mercury 26 0 Platina 22 0 Inclination of restored ray. Bismuth 21° 0' Speculum metal 21 0 Zinc 19 10 Steel. 17 0 Iron pyrites 14 0 Antimony 16 15 Arsenical cobalt 13 0 Cobalt 12 30 Lead 11 0 Galaena 2 0 Specular iron 0 0 Hence it appears that the elliptic polarisation passes into Number of Reflexions. tarv - plate,' or by using a rhomb of spar that gives two images. These colours become fainter and fainter while the azi¬ muth changes from 45° to 90°, or from 45° back to 0 , ex¬ actly like those of crystallised laminae. When a small number of reflexions are used, the tints are fainter and less brilliant, and they increase with the number of reflexions. There is an angle of reflexion about 75°, at which the tints are brightest, and they become fainter as the reflexions are performed at greater or at less aI1 Afl ’the other metals in the preceding table, as well as total reflexion from glass, give analogous colours, but tney are most brilliant in silver, and diminish towards galaena Now, it is obvious, that at about 75° of incidence (it we suppose the metal to be steel) the polarised light which it reflects has acquired some new physical property. 1. It is neither common light nor partially polarisea clrcular nearly in the case 0f silver, and into plane polarisa- light, because if we reflect it a second time at / 5 it is re- ^ ^ ^ ^ of gal(Bna . the eiiipSis becoming nearly a stored to light polarised in one plane. circle in the former case, and a straight line in the latter. 2. It is not polarised light, because it does not vamsn ^ polarised _|_ 45° suffers different degrees of ellip- during the revolution of the analysing rhomb. ticai polarisation by one reflexion from metals, and is re¬ in order then to discover its nature, let it be transmittea . to polarised lightj though in different planes, along the axis of Iceland spar. The common umaxal b econd reflexi0n, so it exhibits the same phenomena system of rings is changed into that shewn in tig. wz, ^05^9 in reflexions, and is restored to polarised hghtby which is similar to the effect produced by crossing tie ^ ^ ^ 10 reflexions at the same angle. The following uniaxal system of rings with a thin film polarising the pale ghews the inclination of the plane of polarisation of blue of the first order. If we substitute tor the Iceland ^ restored ray to the plane of reflexion, in various numbers spar, films of sulphate of lime, we shall find that their tm s reflexions from silver and steel, are increased or diminished according as the metallic ac¬ tion coincides with or opposes that of the crystal. 1 ns experiment led our author into the erroneous opinion that metals acted like crystallised plates; but when he found that a second reflexion at 75° destroyed the effect of the first reflexion, he saw that this opinion was untenable, and was led to consider the phenomena as having some resem¬ blance to those of circular polarisation. . . , We have already seen, that a circularly polarised raj HP, fip-. 161, emerges after two total reflexions in the di¬ rection ST, polarised 45° to the plane of the two reflexions in every azimuth. Now, if we reflect a ray of light R polarised -f-450 at Q, from one plate of silver CD, the rays Q.S will have acquired a property an¬ alogous to that of circular polarisation; for if it is reflected a second time at S, the reflected ray ST will emerge polarised 39° 48' to the plane of re¬ flexion. Now the difference between this result and that from total re¬ flexion, is that one reflexion from sil¬ ver impresses the same character upon light, whereas in total reflexion two reflexions are necessary. Another , , . point of difference is, that when the ray is restored by the same number of reflexions, it is not wholly restored to a plane __ 45°, but only to a plane — 39° 48'. But there is another difference of a very interesting kind. In circular polarisa¬ tion, the ray has the same properties on all its sides, and the angles of reflexion at which it is restored to polarised light in different azimuths, are all equal to the radii ot a circle described round the rays. “Hence, says our 4.. 6.. 8.. 10. 12. 18. 36. Inclination of the plane of the polarised ray. Steel. Silver- _17° 0' — 38° 15' 4- 5 22 + 31 52 — 1 38 — 26 6 , + 0 30 + 217 ._ 0 9 — 16 56 0 3 + 13 30 0 0 — 6 42 0 0 + 0 47 + These results shew in the clearest manner the reason why common light is polarised by 8 reflexions from steel, and not till after 36 reflexions from silver, the planes of inclination of the two rectangularly polarised rays requiring in each case that number of reflexions to bring them into a state The angles at which elliptical polarisation is produced by one reflexion, may be regarded in the present state 0 our knowledge of the subject as the angle of maximum po¬ larisation, and its tangent as the index of refraction ot the metal, as given in the following table : Name of metal. Angles of maximum polarisation. Index of refraction. Grain tin 78° 30' Mercury 78 27 Galcena..... 78 B3 Iron pyrites 77 30 Grey cobalt 76 56 4-915 4-893 4-773 4-511 ,4-309 4-011 Speculum metal 76 0 Antimony melted 75 25 Steel 75 0 Bismuth 74 50 Pure silver 73 0 Zinc 72 30 a Tin plate hammered 70 50 Jewellers’ gold 70 45 3-732 3-689 3.271 3-172 2-879 See Sir John Herschel’s Treatise on Light, § 1050. I OPTICS. cal N.tion Fig We may produce elliptical polarisation by a sufficient number of reflexions at any given angle, in the same man¬ ner as in plane polarisation. The following table contains the results of observations made with steel: Number of reflexions at which Number of reflexions at elliptical polarisation is pro- which the pencil is re¬ duced. stored to a single plane. a 9 15, &c 6 12 IS, &c 86° O' gi 7k m, &c 5 10 15, &c 8i 0 2 6 10," cStc 4 8 12, &c 82 20 507 Observed angle of incidence. 1| 4J 7{, &c 3 6 9, &c. .79 0 1 3 5. &c 2 4 6, &c 75 0 1| 44 74, &c 3 6 9, &c 67 40 2 6 10, &c 4 8 12, &c 60 20 24 74 124, &c 5 10 15, &c 56 25 3 9 15, &c 6 12 18, &c 52 20 At an incidence of 67° 40' elliptical polarisation is pro¬ duced by 1|, 4|, 7^ reflexions. Hence we draw the inter¬ esting conclusion, that the ray must have completed its el¬ liptical polarisation in the middle of the second and fifth re¬ flexion ; thatis,w'hen it had reached its greatest depth within the metallic surface. It then begins to resume its state of polarisation in a single plane, and recovers it at the end of the 3d, 5 th, and 7th reflexion. Another very interesting effect is produced when one reflexion is made on one side of the polarising angle, and the other reflexion on the other side. A ray that has been partially elliptically polarised by one reflexion at 85° does not as in plane polarisation acquire more by a reflexion at 54°, but it retraces its course, and recovers its state of single polarisation. Wehaveseenthatby^o reflexions, there is only owe angle, viz. 73° for silver, at which the elliptically polarised ray can be restored to plane polarisation. At three reflexions there are two angles, viz. 63° 43', and 79° 40', at which the re¬ storation can take place, at four reflexions three angles, and so on. This phenomena is exhibited to the eye in fig. 103, where the concentric arches I, I; II, II, &c., represent the quadrant of incidence from owe, tivo, &c. reflexions, B being the point of 90° and C that of 0°. The point D on the line A is the point or line of maximum elliptic polari¬ sation, viz. 73° for silver, and the figures 1, 2, 3, 4, 5, in¬ dicate the points or nodes of restoration, and their distances from C, the corresponding angles of incidence at which the restoration takes place. The loops or double curves lying between the points 1, 2, 3, &c. are drawn to give an idea of the intensity of the elliptic polarisation which has its minimum at 1, 2, 3, &c. and its maximum at the white intermediate parts. These points of maximum in¬ tensity do not bisect the loops, or are not equidistant from the minima ; but such is their relation that the maximum for « reflexions is the minimum for 2w reflexions. These phe¬ nomena lead us to the explanation and analysis of the com¬ plementary colours which accompany elliptical and circular polarisation. On the Colours of Elliptical and Circular Polarisation. When the preceding experiments are made with homo¬ geneous light, we find that the points and angles of resto¬ ration vary for the differently coloured rays. Thus in sil¬ ver we have the maximum polarising angle as follows : Corresponding index of refraction. Here, then, we have the cause of the phenomena of the Elliptical complementary colours seen in reflexion from metals. They polarisation are analogous to the colours in oil of cassia, and chromate'^*^/”'**' oj lead at the maximum polarising angle.1 Fig. 103. But the remarkable result of the preceding measures is, that in metallic as well as in total reflexion, the index of refraction is less for blue than for red light, or in the lan¬ guage of the undulatory theory, the refractive index in- ci eases with the length of the wave. In a recent commu¬ nication to the Royal Irish Academy,^ on the propagation of light in uncrystallized media, Professor Lloyd has ob¬ tained an expression for the velocity of the propagation of light, each of its terms consisting of two parts with opposite signs, one of which is due to the action of the ether and the other to that of the body. Conceiving, therefore, that there may be bodies in which the principal term is nearly nothing, the principal part of the expression will be that derived from the second term ; and if that term be taken as an approxi¬ mate value, it will follow that the refractive index of the substance must be in the subduplicate ratio of the length of the wave nearly. “ Now,” says Professor Lloyd, “ it is re¬ markable that this law of dispersion, so unlike any thing ob¬ served in transparent media, agrees pretty nearly with the results obtained by Sir David Brewster in some of the me¬ tals. In all these bodies, the refractive index (inferred from the angle of maximum polarisation) increases with the length of the wave. Its values for the red, mean, and blue, ray in silver, are 3'866, 3-271, 2-824, the ratios of the se¬ cond and third to the first being .85 and .73. According to the law above given, these ratios should be .88 and .79” Professor Maccullagh has very recently3 endeavoured to represent the phenomena described in the preceding pages by empirical formulae, in the same manner as Fresnel represented those of total reflexion. The following is a brief abstract of Professor Maccullagh’s researches, which we shall give in his own words. “ The author observes, that the theory of the action of metals upon light is among the desiderata of physical optics, whatever information wre possess upon this subject being derived from the experiments of Sir David Brewster. But, in the absence of a real theory, it is important that we should be able to represent the phenomena by means of em¬ pirical formulae ; and accordingly, the author has endea¬ voured to obtain such formulae by a method analogous to that which Fresnel employed in the case of total reflexion at the surface of a rarer medium, and which, as is well known, depends on a peculiar interpretation of the sign y'— 1. For the case of metallic reflexion, the author assumes that the velocity of propagation in the metal, or the reciprocal of the refractive index, is of the form m (cos. x 4- _ 1 sin.*) ; without attaching to this form any physical signification, but using it rather as a means of introducing two constants (for there must be two constants, m and *, for each metal) into Fresnel’s formulae for ordinary reflexion, which contain only one constant, namely, the refractive index. “ Then if i be the angle of incidence on the metal, and i' the angle of refraction, we have For red light 75\ 3-866 For yellow light 73 3-271 For blue light 701 2-824 1 ^ ^vious that at the point of restoration where De blue rays are restored, and vanish, the red rays are not and tan. 2x'= lestored, and consequently will appear when the principal section of the analysing rhomb is in the plane of reflexion. sin. m (cos. x + 1 sin* x) sin- h and therefore we may put cos. i'— m' (cos. f— 1 sin. x') cos. i, if m'i cos.4 2=1—2 m2 cos. 2 x sin-z *+™4 sin.41 0) m2 sin. 2 x sin.2 i (2) (3) (4) 1—m2 cos. 2x sin.2 i “ Now, first, if the incident light be polarised in the plane lor a full analysis of these phenomena, see Phil. Trans, for 1830, p. 319. Proceedings of Royal Irish Academy, Oct. 24, 1836. 2 Jan. 9, 1837. 508 Elliptical 0f reflexion, and if the preceding values of sin. zv, cos. i', be polarisation substituted in Fresnel’s expression sin. (i—i' sin. (« + «')’ for the amplitude of the reflected vibration, the result may be reduced to the form if we put a (cos. S— — * sin* (5) m tan\J/-=—, m (6) (7) (8) tan fi=tan 2\^sin (x + xO 2_1—sin 2^cos (x + xO a 1 + sin 2-^cos (x+xO Then according to the interpretation, before alluded to, of the angle S will denote the change of phase, or the retardation of the reflected light; and a will be the ampli¬ tude of the reflected vibration, that of the incident vibra¬ tion being unity. The values of m', x', for any angle of incidence, are found by formulae (3), (4), the quantities m, X, being given for each metal. The angle x' is verY snmll, and may in general be neglected. “ Secondly, when the incident light is polarised perpendi¬ cularly to the plane of reflexion, the expression tan (*—i') tan (i i) treated in the same manner, will become if we make a'(cos 8'—v/—1 sin S') tan =tan 2\|//sin (x—x')> •sin 2\//cos (x—x') . tan 8'= 1- (9) (10) (11) u , (12) 1 + sin 2^'cos (x—x') and here, as before, S' will be the retardation of the reflect¬ ed light, and a! the amplitude of its vibration. “ The number M=— rosy be called the modulus, and m the angle x the characteristic of the metal. The modulus is something less than the tangent of the angle which Sir David Brewster has called the maximum polarising angle. After two reflections at this angle, a ray originally polarised in a plane inclined 45° to that of reflexion, will again be plane polarised in a plane inclined at a certain angle (p (which is 17° for steel) to the plane of reflexion ; and we must have tan p=a-Y (13) a Also, at the maximum polarising angle we must have 8'—8=90° _ (14) And these two conditions will enable us to determine the constants m and x for any metal, when we know its maxi¬ mum polarising angle and the value of in place of checking the progress of enqmry, as lias lately done, by declaring the theory of undulations 1 See Edinburgh Journal of Science, A. S. Oct. 1830, vol. iii. p> 27b. < git' O P TICS. E>lisia* na- :he- ,ia. already capable of explaining every phenomenon, regard it as still imperfect even as a mathematical representation of the phenomena, and consider experimental research as the (only means by which a true theory of light can be obtained. 509 Rail w. Fig. 14. FART VIII. ON THE APPLICATION OF OPTICS TO THE EXPLANATION OF NATURAL PHENOMENA. As several of the subjects which belong to this branch of Optics have been treated pretty fully in other parts of this work, we must confine our attention to topics which have not been previously discussed. Sect. I.— On the Rainbow. A general description of the rainbow has already been given among the optical phenomena in Meteorology. In order to explain the progress of the rays of light which form the two bows, let R, R, R, R, fig. 104, be parallel rays pro¬ ceeding from the sun, situated at the back of the observer, placed at O, and let them fall on drops of rain E, F, G, Ef in front of the observer. Some of these rays of light will enter the spherical drops of rain, and those which fall per¬ pendicularly and nearly so, will be transmitted through the drop, and of course never reach the observer at O. Other rays, however, especially those which fall obliquely, will be separated into the prismatic colours at the first refraction, and will subsequently be reflected once, twice, and more times, within the drop, and emerge after one, two, or more reflexions in different directions. Now, it is obvious that there will be some position of the drops, such as E, F, at which rays that have suffered one reflexion will reach the eye of the observer at 0. Drops above these will throw the rays which they re¬ fract after one reflexion above O, and drops below these will throw the same rays below O. In like manner, there must be some position, as at II and G, at which other drops in which the light that has suffered two reflexions will fall upon the eye at 0, the drops above these throwing the rays above, and the drops below them throwing the rays below O. Now,each drop forms by refraction a prismatic spectrum, or coloured and elon¬ gated image of the sun. The rays RE, RF, which reach the eye at 0, must fall upon the lower drops E, F, on their upper- side, as shewn in the figure, and consequently (as may be found by tracing the rays through the drops) the spectrum v Inch they form will have the red rays uppermost, as at r, near F, and the violet rays downwards, as at v, near E; and as the same effect will be produced from all the other drops which reflect the sun’s rays to the point O, there will ap- pear to an eye at O, a coloured bow, such as we see it in the heavens, with all the colours of the spectrum, as if they nad been formed from the sun’s image, by a prism of water mat produced the same degree of refraction. In like man¬ ner, the rays that enter the lower side of the drops will form an inverted spectrum, after two reflexions, in which the red mys are below, and the violet ones above, and as this spec¬ trum is much fainter, it will give a second coloured bow, amter than the first, and having its red side below, and its inlet side above. The following are the dimensions of the two bows:— tance of 40° 28', and that those which suffer four reflexions Expkna- wril form a bow at the distance of 45° 33' from the sun; but don of na- t re light which reaches the eye after so many reflexions is tural phe- too faint to be seen, and these bows have consequently never been discovered. ' Supernumerary bows of red and green light, to the num¬ ber of three, have been seen in contact with the violet arch of the inner bow, and we have seen them also on the out¬ side of the outer or secondary bow. The cause of these is not known, but a very ingenious explanation of them has oeen given in Chromatics, vol. xi. p. 634, sect. iii. Sir David Brewster, upon examining the two rainbows with a rhomb of Iceland spar, found that they consisted wholly of light polarised in the plane of reflexion within the drop, or in planes coincident with the radii of the bow. The two bows present a case of conical polarisation, the part of the bow vanishing as the principal section of the rhomb be¬ comes parallel to its radius. It is strange that the polaris¬ ation of the bow, and consequently of light, had not been discovered when it happened to be seen by reflexion on panes of glass, or other reflecting substances, lying with their planes of reflexion perpendicular to the planes of re¬ flexion w ithin the drop, and near the angle of maximum po¬ larisation. See Meteorology, vol. xiv. p. 749. Sect. II.—On Halos and Parhelia. Radius of the red edge of the inner bow... .42° 2' ~~~~——~ violet edge 40 17 Breadth of the inner bow 1 45 Radius of the violet edge of the outer bow 54 7 ~~— red 50 57 Breadth of the outer bow 3 10 Distance between the bows 8 55 /A- J" ^ias shewn that the solar rays which suffer e exions, will form a bow round the sun at the dis- Thename of halos and parhelia have been given to circles round the sun and moon, some of which are extremely com¬ plicated and beautiful. The general theory of this class of phenomena has been given by Dr. Young, in the article Chromatics, vol. vi. p. 634, sect, ii., and a description of the phenomena themselves, in the article Meteorology, vol. xiv. p. 749. The production of halos, which have their origin in the Artificial refraction and reflexion of crystals of ice floating in the at- kales, mosphere, may be illustrated by the following method given by Sir David Brewster. A few drops of a saturated solu¬ tion of alum spread over a plate of glass, so as to crystallise rapidly, will cover the glass with an imperfect crust, which is composed, wdren examined by the microscope, of flat oc- tohedral crystals, scarcely visible to the eye. If the ob¬ server places his eye behind this plate, and close to its smooth side, he will see the sun or the candle encircled with three fine halos, placed at different distances. The inte¬ rior one, which is the whitest, is formed by the refraction of the rays through two of the faces that have the least in¬ clination to each other, and consequently give a spectrum in which the colours are not greatly dispersed ; and as a similar pair of refracting planes lie in every direction, there will be a spectrum in every direction, and consequently a rainbow of a circular form. The second halo, which is blue without and red within, with all the intermediate prismatic colours more highly dispersed, is formed by a pair of faces moie inclined. I he third halo, which is larger and more brilliantly coloured, is produced by a third pair of refracting planes, having a greater refracting power, and consequently giving a higher dispersion. When the granular crystals have double refraction, and when they crystallise with their axes perpendicular to the plates, combinations of greater variety and beauty will be produced. We have endeavoured, by looking through hoarfrost upon glass, to produce halos actually resembling those seen in nature; but we have not succeeded, though we have no doubt that it may be effected by causing vapour deposited under a variety of circumstances, to be frozen in different ways. Sect. Ill—On the Unusual Refraction of the Atmosphere. One of the most interesting applications of optical science 510 OPTICS. Fig. 105. Explana- is the explanation which it affords of the extraordinary phe- tion of na- nomena which arise from difference of density in differ- tural phe- ent parts 0f atmosphere. As this subject has been nomena. , treate(i Very fully in our article Meteorology, vol. xiv., r and illustrated with some interesting figures, we shall con¬ fine ourselves at present to an account of the most extraor¬ dinary of all the phenomena of this kind which have been observed and correctly described. It was observed by Dr. Vince, on the 6th of August 1806, about seven o’clock in the evening. Between Ramsgate and Dover there is a hill, over which the tops of the four turrets of Dover castle are usually seen to a person at Ramsgate. At the time above mentioned, however, Dr. Vince, when at Ramsgate, not only saw the four turrets v, x, w, y, but the whole oj the castle, m, w, s, 7', appearing as if it were situated on the side of the hill next to Ramsgate, and rising as much above the hill AB as usual, as if it had been brought over and placed on the liamsgate side of the hill, fig. lOo. I his appearance continued about twenty minutes. Between Ramsgate and the land from which the hill rises, there is about six miles of sea, and from thence to the top of the hill about the same distance, the height of the eye above the surface of the sea being about seventy feet. It is a very singular circumstance in this phenomenon, that the image of the castle was so very strong and well defined that the hill itself did not ap¬ pear through the image. In order to explain this phenomenon, Dr. Vince sup- I’ig. ]06. poses AB, fig. 106, to represent the castle, FC the cliff of Ramsgate, BTD the hill, DC the sea, E the place of the spectator, Tthe top of the hill, Ayt-E a ray of light coming from the top of the castle to the observer, and BaucE ano¬ ther ray coming from the bottom of the castle, and T.r^E a ray from the summit of the hill, reaching the eye at E, in a direction between those of the other two rays; then it is obvious that such a disposition of the rays will produce the observed appearance. In order to give such a refraction, the density of the air between yv\L and xwYj must have varied with great rapidity, so as to increase the curvature of the ray TtzE, after it cuts B?cE in x, in order to make the ray TxzE fall between the other two rays. See Edinburgh Transactions, vol. vi. p. 245. through vapours so as to make it yellow or orange, the con-Explain trast of the shadow is still more striking and beautiful. Thetioii oft light of a candle which contains a great excess of red light,tural Pk and which may be made to contain more by letting it burn^®® with a long wick, exhibits along with the light of the sky^*^ the phenomenon of blue shadows in great perfection. The subject of the blue colour of the sky has been treated at considerable length in our article on Meteorology, vol. xiv. p. 760, and an instrument called a Cyanometer, for measuring its blue colour, has been well described, and an account of the experiments made with it fully detailed. Sect. V On the Colours of Natural Bodies. Sect. IV.— On the Colours of the Atmosphere. r , f As the earth’s atmosphere acts upon light like all other the atm os- transparent bodies, and is continually changing its chemi- pbere. Blue sha¬ dows. cal, mechanical, and hygrometrical condition, it acts upon light in very different ways, under different circumstances. As the colour of the sky is absolutely black on the tops of the highest mountains, its blue colour in the regions which we inhabit is owing to the action of the atmosphere. That the blue light of the sky is light that has suffered reflexion from the particles of our atmosphere, is proved by the fact observed by Sir David Brewster, that this blue light is polarized in a plane passing through the observer’s eye and the sun. This fact is well illustrated by the dis¬ covery which we owe to the same author, of atmospheric lines in the spectrum, formed by the blue sky. These lines are principally in the more refrangible spaces, as already described, and hence the prevailing light is blue. The splendid colours which mark the rising and the set¬ ting of the sun, varying from the deepest red to orange, yellow, and even green, arise from the same cause ; for when we analyse these various lights with the prism, we find that they are owing to definite parts of the spectrum hav¬ ing been absorbed by the atmosphere. The phenomenon of blue shadows is finely seen when the sky is particularly blue. It arises solely from the sha¬ dows being illuminated by the blue sky, while the part round the shadow is illuminated by the sun, or by the light of a candle. If the light of the sun passes at the time The splendid colours which appear in the natural world Colour,-1 have long attracted the attention of philosophers ; but noiatura; person ever had the courage to give a philosophical theorybodles' of them but Sir Isaac Newton. When he had completed his analysis of the colours of thin plates, he conceived that they furnished the true cause of the colours of natural bo¬ dies. If we take a thin film of mica, a few millionths of an inch in thickness, it appears to the eye of a bright blue colour. Sir Isaac Newton maintained, that if this film could be cut into a great number of minute parts of the same thickness as itself, these particles would “ keep their colour, and a heap of them constitute a mass or powder of the same colour which the plate exhibited before it was broken.” A plate of mica of a different thickness, would be green, an¬ other yellow, and another red, and all these, if broken down into particles “ of the same thickness with the plates,” would of course, according to our author, give a green, a yellow, or a red mass. We have already seen that different thickness of a trans¬ parent plate like mica, give various orders of colours; each different tint corresponding with a particular thickness. Considering then the particles of all bodies whatever as transparent, and as having different sizes, they will pro¬ duce colours corresponding to these different sizes, and consequently we shall have as great a variety of tints in nature as there are varieties in the sizes of the particles of bodies. A difficulty, however, here presents itself. The colours arising from thin plates vary rapidly by inclining them to the incident light, whereas those of coloured media suffer no such change. Hence Sir Isaac Newton, was dri¬ ven to the supposition that the particles of bodies have sue i an enormous refractive power, that the patns of the rays refracted by a parallel film will not differ much in lengt from, and consequently not be very oblique to, a perpendi¬ cular line. After explaining this theory, Sir Isaac ventures to affix to different natural colours the order to which they belong, the verv tint of that order, and consequent y t e thickness of the particles which produce the colour. He says, for example, that the green colour of all vegetables, the most general tint in nature, is a green of the » order, and that the blue colour of the sky is a blue o e first order. Now we know the composition of a green (A tne third order, and of a blue of \he first order, as given y ir Isaac Newton himself. The green of the third orde;r principally constituted of original green, but not a mixture of some blue and yellow f that is, it . all the rays of the green space, with the least retra J rays of the blue space, and the most refrangible rays yelloiv space, and it does not contain a single ray o * violet, orange, or red light. . T>^Qwetpr Such being the case, it occurred to Sir David , that the green colour of plants could be accurately a j by the prism, and having extracted by means of alco i ^ green juice of a great variety of vegetable bodies, he lysed their colours by the prism. In all bodies he ^ the composition of this green colour to be identically same ; but it had no relation whatever to the green o first order. It contained portions of all the colours o OPTICS. na- spectrum ,* and the prismatic spectrum seen through these na- green juices was divided unequally into six luminous bands )he- 0f various breadths, separated by dark intervals.1 In the same manner he found that the blue colour of the sky was not a blue of the first order. From a series of experiments in which the same author has been engaged, he has been led to the conclusion that absorption is the cause of this extensive class of colours; and that all the colours of natural bodies arise from the in ¬ terference of light, by which certain rays are extinguished. When the interference takes place as in thin plates, be¬ tween the light reflected from the two surfaces, and be¬ tween the direct transmitted ray and other transmitted _ Index of Refraction. Refractive power of water 1-3358 Ditto of aqueous humour J -3366 Ditto of vitreous humour -.3394 Ditto of outer coat of crystalline 1-3767 Ditto of middle coat of ditto D3786 Ditto of central part of ditto 1-3990 Ditto of the whole crystalline 1-3839 The following measures may be occasionally useful: Index of Refraction. From aqueous humour into the crystalline 1-0466 Do. do., taking the mean index of the crystalline, D0353 From the crystalline into the vitreous humour .....’.0-930 511 Explana¬ tion of na¬ tural phe¬ nomena. If we execute a large diagram of the eye, and by means of Vision, rays which suiter reflexion w-ithin the thin plates, we have tbe above indices of refraction trace the progress of parallel two colours complementary to each other; but even in this rays from the cornea to the retina, we shall find that they case, when the number of films is great, as in decomposed converge to points in or near to that membrane. The in¬ glass, the transmitted colours lose all their resemblance to crease of density in the crystalline lens towards its centre is die colours of thin plates, while the reflected tints are ex- calculated to correct the spherical aberration, bv bringino- ceedingly brilliant and metallic in their lustre.2 the central rays to the same focus with the marginal rays*; In coloured fluids and coloured glasses, and coloured but there is no provision in the eye for correcting the aber- gaseous media, the interference arises from rays that ac- ration of colour, because the purposes of vision do not re¬ quire different velocities in passing through the coloured quire it to be corrected. It may be readily proved by trac- medium, one part of the intromitted light passing through ing the rays diverging from both extremities of any object the particles, and the other through the intervening spaces, to the retina, and it may be also shewn by direct "experi- Hence there are no reflected tints in such coloured media. ment, that an inverted image of the object is formed upon Those who wish to study the Newtonian theory of the that membrane. Now, it is a law of vision, that when a ray colours of natural bodies, are referred to Biot’s Traite de bght falls upon any point of the retina, the mind infers Physique? where it is illustrated and defended with all the that the ray proceeded from a point insomelineperpendicular sagacity and talent of that distinguished philosopher. See to that point of the retina. Hence, as rays from the upper also an account of various ingenious experiments hostile P^rt °f an object fall upon the lower part of the retina, and to the theory, in a paper by Mr. Delaval in the Manchester v^ce versa, such rays will seem to proceed from the upper Cause of „ r. TJ1 part 0f 0bject) an(] a]i p0ints 0f an object wjU geen erect vision in the diiection of the rays which issue from them, and con¬ sequently the object itself must appear erect, though its image is inverted. _ . . A.s ^ is a law of vision that an object seen with a single Single vi- 3, exhibits a fine section of the eye after Soemmering. 18 seen iu a fixed direction, arising from the form of the s'on with The followung dimensions of the eye have been given by r^tinaas a whole, or from the form of its individual parts, thentw0 tTes- Dr. Thomas Young, the measures “being taken with great if ra>'s from the same object fall upon another eye, or upon care from his own eve : a hundred other eyes which have the power of placino- the retina of all the eyes, so as to see the same object in the same direction, then the object thus seen must appear sin¬ gle. The only difference will be, that the object will be seen twice as bright with two eyes, and a hundred times as bright with an hundred eyes. If we place a hundred shil¬ lings in the same straight line, an eye whose axis coincides with the axis of the cylinder which they compose, will only see one shilling, and the same effect would be produced if the shillings were transparent. If the hundred eyes were placed with their axes in a hundred different directions, an hundred objects will be seen. Small objects are seen dou¬ ble and even triple with one eye when the crystalline lens is not uniform in its refractive power. The defect of squinting mav arise from several causes. It 0l ig'n of may be an original defect, in which the axis of the eye, or sciuillti%r- the line in which objects are seen most distinctly does not pass through the centre of the pupil. In this case it is fhe following measures of the crystalline lens and cornea j.ncura^le : but it is generally speaking a disease arising ^ere taken by Sir David Brewster and Dr. Gordon from r°m,a1n imPeriectl011 in one eye, from its having a different the pva „-r, -1 no. „ vjuiuuii, irom foca] Jenyth from the ntRcr i v .. . Memoirs, vol. ii. p. 131 Sect. V.—On the Eye and on Vision. In our article on Anatomy,4 we have already given a full description of the organ of vision, and Plate XXXIII, fio- eye . Hundredths of an inch. Length of optical axis q I Vertical chord of the cornea 45 Versed sine of ditto ] l Horizontal chord of the cornea 49 Aperture of the pupil seen through the cornea 27 to 13 Diminished in consequence of the magnifying power of the cornea 25 to 12 Radius of the anterior surface of the crystalline lens 30 Radius of the posterior surface 22 Distance of the optical centre from the anterior surface of the lens jq Distance of the optical centre of the lens from the coriiea.'22 focal length of the cornea for objects 10 inches distant. 115 Joint focus of cornea and lens 91 22= 69 Principal focal distance of lens 273 Distance of the centre of the optic nerve from the point opposite the pupil 12 Range of the eye, or field of vision jjq after deatha ab°Ve fifty yearS °f age’ a few> hours Diameter of the crystalline 0-378 Diameter of the cornea 0*400 Thickness of the crystalline 0*172 Thickness of the cornea 0 042 hummml0lf7ving measures of tlie refractive powers of the the same eye^ ^ taken by the Same authors from - , from the other, from its giving a less distinct vision of objects, or from its muscles not being able to direct it as quickly as the other to visible objects. The consequence of this is, that as the observer can do without it, and uses only his best eye, the imperfect one does not follow the movements of the other, and therefore squints. When we wish to see any object very distinctly, we inva- Indisfi'lcf- riably direct to it the axis of the eye, and it is a curious fact,1!688 of ob‘ that there is no retina at the point where the axis meets the^m V1' back of the eye, the foramen centrale corresponding to the See Edinburgh Transactions, vol. Phil. Trans. 1837, p. 245. Tom. iv. p. 123. ‘ Vol. ii. p. 798. IJ 512 OPTICS. Indistinct vision at Explana- extremity of the axis. When the eye thus sees an object tion of na- with perfect distinctness, every other point of the same ob- tural phe- ject js seen indistinctly, and there is no adjustment of the nomena. by which distinctness of vision can be obtained at any dis- ' tanceVrom the axis of the eye, the only way of seeing disinctly being to direct the axis to the point we wish to examine. The preceding fact leads to the opinion, that parts of an object seen in the retina cannot be seen distinctly, and yet if this were the case, we should be able to perceive upon an uniform ground the foramen centrale. The opinion that the retina, though sensible to light, does usiui.au not give perfectly distinct vision, is favoured by the fact, the base ofthat when tbe image of any object falls upon the round tin optic kage 0p £be 0ptic nerve, shewn in Plate XXXIII. fig. 3 ol llel V Anatomy, the object is not distinctly visible. This may be easily proved by fixing on the wall of a room, at the height of the eye, three wafers each tico feet distant. Stand in front of the middle wafer with one eye shut, and beginning near the wall, withdraw gradually from it, (continuing to view the left hand wafer if the right eye is open, and the right hand wafer if the left eye is open,) till the middle wafer vanishes. This will be found to take place at/ce times the distance from the wall at which the wafers are placed, that is, at the distance of ten feet in the present case. If we use three candles, the middle one will not vanish like the wafer, but will become a cloudy mass of light. Occasional The occasional insensibility of the retina to objects insensibi- seen obliquely, was discovered by Sir David Brewster, lity of the who hag illustrated it in the following manner. If we iL tniii. in eye on a particular point, such as the head of a pin XT6 n’ stuck into a green cloth, and lay down a quill or strip of pa¬ per upon the green cloth, some inches distant from the pin, and then keep looking steadily at the pin s head, pait of the quill, or the whole of it, will occasionally disappear, as if it had been wholly removed from the cloth. In a short time it will reappear, and again vanish. The very same effect is produced, though less readily, when both eyes are used, and when a luminous body is used in place of the quill. In this case the luminous body does not disappear, but ex¬ pands into a mass of nebulous light, which is of a bluish white colour, encircled with a bright ring of yellow light. Superior j5ut though we cannot see objects distinctly by oblique brightness vision? t they appear much brighter, and minute objects, ot objects ciall luminous ones, are more easily seen by turning seen on- ^ of ^ ^ away from them. Various astronomers have found that very faint stars, and the satellites of Sa¬ turn, which disappear when the eye is turned fully upon them, may be distinctly seen by directing the eye to an¬ other part of the field. This effect seems to arise from the expansion and enlargement of luminous points seen ob¬ liquely.1 1 It has long been disputed, but the question has not been much agitated in modern times, whether the retina or the choroid coat behind it is the seat of vision. The insensibi¬ lity of the base of the optic nerve, and the fact that vision is most distinct where there is no retina, are arguments in favour of the choroid coat being the seat of vision, as Ma- riotte believed. The transparency of the retina, and the opacity of the choroid coat were considered as additional arguments in favour of that opinion. Dr. Knox has shewn, that in the eye of the cuttle fish, there is a membranous opaque pigment in front of the retina, so that in this case the retina must receive the influence of light from the vi¬ brations of this membrane just as it may receive them in other cases, from the same membrane placed behind it. M. Lehot, a living French author, has endeavoured to shew that the vitreous humour is the seat of vision ; that w e see the length, breadth, and thickness of every object as we do an image formed in smoke } and that the retina takes cognizance of this image in its three dimensions, by nervous filaments ex¬ tending so far into the vitreous humour as to render any Exp]s adjustment of the eye at different distances unnecessary, tion 0f. ‘The insensibility of the retina to direct impressions of tllra' i faint light, was discovered by Sir David Brewster,2 who/®’61 found, that when the eye directed its axis to objects faintly ' illuminated, it could not keep up a sustained vision of them. liquely. On tbe seat of vision. They disappeared and reappeared, and the eye was throwneyeto; into a state of painful agitation. rectimyil When we shut the eye quickly after looking at an objections o we see it for an instant (about the seventh part of asecond)faintlifi i in its own colours ; but this impression is instantly follow-Durat» f ed by an image of the object in its complementary colours, impre- If we look at a window at the end of a long passage, we011 ^ first see, after shutting our eyes, a picture of the window,tlna- with black bars and white panes; but after the seventh of a second the picture is one with white bars and black panes. When we wdiirl a burning stick, we see a complete circle of red light, although the burning end of the stick can only be in one part of the circle at the same instant. This Dr. P affection of the retina is the principle of Dr. Paris’s pretty thaumJ toy, called the Thaumatrope, or Wonder-turner. A circular trope- card with two strings is made to whirl rapidly round one of its diameters. If we draw a cage on one side of a card, and a bird on the other, and whirl the card round, we shall see the bird within the cage, the retina retaining the impres¬ sion of both even when none of them are seen, which is the case when the edge of the card is directed to the eye. The same property of the retina to preserve impressions of light, is the principle on which that beautiful instrument, foscoPt r called the phenakistoscope, or magic disc, is founded. Thismd&!c instrument was, we believe, originally invented by Dr. Boget, and improved by M. Plateau, at Brussels, and ' Mr. Faraday. It consists of a circular disc from six to twelve inches in diameter, with rectilineal apertures on its margin in the direction ot its radii. A series of figures, of a" rider for example, leaping a fence, is drawn on the .circumference of a circle, parallel to the rim of the disc. The first figure represents the rider and horse standing be¬ fore the fence ; and the last figure represents them stand¬ ing over the fence when the leap is completed. Between these two figures there are several others, representing the rider and the horse in different parts of the leap. The observer then stands in front of a looking-glass, with the disc in his left hand, attached to a handle, and by a piece of simple mechanism he whirls it rapidly round, looking at its image on the glass through the notches in its margin. He is then surprised to see the horse and his rider actually leaping the fence, as if they were alive, and returning and leaping again as the disc revolves. If we look over the margin of the disc, at the reflected picture on the face °t the disc, all the figures are effaced, and entirely invisible; but when we look through the notches, we only see the figure of the horse and rider at the instant the notch or aperture passes the eye, so that the picture instantaneously formed on the retina is not obliterated by preceding or subsequent impressions. Hence the eye receives in suc¬ cession the pictures of the horse and rider in all the atti¬ tudes of the leap, which are blended, as it were, into one action. The apparent velocity with which the horse an rider advances (supposing the disc always to have the sa velocitv) depends on the proportion between the numo of apertures in the margin of the disc, and the number figures of the horse and rider. . ‘ If we use a disc with three concentric circles ot ap tures, each containing different numbers, 8, 10, an > for example, then considering that these apertures re in the opposite direction in the reflected image, ^.1S 0 that when w-e look through the circle of 10, which from left to right at the image of 10, revolvmg mirror from right to left, these opposite motions w See Land- and Edin. Phil Mag. Sept. 1832, p. 169. 2 Edinburgh Journal of Science, No. vi. p. 288. OPTICS. <<• stroy each other, and the circle of 10 apertures will appear ia‘ to stand still in the picture. On the other hand, the circle ' of 12 apertures will always gain upon the one of 10, from ' which we look, and will appear to move from left to right, ’^with the difference of the velocities of the two, while the one of 8 will move backwards with the same difference. If we whirl a disc containing any word or figure upon it, without using a reflector, all is confused, and w e cannot read the word or see the figure. Let it be whirled, how¬ ever, in the dark, and let a spark of electricity, or the light of a little inflamed gun-powder, or of a percussion-cap, illumi¬ nate the disc, which it does only for an instant, and during that short instant, the word or figure will be seen to stop, and we shall read the one and see the other with great dis¬ tinctness. When objects are placed at different distances, the focus 513 ccont J- iness. talar not produced by age, but rather diminished by it, is com¬ mon even in young persons, arising either from a too great convexity or refractive power in the lens, or too great con¬ vexity in the cornea. In this state of the eye, the.image is formed in front of the retina, and a concave lens is ne¬ cessary to correct it. This is called short-sightedness, which almost always decreases by age in consequence of the crys¬ talline lens becoming flatter. When the eye looks steadily at a bright coloured red jectra, "a^erJ and then looks at the wrhite paper on which the wafer ' J _ lino l f \i7ill c* r\r\ ^ 1 ^ — t 1 1 • .1 icidem Iks, it will see for a while a green one, the green being the :s, accidental colour, or the complementary one to the red. The )lours green image is called an ocular spectrum, as it has no real existence. The accidental colours and the original co¬ lours are the same as those given in Newton’s Table, p. 432, where the reflected tints correspond with the original or red colour of the wafer, and the transmitted ones to the acci¬ dental colour, or vice versa ; so that w e can determine from that table the accidental colours of any coloured object upon which the eye may look steadily. When the eye looks at the sun, or a bright image of it, the ocular spectrum is not black, but of various colours in succession, each colour being surrounded with a rim of its accidental colour. The following beautiful experiment, shewing the effect “p11 in diminishing the sensibility of the retina to par¬ ticular colours, we owe to Mr. Smith, surgeon at Fochabers. Hold a slip of white paper vertically about a foot from ,.e eW> and direct both eyes to an object beyond it, the sip will appear double, and the twro images equally white. jbt a .candle be brought near the right eye, so as to act strongly upon it, without affecting the left, then the left image of e paper, or that seen by the right eye, will grow green, ana bright hand image, or that seen by the left eye, will grow red, forming a beautiful contrast of colours. If the ty of ti u!,11 6 18 ppght round to the left eye, the images will first fetopii Z en°: the Sarae whitish colour, and then the right hand e will become green, and the left hand one red.1 e insensibility of the eye to particular colours is very uncommon. Professor Dugald Stewart, Dr. Dalton, and 'olours reduce ntev inal ac onofli 3 the e1 »sensib cular ct Its, Mr. Troughton, were unable to distinguish the colours at Optical the red end of the spectrum. All red objects appeared *nstruments. green, owing to the insensibility of their retinas to red colours. This subject has already been treated of in our article on Colours, vol. vii. p. 128. FART IX. DESCRIPTION OE OPTICAL INSTRUMENTS. ition or point of distinct vision in the eye must vary. We feel p'e that the eye has the power of adapting itself to these dif- 2 ferent distances, so as to make the picture on the retina always distinct. How this is done has been long a matter in dispute. There can be no doubt, however, that the first step in the process is the variation of the pupil, which seems by a mechanism at the base of the iris to increase the dis¬ tance of the lens from the retina. iongsi - At the age of about forty, the eye loses this power of ad- laess. aptation in consequence of the flattening of the crystalline lens, which renders it necessary to use a convex glass, which just compensates the flatness of the lens, and permits the eye torts: ■ to adjust itself as formerly. The opposite state of the eye, The great number of optical instruments which have Optical in- been described in different parts of this work, renders itstruments. scarcely necessary to treat this subject in the general arti¬ cle. Under the articles Burning Instruments, Camera Lucida, Kaleidoscope, Micrometer, Microscope, Photometers, and Telescope, the reader will find the in¬ formation, some of which he might have expected here. There are instruments, however, so intimately connected with Optics, and not previously described, which we must shortly notice, namely, the Cylindrical Mirror, the Camera Obscu- ra, the Magic Lantern, and the Phantasmagoric Machine. 1. Cylindrical Mirror. We have already (see p. 382) described the principle of Cylindrical cylindrical mirrors. If we suppose one of these mirrors, mirrors. AB, fig. 107, to be placed on a table, with the portrait of Fig. 1U7. any person laid before it on the table, the reflected picture of the portrait in the cylindrical mirror will be distorted. If vve take an accurate drawing of this distorted picture and lay it before a cylindrical mirror, as shown at MN, where the human form can scarcely be recognised, we shall see in the cylindrical mirror its image reduced to symmetry. 2. On the Camera Obscura. We have already explained the principle of the camera Camera obscura in treating of the images formed by convex lenses, obscura. I he instrument is indeed nothing more than a convex lens placed in a suitable box, on the side or bottom of which an image of external objects is formed by the lens. A convenient portable camera obscura for drawing ob¬ jects is shown in fig. 108. The external object or land- scape is reflected down into the lens AB by an inclined mirror CD. The rays thus falling vertically upon the lens, are refracted to their foci, and form a distinct image of the landscape on the paper placed at EF. On one side of the box there is an opening through which the obser¬ ver introduces his head and hand, care being taken, by a curtain of black cloth behind him, to exclude all extra¬ neous light. M. Cauchoix of Paris has found that the best form of the lens for a camera is a meniscus, hav¬ ing its convex surface towards the image, and its concave surface towards the object, and their radii of curvature as 5 to 8. V0L anal>'SIS of this and similar experiments will be found in the Land, and Edin. Phil. Mag 3. On the Magic Lantern. The magic lantern, an invention of the celebrated ^aS'c ian* Athanasius Kircher, is shewn in fig. 109. It consists tern‘ merely of a lens AB, which forms on the wall of a darkFlg* 109- room a picture of any object placed before it, and at a greater distance than its anterior principal focus. The light of an argand lamp is thrown in a condensed state by the illuminating lens D, upon transparent varnished pic¬ tures painted on long sliders. The lens AB forms a large circle of light upon the wall, which, if it is not smooth and white, should be covered with a white smooth cloth, and the images of the coloured figure appear within this circle. A magic lantern is the same as a solar microscope, the Ed. 1832, p. 249. 3 T 514 OPT Optical sun being used for the source of light in the latter case, and instruments natural objects in place of pictures. The solar camera mi- II croscope invented by Dr. Goring, and fully described in our Optimates. articie Microscope, vol. xv. p. 46, and the oxyhydrogen microscope, described in the same article, may be consi¬ dered as the most perfect magic lanterns that have been constructed, there being no difficulty in adapting them to give magnified representations of minute transparent paint¬ ings. 4. On the Phantasmagoric Apparatus. Phantas- The apparatus for the phantasmagoria, or the raising of magoric ap- spectres, is nothing more than a magic lantern mounted paratus. upon wheels, which, in place of throwing its pictures upon an opaque white ground, upon which the spectator looks, throws them upon one side of an imperfectly transparent screen, the spectator viewing them on the other side of the i ] n screen. The direct light of a lamp A, fig. 110, and the light lg’ ’ reflected from the concave mirror B, is thrown upon the two illuminating lenses C, D, which condense it, and thus sti ong- ly illuminate the spectres and figures painted upon sliders at E. These sliders are placed a little before the anterior focus of the magnifying lens F, which forms a highly magni¬ fied picture of the figures on the transparent screen at G. When this apparatus is mounted upon a carriage with wheels, as at H, it may be made to approach to, or recede from, the screen G, in consequence of which the figures may be made to contract into dwarfs, disappearing in a point of light, or swell out into giants of enormous magnitude. In order, however, to have the pictures distinct at different distances of the apparatus from the screen, an adjustment is necessary, to make the distance EF increase as the apparatus approach¬ es to G, and diminish as it recedes from it. With this view, ORA the lens F is fixed to a slider, which may be drawn out by Op, the general frame H. When this frame H is drawn awaybstnt „ from the screen, the point K is brought lower by means of ! the rod IK, connected with another rod KN fixed to the °R; frame of the screen at N, where there is a joint or centre * of motion. The descent of the point K causes another lever KL to move the horizontal slider (which carries the lens F) in such a manner as to keep the screen always in the focus of F, and consequently the picture upon it always distinct. , When the frame H, on the other hand, advances to the screen, the point K rises, and the lens F is again adjusted by the motion of the slider. When the images diminish and appear to vanish, the support of the lens F permits the screen M to fall and intercept part of the light. The screen M may have a triangular opening, so as to uncover the mid¬ dle only of the lens F. In this adjusting apparatus the rods KN and KL must be equal, and the point I must be twice the focal length of the lens F before the object, L being immediately under the focus of the lens. The ob¬ ject of the screen M is to diminish the illumination of the objects as they get smaller and appear to retire from the spectator, because in the instrument they actually become brighter. When M. Robertson exhibited this remarkable instru¬ ment, living persons were often strongly illuminated and introduced into the picture. The effect of life, however, was better given when the shadows of living objects only were introduced. For farther information on the subject of this article, see Astronomy, vol. iv. p. 101, chap. iv. Achromatic Telescopes, Burning Instruments, Camera Lucida, Chromatics, Colours, Kaleidoscope, Meteorology, Micrometer, Microscope, Photometer, and Teles¬ cope. OPTIMATES, one of the divisions of the Roman people, and opposed to populares. It is not easy to ascertain the characteristic differences of these two parties. Some say the optimates were warm supporters of the dignity of the chief magistrate, and promoters of the grandeur of the state, caring not if the inferior members suffered, provided the superior powers were advanced; whereas the popu¬ lares boldly contended for the rights of the people, claimed larger privileges, and laboured to bring matters nearer to an Equality. In short, according to this account, they re¬ sembled the court and country parties amongst the people of this island. Cicero says that the optimates were the best citizens, who wished to deserve the approbation of the better sort; and that the populares courted the favour of the populace, not so much considering what was right, as what would please the people and gratify their own thirst of vain-glory and applause. OPTIO, an officer in the Roman army, who was an as¬ sistant or lieutenant to the centurion. The optio was so called because in later times he was the choice or option of the centurion ; at first, however, he derived his ap¬ pointment from the tribune or commander of the legion. Sometimes the opiiones were also called succenturiones and tergiductores; the latter name having been given them be¬ cause their post was in the rear of the company. Several authors mention sub-optiones or sub-lieutenants. It is pro¬ per, however, to add, that optiones were not peculiar to the camp, but were also employed in a variety of other offices. OR, the French word for gold, by which this metal is expressed in heraldry. In engraving it is denoted by small points all over the field or bearing. ORA, in Antiquity, was a term equivalent to ounce ; but it has been much debated amongst our antiquaries, whether the ora, the mention of which so often occurs, svas a coin, or only money of account. Dr Hickes observes, that the mode of reckoning money by marcs and oras was never known in England until after the settlement oi the Danes ; and by examining the old nummulary estimates amongst the principal Gothic states upon the Baltic, it ap¬ pears that the ora and solidus were synonymous terms, and that the ora was the eighth part of the marc. From several of the Danish laws, it likewise appears that the Danish ora, derived by corruption from aurea, was the same as the Frank solidus of twelve pence. As a weight, the ora was regarded as the uncia or unit, by which the Danish marc was divided ; and in Doomsday-book the ora is used for the ounce, or the twelfth part of the nummu¬ lary Saxon pound, and the fifteenth of the commercia. As a coin it was an aureus, or the Frank solidus of pence ; and from the accidental coincidence of the Iran aureus with the eighth part of the marc, the Danes pro¬ bably took occasion to give it the new name^ot ora. An¬ other ora is mentioned in the rolls of the 27th o enry III. the value of which was sixteen pence; and this was probably derived from the half mancus of the Saxons, as there were no aurei of that period to which these two e nominations of money of sixteen and twelve pence coui possibly be ascribed. It may be further observed, tha me name ora distinguishes the gold coins in severa Par Europe to this day. The Portuguese moidore is not » else but moeda d’oro, from the Latin rnoneta «e, aura^ French louis d’or comes from the same use of t e ’ and owes its appellation to the ora. ,. , ORACLE, amongst the heathens, was the answer the gods were supposed to give to those who con them upon any affair of importance. It is also used god who was thought to give the answer, and for tne p where the response was given. ORA The credit of oracles was so great that in all doubts and p disputes their determinations were held as sacred and in¬ violable. Hence vast numbers flocked to them for advice about the management of their affairs ; and no business of any consequence was undertaken, scarcely any peace con¬ cluded, any war waged, or any new form of government instituted, without the advice and approbation of some oracle. The answers were usually given by the interven¬ tion of the priest or priestess of the god who was consult¬ ed ; and were generally expressed in such dark and unin¬ telligible phrases, as might easily be wrested to prove the truth of the oracle, whatever the event should happen to be. It is not, therefore, to be wondered at, that the priests who delivered them were in the highest credit and esteem ; and that they managed this reputation so as greatly to promote their own particular advantage. They accordingly allowed no man to consult the gods before he had offered costly sacrifices and made rich presents to them. Nor was this all. To keep up the veneration for their oracles, and to prevent their being taken unprepared, they admitted per¬ sons to consult the gods only at certain stated times ; and sometimes they w'ere so cautious, that the greatest per¬ sonages could obtain no answer at all. Thus Alexander himself was peremptorily denied by the Pythia or priestess of Apollo, till she was by downright force obliged to ascend the tripos, wdien, being unable to resist any longer, she cried out, “ Thou art invincibleand these words were accepted instead of any further oracle. When men began to be better instructed by the lights which philosophy had introduced into the world, the false oracles insensibly lost their credit. Chrysippus filled an entire volume with false or doubtful responses. CEnomaus, to be revenged of some oracle which had deceived him, made also a compilation of responses, to show their ridicu¬ lous vanity. Eusebius has preserved some fragments of this criticism on oracles by CEnomaus. “ I might,’’ says Ori- gen, “ have recourse to the authority of Aristotle and the Peripatetics, to make the Pythoness much suspected; I might extract from the writings of Epicurus and his fol¬ lowers an abundance of things to discredit oracles; and I might show that the Greeks themselves made no great ac¬ count of them.” The reputation of oracles was greatly lessened when they became an artifice of politics. Themistocles, having the design of engaging the Athenians to abandon Athens, and to embark on board of their ships, in order to be in a j better condition to resist Xerxes, made the Pythoness de- beran oracle, commanding them to take refuge in wooden walls. Demosthenes said, that the Pythoness “ philippized,” to signify that she w'as gained over by Philip’s presents. ihe cessation of oracles is attested by several profane authors, as Strabo, Juvenal, Lucian, and others. Plutarch accounts for it, by saying that the benefits of the gods are not eternal as themselves are ; that the genii who presided over oracles are subject to death; and that the exhalations 0 the earth had been exhausted. It appears that the last reason had been alleged in the time of Cicero, who ridi- eu es it in Ids second book on Divination ; as if the spirit o prophecy, supposed to be excited by subterraneous ef- uvia, had evaporated by length of time, as wine or other nquors by being long kept. Suidas, Nicephorus, and Cedrenus, relate that Augus- us, laving consulted the oracle of Delphos, could obtain o ot er answer but this : “ The Hebrew child, whom all h H 8 0^e^’ 5^ves 1116 hence, and sends me back to out this temple without speaking one word.” i as adds, that Augustus dedicated an altar in the capi- nniJlff thls1.inscriPtion» “ To the eldest Son of God.” But D*! ltanding ^lese testimonies, the answer of the oracle iu« n'? ^ t0 Augustus seems very suspicious. Cedre- 1 es Eusebius for this oracle, which is not now found C L E. in his works ; and the peregrination of Augustus into Ln-eece took place eighteen years before the birth of Christ. buidas and Cedrenus also give an account of an ancient oracle delivered to Thulis, a king of Egypt, which they as¬ sure us is well authenticated. The king having consulted the oracle of Serapis, to know if there ever was, or would be, one so great as himself, received this answer • “ First God, next the Word, and then the Spirit with them ; they are equally eternal, and make but one whose power will never end ; but do thou, mortal, get thee hence, and think that the end of the life of man is uncertain.” Van Dale, in his treatise of oracles, does not believe that they ceased at the coming of Christ. He relates se¬ veral examples of oracles which were consulted until the death of Theodosius the Great; and he quotes the laws of the Emperors Theodosius, Gratian, and Valentinian, against those who consulted oracles, as affording certain proof that the superstition of oracles still subsisted in the time of those emperors. But others conceive that the opi¬ nion of those who believe that demons had no share in the oracles, and that the coming of the Messiah made no change in them, as well as the contrary opinion of those who pretend that the incarnation of the Word imposed a general silence on all oracles, should all be equally reject¬ ed. They allege that two sorts of oracles ought to be dis¬ tinguished ; the one dictated by the spirits of darkness, who deceived men by their obscure and doubtful answers ; the other, the pure artifice and deception of the priests of false divinities. As to the oracles given out by demons, the reign of Satan was destroyed by the coming of the Sa¬ viour; truth shut the mouth of lies; but Satan still con¬ tinued his old craft amongst idolaters. All the devils were not reduced to silence at the same time by the coming of the Messiah ; it was only on particular occasions that the truth of Christianity and the virtue of Christians imposed silence on the devils. St Athanasius tells the Pagans that they had themselves been witnesses of the sign of the cross having put the devils to flight, silenced oracles, and dissi¬ pated enchantments. This power of silencing oracles, and putting the devils to flight, is also attested by Arnobius, Lactantius, Prudentius, Minutius Felix, and several others, whose testimony affords certain proof that the coming of the Messiah had not imposed a general silence on oracles. Plutarch relates, that the pilot Thamus heard a voice m the air, crying out, “ The great Pan is dead upon which Eusebius observes, that the accounts of the death of the demons were very frequent in the reign of Tiberius, when Christ drove out the wicked spirits. Indeed the same judgment may be passed on oracles as on possessions. It was on particular occasions, by the divine permission, that the Christians cast out devils, or silenced oracles, in the presence, and even by the confession, of the Pagans them¬ selves ; and thus it is that we should understand the pas¬ sages of St Jerome, Eusebius, Cyril, Theodoret, Pruden¬ tius, and other authors, who have said that the coming of Christ imposed silence on the oracles. As to the second sort of oracles, which were pure arti¬ fices and deceptions of the priests of false divinities, and which probably exceeded the number of those wdiich im¬ mediately proceeded from demons ; they did not cease till idolatry was abolished, though they had lost their credit for a considerable time before the coming of Christ. It was concerning this more common and general sort of or¬ acles, Minutius Felix observed, that they began to discon¬ tinue their responses, according as men began to be more enlightened. But, however oracles were decried, impos¬ tors always found dupes, and the grossest cheats almost never failed to deceive. Daniel discovered the imposture of the priests of Bel, who had a private way of getting into the temple to take away the offered meats, and who made the king believe 515 Oracle. 516 ORACLE. oracle, that the idol had consumed them. Mundus, being in love ’ with Paulina, the eldest of the priestesses of Isis, went and told her, that the god Anubis, being passionately fond of her, commanded her to give him a meeting. She was afterwards shut up in a dark room, where her lover Mun¬ dus, whom she believed to be the god Anubis, was con¬ cealed. This imposture having been discovered, Tibe¬ rius ordered those detestable priests and priestesses to be crucified, and with them Idaea, the freed-woman ot Mundus, who had conducted the whole intrigue. He also commanded the temple of Isis to be levelled with the ground, and her statue to be thrown into the liber ; but as to Mundus, he contented himself with sending that per¬ son into banishment. Theophilus, bishop of Alexandria, not only destroyed the temples of the false gods, but discovered the cheats ot the priests, by showing that the statues, some of wine i were of brass, and others of wood, were hollow within, and led into dark passages made in the wall. Lucian, in discovering the impostures of the false pro¬ phet Alexander, says that the oracles were chiefly afraid of the subtil ties of the Epicureans and the Christians. 1 he false prophet Alexander sometimes feigned himself seized with a divine fury, and by means of the herb sopewort, which he chewed, frothed at the mouth in so extraordinary a manner that the ignorant people attributed it to the power of the god by whom he was possessed. He had long be¬ fore prepared a head of a dragon made of linen, which opened and shut its mouth by means of a horse-hair. He went by night to a place where the foundations of a tem¬ ple were digging ; and having found water, either of a spring, or of rain which had settled there, he hid m it a noose egg, in which he had enclosed a little serpent that had just been hatched. The next day, very early m the morning, he came quite naked into the street, having on y a scarf about his middle, holding in his hand a scy the, and tossing about his hair like the priests of Cybele ; then get¬ ting on the top of a high altar, he said that the place was happy to be honoured by the birth of a god. Afterwards, running down to the place where he had hidden the goose ea-g, and going into the water, he began to sing the praises of Apollo and iEsculapius, and to invite the latter to come and show himself to men. At these words, he dipped a bowl into the water, and took out the mysterious egg, which had a god enclosed in it; and when he had it m his hand, he began to say that he held JUsculapms. V\ hilst all were eager to have a sight of this fine mystery, he broke the egg, and the little serpent starting out, twisted itself about his fingers. , These examples show clearly that both Christians and Pagans were so far agreed as to treat the greater number of oracles as purely human impostures. That in fact all of them were so, will perhaps be concluded by those who give equal credit to demoniacal inspiration and demoniacal possession. The most ancient oracle was that of Dodo- na; but the most famous was that of Delphi, which per¬ forms such a prominent part in Pagan antiquity. Another celebrated one was the oracle of Irophonius, in the neigh¬ bourhood of Lebadia, a city of Bceotia. It was held in high estimation, and received its name from Trophonius, brother of Agamedes, who lived in a subterranean dwelling near Lebadia, and pretended to possess the faculty of fore¬ telling future events. He died in his cave, and was deified as an oracular divinity. This oracle owed its reputation to one Saon. Those who repaired to this cave for infor¬ mation were required to offer certain sacrifices, to anoint themselves with oil, and to bathe in a certain river. They were then clothed with a linen robe, took a honeyed cake in their hands, and descended into the subterranean chain, ber by a narrow passage ; and here it was that futurity was unfolded to them, either by visions or by extraordinary sounds. The return from the cave was by the same pas¬ sage ; but the persons consulting the oracle were obliged to walk backwards. They generally came out astonished, melancholy, dejected ; and hence the proverb hg Tgofwv/ov /^avrsura/. The priests, on their return, placed them upon an elevated seat, called the seat of Mnemosyne, where an account was taken of what they had seen and heard. They were then conducted by their companions to the chapel of good Genius, where, by degrees, they recovered their usual composure and cheerfulness. Besides these three principal oracles of Greece, it is proper to take notice of that of Amphiaraus at Oropius, in Attica. It was so called from Amphiaraus, the son of Oi- cleus, a man deeply skilled in magic, the interpretation of dreams, and the like, who, after his death, was deified, and delivered oracles in a temple erected to his divinity. Those who applied for information were required to purify them¬ selves, offer sacrifice, fast twenty-four hours, abstain from wine two days, and make an offering of a ram to Amphia¬ raus ; they were then to sleep on the skin of the animal, and to see their destiny in a dream. Near the temple was the fountain of Amphiaraus, which was deemed sacred, the waters of it being forbidden to be used for ordinary pur- poses. At Delos there was also an oracle of the Delian Apollo; in Milesia there was that of the Branchidae; and there were others of less note, which do not require particular description, such as that of the camps at Lacedaemon, that of Nabarcha, that of Chrysopolis, that of Claros in Ionia, that of Hallos, that of Patarea, that of Pella, that of Pha- sellides, that of Sinope, that of Orpheus’ head, and a few more, which it is unnecessary to mention. Although the Romans upon many occasions consulted the Grecian oracles, and had but few in their own country, yet we must not omit mentioning the oracles which were delivered by the Sibyl of Cumae, and enjoyed great cele¬ brity. They have been frequently alluded to by Virgil. We have hitherto only considered the oracles ot false gods, of which there was a far greater number than our limits permit us to enumerate, and before either Greeks or Romans had risen to any distinction. Oracle is in sacred history sometimes used for the mercy-seat, or the cover ot the ark of the covenant; and by others it is taken for the sanctuary, or the most holy place, in which the ark was de- P Amongst the Jews may be distinguished several kinds of real oracles. They had first oracles which were ue- livered viva voce, as when God spake to Moses face to face, as one friend speaks to another ;J secondly, prophe¬ tical dreams sent by God, as the dreams which God sent to Joseph, and which foretold his future greatness; third¬ ly, visions, as when a prophet in an ecstasy, being neitne properly asleep nor awake, had supernatural revelations, fourthly, the oracle of Urim and Thummim, which was accompanied with the ephod or the pectoia ^orn J- * high priest, and which God had endued with the gift or foretelling things to come.4 This manner of inq^g the Lord was often made use of, from Joshuas tim erection of the temple at Jerusalem. Fifthly, atte erection oi uie tempic -- , 0. building of the temple, they generally cons^eTdPand phets, who were numerous in the kingdom of Jud Israel. From Haggai, Zechariah, and Malachi, wl o are the last of the prophets any of whose writings re > ^ Jews pretend that God gave them what they ca^ al or the daughter of the voice, which was a supe •1 Numb. xii. 8. * Gen. xxxvii. 5, 6. * Gen. xv. 1 ; xlvi. 2. Numb. xii. 6 ; Jod, & 28* ORA ORA 517 Ora( manifestation of his will, and was performed either by a LOy strong inspiration or internal voice, or else by a sensible and external voice, which was heard by a number of per¬ sons sufficient to bear testimony to the fact. For example, such was the voice that was heard at the baptism of Jesus Christ, saying, “ This is my beloved Son, in whom I am well pleased ; hear ye him.”1 The Scripture likewise affords us examples of profane oracles. Balaam, at the instigation of his own avarice, and fearing to lose the recompense which had been pro¬ mised him by Balak, king of the Moabites, suggested to this prince the diabolical expedient of making the Israelites fall into idolatry and fornication ;2 by which he assured him of a certain victory, or at least of considerable advantage against the people of God. Micaiah the son of Imlah,3 a prophet of the Lord, says that he saw the Almighty sitting upon his throne, and all the host of heaven round about him ; and the Lord said, who shall tempt Ahab king of Israel, that he may go to war with Ramoth-gilead, and fall in the battle ? One an¬ swered after one manner, and another after another. At the same time an evil spirit presented himself before the Lord, and said, I will seduce him. And the Lord asked him, how ? To this Satan answered, I will go and be a lying spirit in the mouth of his prophets. And the Lord said, Go, and thou shalt prevail. This dialogue clearly proves these two things: first, that the devil could do no¬ thing by his own power; and, secondly, that, with the permission of God, he could inspire the false prophets, sorcerers, and magicians, and thus make them deliver false oracles. Respecting the cessation of profane oracles, there have been a variety of opinions, some of which we have already noticed. It has been generally held, indeed, that oracles ceased at the birth of Jesus Christ. Yet some have en¬ deavoured to maintain the contrary, by showing that they were in existence in the days of Julian, commonly called the Apostate, and that this emperor himself consulted them ; that history makes mention of several laws published by the Christian emperors Theodosius, Gratian, and Valen- tinian, to punish persons who interrogated them, even in their days; and that the Epicureans were the first who made a jest of this superstition, and exposed to the peo¬ ple the roguery of the priests. As we suspect most of the facts here asserted should be understood in a qualified sense, we shall endeavour to discuss this point of contro¬ versy in as few words as possible, although it is undoubt¬ edly a matter of some consequence. The question, properly stated, is not, whether ora¬ cles became extinct immediately upon the birth of Christ, or from the very moment when he was born ; but, whether they fell gradually into disesteem and ceased, as Christ and his gospel became known to mankind. And that they did so, is most certain from the concurrent testimonies of the fathers, which none can attempt to invalidate, without being prepared to give up the most respectable traditions and relations of every kind* 2d/y, But did not Julian the Apostate actually consult these oracles ? We answer in the negative. He had in¬ deed recourse to magical operations, but it was because oracles had already ceased; for he bewailed the loss of t em, and assigned for their cessation pitiful reasons, which 1 u'l ^aS vioorously refuted, adding, that Julian “ never cou d have offered such, but from an unwillingness to ac- p1?0, edge that, when the world had received the light of rist, the dominion of the devil wras at an end.” <%> The Christian emperors do indeed condemn the uperstition and idolatry of those who were still disposed to consult oracles; but the edicts of these princes do not Orsea prove that oracles actually existed in their times, any U more than that they had ceased in consequence of their v Qran» laws. It is certain that they were for the most part ex- V " Y"~' tinct before the conversion of Constantine. Stilly, Some Epicureans might make a jest of this super¬ stition ; but the Epicurean philosopher Celsus, in the se¬ cond century, was disposed to cry up the excellency of se¬ veral oracles, as appears at large from Origen’s seventh book against him. ORJ3A, certain solemn sacrifices of fruits, which were offered in the four seasons of the year, in order to obtain mild and temperate weather. They were offered to the goddesses who presided over the seasons, attended upon the sun, and received divine worship at Athens. ORAL, something delivered by word of mouth, with¬ out being committed to writing. In this sense we say oral law, oral tradition, oral communication, and the like. ORAN, W arran, Auran, or Guharan, a famous mari¬ time city of Algiers, and the most westerly in the regency. It is built on the declivity and along the foot of a high mountain, wffiich overlooks it from the north and north¬ west ; and on this ridge are planted two castles, command¬ ing the city on the one side and the port on the other. To the south and south-east there are two other castles, erect¬ ed upon the same level with the lower part of the city, but separated from it by a deep winding valley, which serves as a natural trench on the south side. A rivulet flows through it, and passing afterwards under the walls of the city, affords a copious supply of water. At every open¬ ing of this valley a pleasing and varied prospect presents itself, of rocky precipices, orange plantations, and rills of water winding down the heights. Near the head of the rivulet just mentioned there is a fifth castle, which not only guards the mattamores dug under its walls, but serves as an important defence to the city. Yet strongly fortified as Oran is, both by nature and art, it has been repeatedly taken by the Spaniards, between whom and the Moors it was for centuries a subject of contention. It was taken by the former in the year 1509, but was recovered by the Moors in 1708. In the year 1732 the Spaniards retook it by surprise ; the Bey, otherwise a valiant soldier, having been panic-struck on the first landing of the enemy, and, without shutting the gates, abandoned the city to their mercy. Oran was afterwards restored, and, along with other parts of Algiers, has recently fallen under the domi¬ nion of France. During the time that the Spaniards re¬ tained possession of Oran, they erected several beautiful churches, and other edifices, in the style of the Roman architecture, though of less strength and solidity. They have further imitated the Romans in carving upon the friezes and other parts several inscriptions in large cha¬ racters, and in their own language. Shaw describes Oran as a fortified city, about a mile in circumference. The port called Mer-el-Quiver, corrupted from Mers-el-Kibeer, and answering to the ancient Portus Magnus, is formed by a neck of land, which runs out almost a furlong into the bay, and thereby secures it against the north and north¬ west winds. It is defended by a castle more remarkable for spaciousness and extent than for strength or beauty, though a part of it has been skilfully hewn out of the na¬ tive rock. Oran has much declined of late years, as the occupation of the place by the French has induced the Arab population to leave it, although the former repaired some of the edifices, and converted an old mosque into an hospital. The inhabitants are estimated at about 4000. In the year 1790 this city was destroyed by an earthquake, and six thousand of its inhabitants w^ere buried under the 1 Matth. iii. 17. 2 Numbers, xxiv. 14; xxxL 16. 3 1 Kings, xxii. 19, &c. 518 ORA O R C Orange, Sea- Orange ruins. Oran is situated in 35. 50. noi tli, and longitude 0. 11 18. west. ORANGE, an arrondissement of the department ot the Vaucluse, in France, extending over 406 square miles. It comprehends seven cantons, divided into fifty communes, and contains 69,443 inhabitants. The capital, a city ot the same name, is the seat of a bishop, and of some courts of law. It stands on a fruitful plain, watered by the river Meyne. It has large lofty houses, with narrow and crook¬ ed streets, a cathedral, a Protestant church, two hospitals, 1540 houses, and 8874 inhabitants, who make cotton, wool¬ len, and silk goods, besides oil, wine, brandy, madder, and paper. It is in latitude 49. 4. N., and longitude 8. 8. east. It is remarkable as the district whence the house of Nassau derived its title as prince, which it has retained without the territory. The vicinity of the city exhibits many curious remains of Roman antiquity, especiail} a triumphal gate of three arches, half a mile fiom it, on a theatre, the walls of which are 108 feet in height. A part of this building has of late years been converted into a prison. . „ 0 . ORANGE River, a large river of Southern Africa, which derives its origin from the waters of the Snowy Mountains, in the district of Graaf-Reynet, nearly at the north-eastern extremity of the colony of the Cape of Good Hope. It is formed chiefly by two rivers, the Ky Gariep or Yellow River, and the Nu Gariep or Black River, which unite their waters in latitude 29. 4., upwards of five hun¬ dred miles due east from their mouth. I he latter branch, flowingfrom the south-east, is called, higher up, theCiadock River, and receives the Sea-Cow River and some other streams from the Sneuwbergen. The Muddy or Alexander River, flowing also from the south-east, falls into the Yel¬ low River above its confluence with the Nu Gariep. The former river, the Ky Gariep, comes from the north-east, and is formed by the union of the Vaal River with the Hart stream or Malalareen. After the junction of these two streams, the Orange River flows at first in a north-westerly course, but afterwards bends to almost due west, which bearing it maintains until it falls into the Atlantic in lati¬ tude 28. 30. north. In the eastern part of its course it forms the limit between the territory ot the Hottentots and that of the Boshuanas; the country on the south pre¬ senting an entirely different character of animal and ve¬ getable life from that on the north. In its westerly course this river winds its way through a desert of a clayey or swampy character ; the sandstone rocks rising in perpendi¬ cular walls, which are often prolonged to a vast extent. The country retains the same aspect for a consideiable space on both sides of the river ; and the heat is here very great and oppressive. The course of the Orange River, includ¬ ing its windings, must considerably exceed one thousand miles. Orange, Sea, in Natural History, a name given by Count Marsigli to a very remarkable species of marine substance, which he denominates a plant. It is tough and firm in its structure, and in many things resembles the common fucus; but instead of growing in the branched form which the generality of these substances assume, it is round and hollow, and in every respect resembles the shape of an orange. It has, by way of root, some exceed¬ ingly fine filaments, which fasten themselves to the rocks, or to shells, stones, or any thing else that comes in the way. From these there grows no pedicle; but the body of the orange, as it is called, is fastened by them to the rock, or other solid substance. The orange itself is usual¬ ly about three or four inches in diameter; and whilst in the sea it is full of water, which it retains even when taken up. In this state it frequently weighs a pound and a half; but when the water is let out, and it is dried, it becomes a mere membrane, weighing scarcely any thing. It is best preserved by stuffing it with cotton as soon as the d water is let out of it, and then hanging it up to dry. Its surface is irregular and rough, and its colour is a dusky green on the outside, and a clearer but somewhat bluish ^ green within ; and its thickness is about an eighth part of an inch. When viewed by the microscope, it is observed to be all over covered with small glandules, or rather com¬ posed of them ; for they stand so thick one by another, as to leave no space between, and seem to constitute the whole substance ; so that it appears very like the rough shagreen skin used to cover toys. These are indeed so many hol¬ low ducts, through which the sea-water finds a passage into the globe formed by this skin, and by this means it is kept always full and distended. On cutting it with a pair of scissors, the water immediately runs out, and the skins collapse; but there is something extremely remark- able in this, for the whole substance, near the wounded place, is in motion, and seems as if alive, and sensible of the wound. The glandules are found full of water, resem¬ bling small transparent bottles ; and what goes to the structure of the plant besides these, is an assemblage of a vast number of filaments, all of which are likewise hollow, being filled with a clear and transparent fluid. ORATION, in Rhetoric, a speech or harangue, compos¬ ed according to the rules of oratory, but spoken in public. ORATOR, amongst the Romans, differed from a pa- tronus. The latter wras allowed only to plead causes on behalf of his clients ; whereas the former might quit the forum, and ascend the rostra or tribunal, to harangue the senate or the people. I he orators had rarely a profound knowledge of the law ; but they were eloquent, and their style was generally correct and concise. I hey were em¬ ployed in causes of importance, instead of the common pa¬ trons. Orators, in the violence of elocution, used the ut¬ most animation of gesture, and even walked backwards and forwards with great heat and emotion. Ihis it was which gave occasion to a witticism of Flavius Virginius, who ask¬ ed one of these walking orators, Quot millia passuum de- cla?ndsset ? “ How many miles he had declaimed ?” Si¬ milar to the Roman orators were the Grecian rhetores. ORATORIO, in a kind of sacred drama, in which the poetry is derived from some scriptural subject, and is set to music in recitatives, airs, duetts, trios, quartetts, &c. and choruses, accompanied by an orchestra, sometimes an organ, and introduced by an instrumental overture. The origin of the oratorio is not clearly established. _ Amongst the most remarkable oratorios of modern times is Haydns ORATORY, the art of speaking well upon any subject, so as to persuade or convince. See Rhetoric. Oratory, amongst the Roman Catholics, means a close or small apartment near a bed-chamber, furnished with an altar and crucifix, for private devotions. ORBE, a small city of Switzerland, in the canton ot Vaud, on the river of the same name, across which there is a stone bridge. It contains 280 houses, with 1400 inha¬ bitants. Anciently it was one of the largest of the ci j in the country, and in the time of the Romans was, under the name of Urbigenum, the capital of Helvetia. In middle ages the kings of the Franconian race had the palace here, and gave their splendid festivals; bu m Burgundian wars it suffered greatly, and declined so m as to become subject to the cantons of Berne and tnbug. It now contains some large houses. 1 he inhabitants c y depend on agriculture, but have some trade with tien and Yverdun. . en- ORCHARD, a department in gardening, al'otte“ tirely to the growth of standard fruit-trees, for turn » a large supply of the most useful kinds of fruit. See TICULTURE. . .,TTeir ORCHESTRA, in Music. See the article Music. itlS. j O R C Orchestra, in the Grecian theatres, was that part of the proscenium or stage where the chorus used to dance. In the middle of it was placed the Aoyaov or pulpit. The orchestra was semicircular, and surrounded with seats. In Ithe Roman theatres it formed no part of the scene, but answered pretty nearly to the pit in our playhouses, being occupied with seats for senators, magistrates, vestals, and other persons of distinction. The actors never went down into the orchestra. ORCHESTRINO, a modern musical instrument, so called by its inventor Poulleau. It was shaped like a pi¬ ano-forte, had similar finger-keys, and its sounds were produced by the friction of a circular bow upon the strings. It imitated the tones of the violin, the viola, the violon¬ cello, the viol d’amour, the double-bass, &c. The construc¬ tion of the bow (of hair, &c.) is said to have been very cu¬ rious and ingenious. ORCHESTRION, a musical instrument invented by the Abbe Vogler about 1789. It was a kind of portable organ, about nine feet in height, breadth, and depth. Its power was that of an organ of sixteen feet pipe, and it had a mechanism to swell or to diminish all the sounds within its compass. Another instrument of the same name, in¬ vented in 1796, by Kunz, a Bohemian, consisted of a piano¬ forte, combined with some organ-stops. ORCHIA Lex, Instituted by Orchius the tribune, in the year of Rome 566. Its intention was to limit the number of guests who were to be admitted at an entertain¬ ment; and it is also provided that, during supper, which was the principal meal amongst the Romans, the doors of every house should be left open. ORCHILLA, or Horchilla, a small cluster of islands in the West Indies, situated not far from the coast of South America, in latitude 12. north, and longitude 65. 20. west. The largest island, which bears the form of a crescent, is very hilly on the east and west capes, and here trees and verdure abound; but the other parts are low, and the soil, Torn its flatness, is barren, and productive of very few plants. There is little fresh water, no animals except goats and izards, nor does it appear to contain any permanent popu- ation. On the south-west side the shore is nearly as >erpendicular as a wall, and the water being very deep, 'essels can approach close to it without danger. Naviga- ion is extremely difficult amongst the Orchillas; for not I 'nly are the islands separated from each other by very mrrow channels, but there are a number of currents, vari- ■ble, violent, and dangerous. ORCHON, a river of Chinese Tartary, which has its ise on the confines on the great desert of Shamo, and falls nto the Selingha. Long. 106. 14. E. Lat. 50. N. ORCUS, the god of the infernal regions, was the same vith Pluto, and so called from the Greek word o^o;, signi- )ing a tomb or sepulchre ; or from o^xes, an oath sworn by he river Styx. The ancients gave this name to all the di¬ mities of the infernal regions, even to Cerberus. There was over of the same name in Thessaly, which took its rise in ^ marshes of the Styx, and the waters of which were so nek that they floated like oil upon the surface of the ri- er T>encus, into which they discharged themselves. This O R D probably suggested to the poets the idea of the infernal abodes, which they denominated Orcus. Orcus has been confounded with Charon. He had a temple at Rome. ORDEAL, an ancient form ot trial. It consisted in an appeal to the immediate interposition ot divine power, be¬ ing particularly distinguished by the appellation of cium Dei; and was sometimes called jntrgatio vulgaris, to distinguish it from the canonical purgation, which was by the oath of the party. Two kinds of this trial were more common than the rest, at least in Europe; viz. fire-ordeal and water-ordeal. The former was confined to persons of high rank, the latter to the common people. Both these might be performed by deputy; but the principal was bound to answer for the success of the trial, the deputy only ven¬ turing some corporal pain, for hire, or perhaps for friendship. That the purgation by ordeal, of some kind or other, is very ancient, admits not of a doubt; and that it was uni¬ versal in the times of superstitious ignorance, seems to be equally certain. It appears even to have been known to the ancient Greeks ; for, in the Antigone of Sophocles, a person suspected by Creon of a misdemeanour, declares himself ready “ to handle hot iron and to walk over fire,” in order to manifest his innocence, which, the scholiast tells us, was then an usual mode of purgation. And Grotius gives many instances of water-ordeal in Bithynia, Sardinia, and other places. It seems, however, to have been carried to a greater height amongst the Hindus than ever it had been in any nation or amongst any people, however rude or barbarous; for in a paper in the Asiatic Researches, communicated by Mr Hastings, we find that the trial by ordeal amongst that people is conducted in nine different ways: firstly, by the balance; secondly, by fire; thirdly, by^water; fourthly, by poison ; fifthly, by the cosha, or the water in which an idol has been washed ; sixthly, by rice; seventhly, by boil¬ ing oil; eighthly, by red-hot iron ; and ninthly, by images. 1. Ordeal by the balance is thus performed. The beam having been previously adjusted, the cord fixed, and both scales made perfectly equiponderant, the person accused and a pundit fast a whole day ; then, after the accused has been bathed in sacred water, the homa or oblation present¬ ed to fire, and the deities worshipped, he is carefully weigh¬ ed ; and when he is taken out of the scale, the pundits prostrate themselves before it, pronounce a certain mentra or incantation, agreeably to the Shastras, and, having writ¬ ten the substance of the accusation upon a piece of paper, bind it on his head. Six minutes afterwards they place him again in the scale, and if he weigh more than before, he is held guilty ; if less, innocent; if exactly the same, he must be weighed a third time, when, as it is written in the Mitacshera, there will certainly be a difference in his weight. Should the balance, though well fixed, break down, this would be considered as a proof of his guilt. 2. For the fire-ordeal, an excavation, nine hands in length, two spans in breadth, and one span in depth, is made in the ground, and filled with a fire of pippal-wood. Into this the person accused must walk barefooted; and, if his foot be unhurt, they hold him blameless ; but if it be burned, he is held guilty.1 3. Water-ordeal is performed by causing the person 519 Ordeal. eight we'°rueal WaS Pff?ri?ed takinS up in the hand’ ullhllW a piece of red-hot iron, of one, two, or three pounds arty escaJd baref°otfd and blindfold, over nine red-hot ploughshares, laid lengthwise at unequal distances; and if the mdemned -w n ^ if WaS adJudgfd innocent; but if it happened otherwise, as without collusion it usually did, he was then eared her \ \ owever’ by tins latter method, Queen Emma, the mother of Edward the Confessor, is mentioned to have ipeaW L thl n er’ suspected°f familiarity with Alwyn, bishop of Winchester. The first account which we have of Christians relate ?“e hre-°rdeak as a proof of their innocence, is that of Simplicius, bishop of Autun, who lived in the fourth century. This nwilliL tn 1;°!7 1S f.fr’ bffore h,s promotion to the episcopal order, had married a wife, who loved him tenderly, and who, ’•least in tllp- m/;ter hl,s advancement, continued to sleep in the same chamber with him. The sanctity of Simplicius suffered, I -rsisted by tle constancy of his wife’s affection ; and it was rumoured about that the holy man, though a bishop, •ncourse of npo°iS1 ^ i ° ^lie ecc^esias^ca^ canons, to taste the sweets ot matrimony ; upon which his wife, in the presence of a great the leist hurt ^ l° " a consiL ra^e cluantity l)urning coals, which she held in her clothes, and applied to her breasts, with- iccess the ere 1 i ° 1l more notorious instance of the truth of this assertion be possibly given than that of the trial by ordeal. The gross absurdity as well as impiety of pronouncing a man guilty unless he was cleared by a miracle, and of expecting that all the powers of nature should be suspended by an imme¬ diate interposition of Providence to save the innocent, when it was even presumptuously required, is self-evident. Yet the origin of this mode of trial may be traced to neces¬ sity as well as to superstition. At the time in which it ori¬ ginated in England, as well as in other countries of Europe, it was no easy matter for an innocent person, when accused of guilt, to get himself cleared by the then established mode of trial. It was therefore natural for superstition to fly to Heaven for those testimonies of innocence which the ab¬ surdity of human laws often prevented men from obtaining in the ordinary course of affairs. In this way, doubtless, did the trial by ordeal commence ; and being thus begun by necessitous superstition, it was fostered by impious priestcraft and unjust power. During all the processes there was great room for collusion and deceit, and there can be no question but it was often practised; it could not, therefore, on any account, or in any case, be a sign of innocence or of guilt. Besides the particular methods of trial which we have already mentioned, there were some few more common in European countries ; as the judicial combat, the ordeal of the cross, and the ordeal of the corsned. The judicial combat was well suited to the genius and spirit of fierce and warlike nations, and, as we might rea¬ sonably expect, formed one of the most ancient and uni¬ versal modes of trial. We know that it was exceedingly common in Germany in very remote ages. It was also used in some countries on the Continent at a pretty early period; but it is not mentioned in any of the Anglo-Saxon laws, and it does not appear to have been much used in England until after the Conquest. It was so much the cus¬ tom in the middle ages of Christianity to respect the cross even to superstition, that it would indeed have been won¬ derful if the same ignorant bigotry had not converted it into an ordeal; and accordingly we find it used for this purpose in so many different ways as almost to preclude description. In criminal trials, the judgment of the cross was commonly conducted in this manner. When the pri¬ soner had declared his innocence upon oath, and appealed to the judgment of the cross, two sticks were prepared ex¬ actly like one another ; the figure of the cross was cut on one of these sticks, and nothing on the other ; each ol them was then wrapped up in a quantity of fine white wool, and laid on the altar, or on the relics of the saints ; after wmc a solemn prayer was offered up to God, that he would he pleased to discover, by evident signs, whether the prisoner was innocent or guilty. These solemnities being finished, a priest approached the altar, and took up one ot the sticks, which was uncovered with much anxiety. It it was me stick marked with the cross, the prisoner was pronounced innocent; but if it was the other, he was declaredguity- When the judgment of the cross was appealed to in t causes, the trial was usually conducted in this ' The judges, parties, and all concerned, being assemb a church, each of the parties chose a priest, the yo 8 ^ and stoutest whom he could find, to be his represen the trial. These representatives were then 0 • each side of some famous crucifix; and, at a S e ’ they both at once stretched their arms at fulHength, so to form a cross with their body. In this Painfu J, m. they continued to stand whilst divine service was perto ing; and the party whose representative dropped ms first lost his cause. ^iiopcp was The corsned, or the consecrated bread and chee. , O R D the ordeal to which the clergy commonly appealed when ( ''they were accused of any crimes ; and in this they acted a very prudent part, as it was attended with no danger or in¬ convenience. This ordeal was performed in this manner. A piece of barley bread and a piece of cheese were laid upon the altar, over which a priest pronounced certain conjurations, and prayed with great fervency, that if the person accused was guilty, God would send his angel Ga¬ briel to stop his throat, that he might not be able to swal¬ low that bread and cheese. These prayers being ended, the culprit approached the altar, took up the bread and cheese, and began to eat it. If he swallowed freely, he was declared innocent; but if it stuck in his throat, and he could not swallow, which we may presume seldom or never happened, he was pronounced guilty. Besides these, there were a variety of other ordeals practised in Christian countries, many of which retain the same names which were used amongst Pagans, and differ only as to the mode in which they were performed. In all nations of Christians where these trials were used, we find the clergy engaged in them. Indeed, in England, as late as the time of King John, we find grants to the bishops and clergy to use the judicium ferri, aqua, et ignis ; and, both in England and Sweden, the clergy presided at this trial, and it was only performed in the churches, or in other consecrated ground. “ Non defuit illis operae et laboris pretium,” says Stiernhook ; “ semper enim ab ejusmodi judicio aliquid lucri sacerdotibus obveniebat.” But, to give the canon law its due praise, w7e find it at a very early pe¬ riod declaring against trial by ordeal, or vulgaris purgatio, as being the work of the devil, “ cum sit contra praecep- tum Domini, Non lentabis Dominum Deum tuum." Upon this authority, though the canons themselves were of no va¬ lidity in England, it was thought proper (as had been done in Denmark above a century before) to disuse and abolish this trial entirely in our courts of justice, by an act of par¬ liament 3 Henry III. according to Sir Edward Coke, or rather by an order of the king in council. It may still perhaps be a postulate with some in what manner the effects of these trials were evaded, and how it was possible to appear to do that which we know could not be really done without material injury to the persons concerned. On this subject Dr Henry observes, in refer¬ ence to the ordeals in ancient Britain, that, if we suppose few or none escaped conviction who exposed themselves tothose fiery trials, we shall be very much mistaken. “For the histories of those times contain innumerable examples of persons plunging their naked arms into boiling water, handling red-hot balls of iron, and walking upon burning ploughshares, without receiving the least injury. Many learned men have been much puzzled to account for this, and disposed to think that Providence graciously inter¬ posed, in a miraculous manner, for the preservation of in¬ jured innocence. But if we examine every circumstance of those fiery ordeals with due attention, w’e shall see suf- cient reason to suspect that the whole was a gross impo¬ sition on the credulity of mankind. The accused person "as committed wholly to the priest who was to perform he ceremony, three days before the trial, in which he had •me enough to bargain with him for his deliverance, and give him instructions how to act his part. On the day of n.a ’ no person was permitted to enter the church but the I ^ie accused till after the iron was heated, when "e vefiiends of the accuser, and twelve of the accused, E A L. and no more, were admitted, and ranged along the wall on each side of the church, at a respectful distance. After the iron wras taken out of the fire, several prayers wrere saidthe accused drank a cup of holy water, and sprink¬ led his hand with it, which might take a considerable time if the priest was indulgent. The space of nine feet was measured by the accused himself with his own feet, and he would probably give but scanty measure. He was ob¬ liged only to touch one of the marks with the toe of his right foot, and allowed to stretch the other foot as far to¬ wards the other mark as he could, so that the conveyance was almost instantaneous. His hand was not immediately examined, but wrapped in a cloth prepared for that pur¬ pose three days. May we not, then, from all these precau¬ tions, suspect that those priests were in possession of some secret that secured the hand from the impressions of such a momentary touch of hot iron, or removed all appearance of these impressions in three days; and that they made use of this secret whenever they saw reason ? What greatly strengthens these suspicions is, that we meet with no ex¬ ample of any champion of the church who suffered the least injury from the touch of hot iron in this ordeal; but when any one was so fool-hardy as to appeal to it, or to that of hot wrater, with a view to deprive the church of any of her possessions, he never failed to burn his fingers, and lose his cause.” To this we may add what the learned Beckmann1 has stated concerning the imposition which was probably prac¬ tised in the ordeal by fire. “ I am not acquainted with every thing that concerns the trial by ordeal, when per¬ sons accused were obliged to prove their innocence by holding in their hands red-hot iron ; but 1 am almost con¬ vinced that this was also a juggling trick of the popes, which they employed as might best suit their views. It is well known that this mode of exculpation was allowed only to weak persons, who were unfit to wield arms, and particularly to monks and ecclesiastics, to whom, for the sake of their security, that by single combat was forbidden. Ihe trial itself took place in the church, entirely under the inspection of the clergy ; mass was celebrated at -the same time ; the defendant and the iron were consecrated, by being sprinkled with holy water; the clergy made the iron hot themselves; and they used all these preparatives, as, jugglers d° many motions, only to divert the attention of the spectators. It was necessary that the accused per¬ son should remain at least three days and three nights un¬ der their immediate care, and continue as long after. They covered his hands both before and after the proof, sealed and unsealed the covering; the former, as they pretend¬ ed, to prevent the hands from being prepared any how by art; the latter, to see if they were burned. “ Some artificial preparation was therefore known, else no precautions would have been necessary. It is highly probable, that during the first three days the preventive was applied to those persons whom they wished to appear innocent; and that the three days after the trial were re™ quisite to let the hands resume their natural state. The sacred sealing secured them from the examination of pre¬ sumptuous unbelievers; for, to determine whether the hands were burned, the last three days were certainly not wanted. When the ordeal was abolished, and this art ren¬ dered useless, the clergy no longer kept it a secret. In the thirteenth century, an account of it was published by Albertus Magnus, a Dominican monk.2 If his receipt be 1 Vol. Hi. 297. •urn miraRi' 011' Dr MiraUlihus Mundi, at the end of his book De Secretis Mulierum, Amsterdam, 1702, 12mo, p. 100. “ Experimer succum hi, [iU0<1 faClt, hominem ,ire in ignem sine laesione, vel portare ignem vel ferrum ignitum sine laesione in manu. Recip misce • ex ^laU Pet . l,unJen 0V1> et semen psylli et calcem, et pulveriza, et confice cum illo albumine ovi succum raphani; con •ustinero 1 „ coUectlone dhneas corpus tuum vel manum, et dimitte siccari, et postea iterum illineas, et post hoc poteris audacte ignem sine nocumento.” VOL. XVI. 0 3 u 521 Ordeal. 522 O R D Order, genuine, it seems to have consisted rather in covering the ■—v—' hands with a kind of paste than in hardening them. The sap of the althcea (marshmallow), the slimy seeds of the flea-bane, which is still used for stiffening by the hat- makers and silk-weavers, together with the white of an egg, were employed to make the paste adhere. And by these means the hands were as safe as if they had been secured by gloves. “ The use of this juggling trick is very old, and may be traced back to a Pagan origin. In the Antigone of So¬ phocles, the guards placed over the body of Polynices, which had been buried contrary to the orders of Creon, offered, in order to prove their innocence, to submit to any trial. We will, said they, take up red-hot iron in our hands, or walk through fire.” ORDER, in Architecture, is a system of the several mem¬ bers, ornaments, and proportions of columns and pilasters; or a regular arrangement of the projecting parts of a build¬ ing, especially the column, so as to form one beautiful whole. See Architecture. Order is also used to signify a division or class of any thing. Thus the tribe of animals called birds is subdivid¬ ed into orders. Order, in Rhetoric, is the placing of each word and member of a sentence in such a manner as will most con¬ tribute to the force, beauty, or evidence of the whole ; ac¬ cording to the genius and custom of different languages. With regard to "order, we may observe in general, that, in English, the nearer we keep to the natural or grammati¬ cal order, so much the better; but in Latin we are to follow the use of the best writers, a joint regard being always had to the judgment of the ear, and the perspicuity of the sense, in both languages. Order is also used to signify a class or division of the members of a state, with regard to assemblies, precedence, levees, and other circumstances. Orders, by way of eminence, or Holy Orders, denote a character peculiar to ecclesiastics, by which they are set apart for the holy ministry. In no reformed church are there more than three or¬ ders, namely, bishops, priests, and deacons. In the Roman Catholic church there are seven, exclusive of the epis¬ copate, all of which the council of Trent enjoins to be re¬ ceived and believed, on pain of anathema. They are dis¬ tinguished into petty, or secular orders ; and major, or sa¬ cred orders. Orders, the petty, or minor, are four ; those of door¬ keeper, exorcist, reader, and acolyte. Persons in petty or¬ ders may marry without any dispensation. In effect, the petty orders are lookted on as little other than formalities, and as degrees necessary to arrive at the higher orders. The Greeks disavow these petty orders, and pass imme¬ diately to the subdeaconate ; and the reformed churches to the deaconate. Their rise Fleury dates in the time of the Emperor Justinian. There is no call nor benefice required for the four petty orders ; and even a bastard may enjoy them without any dispensation, nor does a se¬ cond marriage disqualify. Orders, sacred, or major, are, as has already been ob¬ served, three, viz. those of deacon, priest, and bishop. The council of Trent, reviving the ancient discipline, for¬ bids any person being admitted to the major orders, un¬ less he be in peaceable possession of a benefice sufficient for a decent subsistence, and allows no ordinations on pa¬ trimonies or pensions, except where the bishop judges it for the service of the church. A person is said to be pro¬ moted to orders per saltum, when he has not before pass¬ ed the inferior orders. The council of Constantinople forbids any bishop being ordained without passing all the degrees; yet ecclesiastical history furnishes us with in¬ stances of bishops consecrated without having passed the O R D order of priesthood; and Panormus still thinks that such 0 an ordination is valid. Military Orders are companies of knights, instituted by 0rc; kings and princes, either for defence of the faith, or to con-''"” fer marks of honour and grant distinctions to meritorious subjects. Religious Orders are congregations or societies of mo¬ nastics, living under the same superior, in the same man- ner, and wearing the same habit. Religious orders may be reduced to five kinds, namely, monks, canons, knights, mendicants, and regular clerks. Father Mabillon shows, that till the ninth century, almost all the monasteries in Europe followed the rule of St Benedict; that the distinc¬ tion of orders did not commence till after the reunion of several monasteries into one congregation ; that St Odo, abbot of Cluny, first began this reunion, bringing several houses under the dependence of Cluny ; and that, a little afterwards, in the eleventh century, theCamaldulians arose, then the congregation of Yallombrosa, the Cistercians, Carthusians, Augustines, and at last, in the thirteenth cen¬ tury, the Mendicants. He adds, that Lupus Servatus, ab¬ bot of Terrieres, in the ninth century, is the first who seems to distinguish the order of St Benedict from the rest, and to speak of it as a particular order. White Order denoted the order of regular canons of St Augustin. Black Order denoted the order of Benedictines. These names were at first given to the two orders in question, from the colour of their habit; but were disused after the institution of several other orders, who adopted the same colours. Gray Order was the ancient name of the Cistercians; but, since the change of the habit, the name is no longer applicable. Orders, religious military, are those instituted in de¬ fence of the faith, and privileged to say mass ; but who are prohibited marriage, and subjected to other restraints. Of this kind were the knights of Malta, or of St John of Jerusalem, the Knights Templars, the knights of Calatrava, the knights of St Lazarus, the Teutonic kqights, and va¬ rious others. ORDINAL Numbers, those which express order, as 1st, 2d, 3d, 4th, and so on. ORDINANCE, or Ordonnance, means a law, statute, or command of a sovereign or superior. Ihus the acts of parliament are sometimes termed “ ordinances of parlia¬ ment,” as in the parliament rolls; although in some cases we find a difference made between the two, ordinances be¬ ing only temporary things, by way of prohibition, and ca¬ pable of being altered by the commons alone, whereas an act is a perpetual law, and cannot be altered except y king, lords, and commons. _ Coke asserts, that an ordinance of parliament diners from an act, as the latter can only be made by the three¬ fold consent of the estates ; whereas the former may be made by one or two of the estates. In the French jurisprudence, ordonnances are such laws as are established by the king’s authority alone. ORDINARY, in general, signifies common, usual, thus, an ambassador, or envoy, in ordinary, is one sent to re¬ side statedly, and for a number of years, at the cour o some foreign prince or state, in order to keep up a goo understanding, and watch over the interest of his ow nation. . . iju.. Ordinary, in nautical language, denotes the esta ment of the persons employed by government to take f of the ships of war which are laid up in the severa hours adjacent to the royal dock-yards. These ate p-;-; cipally composed of the warrant officers of the s ■ as the gunner, boatswain, carpenter, deputy-purser, cook, with three servants. There is, besides, enro ORE) ORE 523 Ord Or* na •y the list of the ordinary, a crew of labourers, who pass from ship to ship occasionally, to pump, moor, remove, or clean ' them, whenever it is necessary. The term ordinary is also applied sometimes to the ships themselves; and it is likewise used to distinguish the in¬ ferior sailors from the most expert and diligent. The lat¬ ter are rated able on the navy books, and have higher pay than those who are rated as ordinary. Ordinary of Assizes and Sessions, was a deputy of the bishop of the diocese, anciently appointed to give malefac¬ tors their neck-verses, and judge whether they read or not; to perform divine service for them, and assist in preparing them for death. Ordinary of Newgate, is one who attends in ordinary upon the condemned malefactors in that prison, to prepare them for death, and who records the conduct and beha¬ viour of such persons. ORDINATES, in Geometry and Conics, are lines drawn from any point of the circumference of an ellipsis, or other conic section, perpendicularly across the axis, to the other side. ORDINATION, the act of conferring holy orders, or of initiating a person into the priesthood, by prayer and the imposition of hands. Ordination has always been esteemed a principal pre¬ rogative of bishops, and they still retain the function as a mark of spiritual sovereignty in their diocese. The ordi¬ nation of bishops is properly called consecration. Ordina¬ tion is one of the sacraments of the church of Rome. In the established church of Scotland, where there are no bishops, the power of ordination is lodged in the pres¬ bytery ; and by the Independents, in the suffrage of the people. ORDNANCE, a general name for all sorts of great guns used in war. Master-General of the Ordnance is deemed the princi¬ pal officer in the civil branch of the ordnance; yet he is always chosen from amongst the first generals in his ma¬ jesty’s service. Lieutenant-General of the Ordnance receives all orders and warrants signed by the master-general, and from the other principal officers, and sees them duly executed; is¬ sues orders as the occasions of the state require ; and gives directions for discharging the artillery when required at coronations, birth-days, signal victories, and other solemn occasions. Surveyor-General of the Ordnance inspects the stores and provisions of war in the custody of the storekeeper, and sees that they are ranged and placed in such order as is most proper for their preservation. Clerk of the Ordnance, an officer whose function is to record all orders and instructions given for the government °t the office ; all patents and grants ; and the names of all officers, clerks, artificers, gunners, labourers, and the like. storekeeper of the Ordnance takes into his custody all ms majesty’s ordnance, munitions, and stores belonging tV-fo, and indents and puts them in legal security, after they have been surveyed by the surveyor-general, any part ot which he must not deliver without a warrant signed by me proper officers. Clerk of the Deliveries of the Ordnance draws all orders or e ivery of any stores, and sees them duly executed. i reasurer and Paymaster of the Ordnance receives and Pa)s a 1 moneys, both salaries and debentures, in and be- ionging to this office. architecture, is the composition of [ and the disPosition °f its parts, both with re- I hffr6 whole and t0 one another; or, as Mr Evelyn , presses it, determining the measure of what is assigned cinn 6 seve.ra^ apartments. Thus ordonnance is the judi- s contrivance of the plan or mould ; as when the court, hall, or other building or apartment, is neither too large nor too small, and that the court affords convenient light to the apartments around it, the hall is of a fit capacity to receive company, and the bed-chambers of a proper size. When these divisions are either too great or too small with respect to the whole, as where there is a large court to a little house, or a small hall to a magnificent palace, the fault is in the ordonnance. Ordonnance, in Painting, is used for the disposition of the parts of a picture, either with regard to the whole piece or to the several parts, as the groups, masses, contrasts, and so forth. ORE, a mineral body, partly or entirely composed of some metallic substance, in the natural state in which it exists in the earth. Metallic substances are found either native, that is, pure, and uncombined with other substances, or alloyed with other metals, or combined with oxygen or sulphur, or with acids. Ihus it appears that metals exist in ores in four different states; in the metallic state, when they are either pure, or combined with each other, as in the state of alloy; in the state of an oxide ; combined with sulphur in the state of sulphuret; and, with acids, forming salts. OREEHOUA, one of the smaller Sandwich Islands, which is a single high hummock, and is only separated from Onehow by a channel about a mile in width. The popula¬ tion is 4000. OREGON Territory, a vast extent of country belong¬ ing to the United States of North America, and situated to the west of the Rocky Mountains. It is bounded on the north by the British and Russian possessions, the limits of neither power having been very clearly fixed. On the west it is bounded by the Pacific; on the south by Mexico ; and on the east by the stupendous ridges of the Rocky Mountains, situated in the territories of Arkansas and Mis¬ souri. It may be assumed as stretching between the forty- first and fifty-fourth parallels of north latitude, and the thirty-fourth and forty-eighth meridians of west longitude. The waters which rise on the western declivities of the gi¬ gantic mountain chain bounding Oregon on the east, flow into the Columbia, the Multnomah, and the lake Buene- ventura. In general the elevated summits of the Rocky Mountains rise above the line of perpetual congelation. Beyond the mountains the country descends by regular belts, in the form of immense terraces, or descending plains, disposed regularly, the one below the other. Beyond the first plain, and between the Rocky Mountains and the Pa¬ cific, is another extensive and high chain of mountains, in which are the great falls of the Columbia ; still farther to the west, running parallel with the coast, and at the distance of one hundred and fifty miles, is the third and last chain. The peaks of all these mountain ridges are covered with perpetual snow. The loftiest of them have been named Mount Baker, Mount Regnier, Mount St He¬ lens, Mount Hood, and Mount Jefferson. The Columbia and its branches are the only rivers which have been explored to any extent in the region of Oregon. This noble river, sometimes named after the territory, has its head waters near those of the Missouri, and it collects innumerable tributary streams throughout a great extent along the western ridges of the Rocky Mountains. Imme¬ diately after it emerges from these, its current becomes broad and deep, and having received Clarke’s and Lewis’ Rivers, which flow into it on the south-east side, its breadth is enlarged to nine hundred and sixty yards. It there takes a great bend to the south, and penetrates the second moun¬ tain barrier. One hundred and thirty-six miles lower down are the great falls, where the river descends fifty-seven feet in one rapid ; but none of the cataracts singly are above twenty feet. Below these falls it winds first to the north¬ west, and then to the south-west, and intersects the third Ordon- nanee Oregon. 524 OREGON. Oregon, chain of mountains, where it is again compressed to one s—hundred and fifty yards in breadth. Below this rapid, which is distant one hundred and eighty miles from the Pacific, it meets the tide, and from this point it has a broad es¬ tuary to the sea. Sixty miles below the rapids, the Wal- lamat or Multnomah, a large tributary, flows in from the north-east; and this river, together with those of Clarke and Lewis, constitute the three great tributary streams of the Columbia. Vessels of three hundred tons may reach the Multnomah, and large sloops may ascend as high as the tide. Above the rapids the navigation is good for sixty-five miles, when it is interrupted by the long narrows ; and higher up it is also interrupted by tails, which renders about five miles of portage necessary to obviate these obstruc¬ tions to navigation. The river at the narrows, for upwards of three miles, is compressed into a strait, not exceeding sixty or seventy yards in breadth, the whole of which is a succession of boiling whirlpools. The Columbia flows into the Pacific Ocean in latitude 46. 19. north, and longitude 123. 54. west; and although its main sources are estimated at only eight degrees of latitude Irom this, yet ii we take into calculation its serpentine windings, its course cannot be less than fifteen hundred miles. The mouth of this great river is upwards of four miles wide, and, to the dis¬ tance of thirty or forty miles from its entrance into the sea, it is, properly speaking, a mere estuary, indented by deep bays, so as to vary from three to seven miles in width, it is rendered extremely intricate and dangerous by shoals reaching nearly from shore to shore, on which at times the winds and currents produce foaming and tumultuous break¬ ers. The river proper, however, is only about half a mile wide at its confluence with the sea, being narrowed by the contracting shores of the estuary. The entrance from the Pacific is bounded on the southern side by a flat sandy neck of land, stretching into the ocean, and commomy called Point Adams. The opposite or northern side is Cape Disappointment, a kind of peninsula, terminating in a steep knoll or promontory, crowned with a forest of pine-trees, and connected with the mainland by a low and narrow neck. The Columbia River is, for a considerable distance, seldom less than a mile in breadth ; in some places it is from two to five miles wide, and in others it forms lakes ol very considerable magnitude. The shores are generally bold and thickly w'ooded. Pine in all its varieties predominates, and is mixed with white oak, ash, beech, poplar, alder, crab, and cotton wood, with an undergrowth ot biiars and other shrubs. Up to the rapids the river is covered with numerous islands, from one to three miles in length, some of which present fine meadows, and others are well wooded. Sand banks also prevail, and these, being so large and high as to be laid bare at low w’ater, materially obstruct the na¬ vigation of the river. In the neighbourhood of these the shores are generally low, and present some fine flat bot¬ toms” of meadow ground, bordered by a profusion of black¬ berry and other wild-fruit shrubs ; in the deep and narrow parts of the channel the shores are bolder. The pine-tree declines considerably above the rapids, and is much more equally mixed with other trees, amongst which the hazel occasionally predominates. But in regard to size, the pine and the cedar are as gigantic at the very source of the Co¬ lumbia as they are on the shores of the Pacific. The Co¬ lumbia and its tributaries abound with the finest salmon, which seem in fact to constitute the principal article of food of the savages who inhabit the country to the w’est of the Rocky Mountains. Seals and other aquatic ani¬ mals are likewise abundant in this river, and the skins, which are exported to China, constitute the chief article of trade. A number of the head streams of the Mis¬ souri interlock with the waters of this river, as Wisdom River with Clarke’s of the Columbia; and Jelferson of the Missouri with Lewis’s of the Columbia. Clarke’s River has a course of between two and three hundred miles before ()«* it unites with the Columbia. Lewis’s River is also a large . and long tributary, receiving in its course the North Fork and Kooskooskee, and, after winding six hundred miles, it joins the Columbia by a mouth upwards of six hundred yards in width. The current is very rapid. Its waters are deep, of a white colour, and slightly tepid, in which re¬ spect Lewis River forms a marked contrast with the Co¬ lumbia, the waters of which are quite clear and cool. The latter river at this place is upwards of one thousand yards wide, and the current descends at an even rate of about four miles an hour. The two most important rivers which join the Columbia below the rapids are, the Multnomah, which has been already mentioned, and the Coweliskee. The general course of the former is a little to the eastward of south. It runs through a low, well-wooded country, for upwards of sixty miles, when the navigation is interrupted by a considerable fall, above which the channel contracts, and the banks become higher and less wooded. The cli¬ mate on the shores of this river is remarkably mild, and not so moist as it is on the coast. It possesses a rich and luxu¬ riant soil, which yields an abundance of fruits and roots; and amongst other herbs the tobacco plant has been dis¬ covered, and found to be of excellent quality. The Indians here are of a pacific character. There are no noxious rep¬ tiles, and beaver, deer, and elk are plentiful. Indeed it is anticipated, that when Oregon shall become generally colonized, the country about the Wallamat will be render¬ ed one of the most delightful districts to the westward of the Rocky Mountains. Little is known of the Coweliskee. It enters the Columbia from the northward, about half a day’s journey below the Wallamat. Its banks are high and thickly wooded, but its current is much interrupted by rapids. Little information has been obtained regarding the geo¬ logical features of this vast expanse of country; but it is presumed that the western declivities of these mountains are of primitive formation. The territory must have an abrupt slope towards the Pacific, as it descends as much in six hundred miles to the vvest, as it does in one thou¬ sand five hundred miles to the east. The summits of the mountain ranges, being rugged rocks, the only covering ol which is snow, that remains during the greater part of the year, are necessarily sterile ; but these rocky chains embo¬ som and shelter valleys of considerable fertility. Ihe tim¬ ber which clothes the mountains consists of pine, spruce, hr, and the other terebinthines. The terrace plains below have in general a fine soil, but they are very scantily furnished with timber, except on the banks of the rivers. The prairies are covered with grass and a profusion of beautiful flowers, the same as on the eastern sides of the mountains. Amongst the prairie plants are found various species of edible roots, which are used by the savages, in addition to the immense quantities of salmon, which constitute their staple article ot food. W’ild sage is not only a most abundant herb, but it grows to so large a size that it is used as the chief article of fuel on these extensive plains. Deep and thick fores of such evergreens as pine and hemlock stretch a ong t shore, and extend a considerable way into the interior, an altogether it appears that the region which lies betwe the Rocky Mountains and the Pacific Ocean possesses many parts a fertile soil, besides enjoying an agreeable cm 1 mate. Its southern-border, where it joins with > is indeed remarkably mild. In the year 180o this r fo was explored by order of the American government; an from the tables which were drawn up by Lewis and > the persons employed on that service, a pretty correc may be formed of the meteorology, and„conse‘1Unefnp 'ber the climate, of the country in question. From Sep it gradually became colder till the end ot 3 ’ n(i 0f which the rigour of the winter abated, and by the OREGON. 525 , February it was “ quite warm.” By the middle of March K1plants appeared above ground, and put forth their leaves; and on the 30th of that month, “ grass was sixteen inches high in river bottoms.” It is not, however, till the end of May that snow disappears from the high plains; and about the beginning of June the river Columbia is at its greatest height, being swelled by the melting of the snow on the mountains. Strawberries are ripe at the end of this month, and July and August appear to be the season when fruits and flowers arrive at full perfection. From other and more recent authorities we learn that the summer is reckoned temperate, the thermometer never rising above eighty de¬ grees. Westerly winds prevail during the spring and early part of summer, and they are succeeded by fresh breezes from the north-west. In the month of October the south¬ erly winds set in, bringing with them frequent rain. The rainy season, which commences in this month, continues, with little intermission, till April; and although the winters, as we have already observed, are mild, the mercury in the thermometer seldom sinking below the freezing point, yet the tempests of wind and rain are terrible. The sun is said to be sometimes obscured for weeks, the brooks swell into roaring torrents, and the country is threatened with a deluge. The foregoing observations regarding the climate, soil, and productions of Oregon, apply chiefly to that part of the country which lies between the rapids and the Pacific Ocean. Mr Ross Cox, who spent several years in this region, informs us, that from the falls to the land of the Spokans, a distance of about five hundred miles, the sum¬ mers are excessively hot, and the winters intensely cold, yet the climate is withal remarkably healthy, and, during these seasons, subject to but little variation. The soil is unproductive, consisting chiefly of a light yellowish sandy clay. The plains are covered with a short kind of grass, mixed with prickly pears, wormwood, and tufts of long, coarse grass, from three to five feet in height. Patches of clover are here and there visible, and in their vicinity the chappallel and the camas or quamash roots are found. Wild onions grow in considerable quantities along the banks of the river above the falls. Cotton wood, small willow, sumac, furze, and sarsaparilla, are also occasionally found; but from the falls to Spokan River, none of the larger trees are met with. The principal animals are horses, small deer, prairie wolves, red foxes, badgers, polecats, hares, and dogs. Otters are sometimes seen; but the great staple animal of the American trapper, the beaver, is a stranger to this particular district, whilst in other parts of the country it is frequently found. The Indians affirm that buffaloes were formerly numerous, but, together with toe elk and the sheep, they have long since deserted the plains. No rattle-snakes are seen below the falls ; but at a short distance above them they make their appearance, and are in some parts very numerous, as are also horned hzards and grasshoppers. Within the region of the Rocky Mountains vegetation on the Columbia is rich and luxu¬ riant, including all the varieties, from a profuse growth of ackberry and wild cherry, to the stately pine and majes¬ tic cedar. On the eastern side of the mountains, the re¬ verse of this is observed, vegetation being dwarfish and stunted. 1 he difference is supposed to arise from the great Himidity of the atmosphere on the Columbia. There, west- ery and south-westerly winds prevail during eight months 0.i e year> and are loaded with exhalations from the Pa- ,C1 c’ Such of the clouds as are not arrested by the high anc s on the coast, are stopped in their progress eastw ard J t e lofty chain of the Rocky Mountains, and thus serve 0 keep the climate perpetually moist. n the year 1811, a settlement was formed by American i izensat the mouth of the Columbia, and called Astoria, 1 cr .li Astor, who conceived the idea of forming an ex¬ tensive fur depot in this part of America. Astoria was taken by the British in 1813, and by them the name of the place was changed to that of Fort George. The soil and productions of this portion of the Oregon territory are thus described by Mr Ross Cox. “ The soil in the valleys con¬ sists of a bed of rich black mould, about six inches in depth, which covers a stratum of gray earth, extremely cold. The latter lies on a layer of large gravelly sand ; and under all is a bed of hard flinty stones. On the high grounds, under a thin covering of black mould, are found good quarry stones, w'ell adapted for building. There is a bank of white earth, resembling chalk, to the southward of Point Adams; and farther on in the same direction, the Indians find red, green, and yellow earths, and a species of heavy shining clay resembling lead-mine. No limestone is found in the neighbourhood.” In June there are, amongst other wild fruits, small white strawberries, of a sweet flavour; and these are followed by red and amber raspberries, which grow upon bushes from ten to fifteen feet in height. Du¬ ring the three months which follow, there are obtained considerable quantities of blueberries, blackberries, wild cherries, gooseberries, w ild pears, and a species of bitter crab-apple. There is a shrub of a peculiar description, which yields a fruit much esteemed by the natives. The country likewise abounds in various nutritive roots, amongst which is a kind resembling young onions, collected by the Indians in great quantities, which, after being dried and pulverized, are made into loaves, and laid up for seasons of scarcity. The principal quadrupeds are the elk, the red deer, the black-tailed deer; the black, brown, and grizzly bear, the last of which is extremely ferocious; the wolf, lynx, panther, tiger-cat, wild cat, marmot, fox, beaver, land-otter, sea-otter, musk-rat, wood-rat, and the horse. White bears are occasionally killed on the coast to the northward of the Columbia, but they are scarce. The most remarkable of the feathered tribes are the black, brown, and nun eagle, the hawk, pelican, cormorant, swan, heron, crane, bustard, gray and white goose, various spe¬ cies of wild duck, and other water-game. In some parts, the humming-bird and bee, in great numbers, banquet during the summer months amongst the wild flowers and aromatic herbs. The trees most common in the neigh¬ bourhood of Astoria are the cedar, spruce, pine, alder, and some others equally valuable. The cedars are from twen¬ ty to thirty feet in circumference, and proportionally high. The alders also are extremely large; and ash and oak, the former of a tolerable size, are found a few leagues above the fort. The rivers and the lakes are most abundantly furnished with fish of various kinds. In the spring months they swarm with immense quantities of small fish resembling pilchards, which are smoke-dried, and form an important article of barter with the upper Indians for roots. Prime sturgeon, which attains an enormous size, abound in the months of August and September ; but the grand staple is salmon, the chief fishing of which is at the “ long nar¬ rows,” already" mentioned, where the river, compressed into a channel from fifty to one hundred feet in breadth, boils and roars w ith great fury for a distance of three miles. In the spring of the year, when the water is high, the salmon ascend the river in incredible numbers. As they pass through this narrow strait, the Indians, standing upon the rocks, or on the end of wooden stages projecting from the banks, scoop them up with small nets distended on hoops, and attached to long handles, and cast them ashore. They are then cured and packed in a peculiar manner. After being disembowelled, they are exposed to the sun on scaf¬ folds erected on the river-banks. When sufficiently dry, they are pounded fine between tw7o stones, pressed into the smallest compass, and packed in baskets or bales of grass matting, about two feet in length and one in diameter. Oregon. 526 Oregon. OREGON. lined with the cured skin of a salmon. Packages are then ' made, each containing twelve of these bales, and being well wrapped up and secured, they are placed in dry si- tuations, and again covered with matting. Each of these packages contains from ninety to a hundred pounds of dried fish, which in this state will keep sound for several years. At the head of the long narrows the Indians had some years ago, and have still, it is presumed, their principal trading mart or emporium. Here the salmon caught in the neighbouring rapids are “ warehoused,’ to await cus¬ tomers. Hither the tribes from the mouth of the Colum¬ bia repair with the fish of the sea-coast, the roots, berries, and especially the wappatoo, gathered in the lower parts o the river, together with goods and trinkets obtained t e ships which visit the coast, or from the colonists. Hither also the tribes from the Rocky Mountains bring down horses, bear grass, quamash, and other commodities ot the interior. The trade is of course pursued on the pri¬ mitive principle of barter, the merchant fisherman acting as middleman or factor. . Although only a comparatively small portion ot Oregon, and that chiefly situated on the banks of the great river, has been described, the greater part of the territory being still an unexplored wilderness, yet from this partial ac¬ count we are induced to form a favourable opinion ot the country. Wood appears to abound on the banks of the rivers, but many of the immense prairies of which the in¬ terior principally consists are nearly destitute of it, being chiefly covered with a coarse grass, and a prodigious growth of prickly pear, and other shrubs. Occasionally, however, there intervene bright green patches intermixed with wild flowers, and gentlv rising eminences, partially covered with clumps of small trees, which give an agreeable variety to the face of the country. Lewis and Clarke give a very pleasing account of what they term the great Columbian vallev. It is sixty miles in width, and extends far to the south-south-east, between parallel ridges of mountains, which bound it on the east and west. Through the centre of this valley flows the Wallamat, which has already been described as traversing for several hundred miles a still unviolated wilderness. The sheltered situation of this immense valley has an obvious effect upon the climate, as might be expected. It is represented as a region of great beauty and luxuriance, with lakes, and pools, and green meadows, shaded by noble groves. Various Indian tribes are said to reside in this valley, and all a‘ong the banks of the Wallamat. There is another place called Oakinagan, of which Mr Ross Cox gives a very flattering description. It is a point of land three miles in length by two in breadth, formed by the confluence of the river Oaki- nao’an with the Columbia. This small spot is enclosed at the upper end by a chain of hills, within which the lattle- snakes never intrude. The climate here is highly salu¬ brious, the soil is fertile, producing immense quantities of sarsaparilla; the horses are abundant, and ample facilities exist for water-carriage. The native Indians who inhabit the peninsula are an honest, quiet, inoffensive tiibe, whose chief occupation is catching and curing salmon, and hunt- in0- the deer and beaver. This was reckoned an eligible situation for a fort, and here one has accordingly been Greeted* There is a district called New Caledonia, generally included in the territory of Oregon, of which a short ac¬ count is requisite in this place. It extends from north latitude 51° 30' to about 56°. The principal trading post is called Alexandria, which is built on the banks of Fraser’s River, in latitude 53° north. The country in its immediate vicinity presents a beautiful and picturesque appearance. The banks of the river are somewhat low ; but at a little dis¬ tance inland, elevations, partially diversified by groves of fir and poplar, raise their heads above the general level. This region is full of small lakes, rivers, and marshes. It 0rer extends about ten days’ journey in a north and north-east''—\ ✓ direction. To the south and south east the Atnah or Chin Indian country extends about one hundred miles; on the east there is a chain of lakes, and the mountains bordering Thompson’s River ; whilst to the westward and north-west lie the lands of the Naskotinsand Clinches. The principal rivers are Fraser’s, Quesnel’s, Rough 1 oplar, Chilcotin,and West Road. Of these, Fraser’s River only is navigable. It receives the waters of Quesnel s and W est I oplar Rivers, which issue from small lakes to the westward. The lakes and rivers abound in fish, such as salmon, trout, sucker, and the like. The soil is thin and poor, and the vegetation here is considerably inferior to that on the Columbia. On the banks of the chief river, and in the interior, the trees consist of poplar, cypress, alder, cedar, birch, and different species of fir, spruce, and willow. There are some wild fruits, and edible and medicinal roots, but not at all so plentifully distributed as in other parts of the territory. A number of valuable minerals are found in New Caledo¬ nia, including coal in considerable quantities. There have also been discovered rock-crystal, cobalt, talc, iron, mar- casites of a gold colour, marble and limestone, quartz and granite, dhe animal kingdom does not differ so much from that which characterises the banks of the Columbia, as to require specific mention. Spring commences in April, when the wild flowers begin to bud, and from this period to the latter end of May the weather is delightful. In June it rains incessantly, with strong southerly and easterly vvinds. During the months of July and August the heat is very great; and in September the fogs are so dense that it is quite impossible to distinguish the opposite side of the river any morning before ten o’clock. October gives indications of the approach of winter ; and in January the cold is some¬ times most intense. In general, however, the climate may be characterised as neither unhealthy nor unpleasant. The natives prosecute the salmon fishery to a considerable extent, and their mode of catching them is very similar to that already described. Large-sized sturgeon are occa¬ sionally taken, but this fish is not relished by the natives. Of the various Indian tribes who still inhabit the im¬ mense tract of country which we have described, our limits permit us to present only a very brief notice. Iheir num¬ ber has been estimated at about 140,000, and they are distributed into a great many tribes, which often engage in war with each other. Many of them are excellent hun¬ ters ; and the mode of fishing and preparing the article for the market shows a practised ingenuity seldom evin¬ ced by the aborigines of America. There are striking con¬ trarieties of character between the Indian tribes, some of them being pugnacious and bloodthirsty, and others a comparatively mild and inoffensive disposition, me diet and their mode of living also vary considerably, b they all chiefly subsist on the fish of the rivers, and the native roots of the soil. For some years a settlement of fur traders, called Astoria, has existed in Oregoo- chief intercourse of this place is with China. 1 q tion of settling this delightful country Permanen yguch been more than once debated in Congress , an settlements authorized, and rendered secure oy q ^ site military establishments, there can be no doubt b would receive large accessions of emigrants. A is claimed by the United States, on the ground of pr.or y of discovery, examination, and occupation. ma(je tainly first discovered by the Spaniards, bu y _ no attempt either to explore or settle it. Its - belongs to Gray, an American, who entered he mou the Colombia in 1790-1, the river bang called aitt shin which he commanded. Subsequently t has he® ^ plored by navigators belonging to Great Britat ^ _ ii;, to the United States (r. R. R’) ORE OREL, or Orlow, a government of Russia in Europe. It is situated in north latitude between 51. 49. and 54. 59. and in east longitude between 32. 49. and 38. 57., and extends over 16,610 square miles. It is divided into twelve circles, and contains 1,270,000 inhabitants. It is rather a level district, having no mountains, and only some ran¬ ges of chalk hills, between which are valleys and some woods, that render the face of the country more pleasing to view than most other parts of Russia. The rivers and rivulets are numerous, and empty themselves, some into the Wolga, and others into the Dnieper. The chief of the streams is the Desna, which arises in the province of Smo- lensko; and the next is the Oka, which originates in Kursk, and runs through the whole province. The soil is the most fruitful of any of the ancient divisions of Rus¬ sia, and, though not well cultivated, yields crops of all the common grains, more than is required for domestic con¬ sumption. The surplus of corn, as well as spirits distilled from it, forms a branch of the export trade ; but it is ex¬ ceeded by the manufactured goods, which consist of linen, iron, and steel articles, raw hides and leather, tallow and soaP> wares, hemp, flax, linseed oil, mats, butter, hams, and wool. The only mines are those of iron ; but there are quarries of alabaster, and some yielding excellent mill¬ stones. Orel, the capital of the government, as well as of the circle in which it stands, is a city situated on the banks of the river Oka, at the spot where the Orlik joins that stream, and becomes navigable for barges. It is the seat of a bishop, and is surrounded by palisades, and protected by a citadel. It is a gloomy city, built chiefly of wood, and contains 2871 houses, with about 20,000 inhabitants, depending on the trade, which, from the whole province, centres in it. It is 732 miles from St Petersburg. Long. 35.52. 2. E. Lat. 52. 56. 40. N. & s ORELLANA, Francisco, the first European, as is commonly thought, who discovered the river Amazons. In 1539, he embarked, near Quito, upon the river Coca, which farther down takes the name of Napo. From this befell in with another large river ; and, leaving himself en¬ tirely to the direction of the current, he arrived at Cape iWth, on the coast of Luiana, after sailing nearly eighteen hundred leagues. Orellana perished ten years afterwards, with three vessels which had been intrusted to him in Spain, ' without being able to discover the mouth of this river. In | sailing down the river, he met with some armed women, ! against whom an Indian cacique had told him to be on his §Unn#nd he thence named it “ the river of the Amazons.” ORENBURG, a government of Asiatic Russia, the most westerly of the whole, having on one side Russia | in Europe, and on the other the government of Tobolsk, it is bounded on the south by Independent Tartary, and >s traversed by the rude tribes of the Kirghisses and Kal¬ mucks. The aspect of the country is mountainous, as it is intersected by the most elevated part of the great Ura- jan chain. Many parts are fertile, as the valleys and river Mnks, and yield grain, not merely for the subsistence of ne natives, but for exportation. Numerous flocks and er, . a,re ffd on the abundant pastures; and even the ca- e ils . ^ uP°p the plains. I he breeding of bees is pur- -irnn and f°und an extremely profitable nchof industry. A great quantity of large fish and ca- m-3 eniin 116 ^rid are exPortecb This province is rich n mmeral wealth. Its mountains afford inexhaustible inP l.^ C0PP®r and iron; besides which, it contains sa- wpIvp rS. ^ uca are .'cry valuable. It is divided into 1PI- i rwCtS’,of wllich tl;ie principal are Orenburg pro- ijp T u?a’ 1 which contains the capital. On ions nf 1^ntl?,! tll!S Province is exposed to the incur- vhirh . ^hisses and the Kalmuck hordes, against t :JZ 629%%,aS be“ ereCted- The 1,"pula‘ ORE 527 Orenburg, the capital of the province above described Orenburg until 1702, when the government was transferred to Oufa. II It is a considerable town, of an oval form, situated in one of ®restes- the extended plains of Russia, and regularly fortified. It ^ ' Y " was originally built higher up the Ural range, but in 1739 was transferred 120 miles lower, and in 1742 fifty miles more. It contains nine churches and 2000 houses. It car¬ ries on an extensive trade with Tartary, Bukharia, and all the countries in the interior of Asia. One great drawback on this trade is the insecurity of travelling across the vast intervening steppes, which are inhabited by nomadic tribes, who subsist by plunder. Were this obstacle removed (and the influence of the Russian government has gone far to remove it), the trade must greatly increase. The ex¬ ports consist of cloths of different qualities, particularly of a red or scarlet colour, velvets, Russia leather, linens blue and white, copper and iron utensils, sugar and other colo¬ nial produce, toys, and glass, and various species of orna¬ ments. From dartary these caravans bring cotton wool, India muslins and cottons, Persian silks, a little gold dust, lapis lazuli, and a few precious stones. Sheep to the num¬ ber of 40,000 or 60,000, and horses to the amount of 10,000, are brought annually to the market of Orenburg. The horses are sent to Russia, and also the sheep, the tal¬ low of which is exported from St Petersburg. A consider¬ able trade is carried on in the sale of golden eagles, which are highly valued by the Kirghisses. Long. 52. 31. 10. E Lat. 51. 46. N. ORENSE, a city of Spain, in the province of Galicia. It is situated in the higher part of the country, through which the Minho flows, over which there is a magnificent bridge. It was known to the Romans by the name of Aqua Calida, on account of three fountains of warm water which rise near it. It is situated in a very fertile district, which produces great quantities of wine; but, from the bad state of the roads, the expense of conveying it to a market is more than it would sell for when it arrived there. Orense is the see of a bishop, whose spiritual jurisdiction extends over a part of the contiguous province in Portugal. It pos¬ sesses four churches, two monasteries, an hospital, and a population of 30,000 souls. ORESTES, the only son of Agamemnon and Clytem- nestra, was seven years old at the period of his father’s murder, when he was saved by his sister Electra, who sent him secretly to Strophius, prince of Phocis, who had mar¬ ried the sister of Agamemnon. Plere he was educated with Pylades the son of Strophius, and afterwards proceeded to Athens. Eight years after the murder of his father he returned to Mycenae, and, with the assistance of Pylades and Electra, put to death iEgisthus and Clytemnestra (Horn. Od. i. 298; iii. 303-310; Hygin. 117). For this barbarous deed he was brought to trial, but was allowed to escape on account of his father. Tyndareus, father of Clytemnestra, was his accuser (Hygin. 119), or, according to another tradition, Perilaus, son of Icarius, and cousin of Clytemnestra (Paus. viii. 33, 2). He fled to Epirus, and there founded the city Argos Oresticon ; but the district of Orestias is more properly in Macedonia (Strab. vii. 326). Suffering extremely from the stings of his conscience, he consulted the oracle of Delphi how he might best expiate his crime, when he was commanded to proceed to Tauris and to bring back the statue of Artemis or Diana Tauropo- los. There was a law in that country that all strangers should be sacrificed to the goddess; and when Orestes . and Pylades were found by some shepherds, they were brought to Thoas, king of Tauris, who ordered them to be delivered up to the priestess of Artemis, that they might be sacrificed. Iphigenia, the sister of Orestes, had been rescued from the altar when she was on the point of being sacrificed by orders of her father, and transferred by Ar¬ temis to be priestess in her temple in Tauris. Iphigenia 528 O R F O R F Orfa. discovered on inquiry that the strangers were her own brother and his friend, and assisted them in carrying off the statue (Hygin. 120). Upon their return they are said to have passed through Cappadocia, and to have institut¬ ed the worship of Artemis or Diana at Comena and Casta- bela (Strab. xii. 535, 537). Another tradition made him be expiated by the Trcezenian (Paus. ii. 31, 11). On the death of Menelaus, Orestes became king of Lacedamion ; and on the failure of the royal line of Megephenthes at Argos, he annexed that city to Mycenae. He also acquir¬ ed a great part of Arcadia, and was assisted by the Pho- cians (ii. 18, 5). In the latter part of his life he retired to Arcadia, and probably died by the bite of a serpent (Schol. Lycoph.) at Megea, whence his bones were attei- wards transferred, in the reign of Anaxandrides, to Spaita (iii. 11, 8 ; Herodot. i. 67). He was married to Hermione, daughter of Menelaus and Helen, by whom he had Tisa- menos, who succeeded him (Hygin. 122) ; and by Erigone, daughter of iEgisthus and Clytemnestra, he had Penthilus (Schol. Lycoph. 1374). „ . . . ^ ORFA, or Ourfa, a pachahk or division ot Asiatic tur¬ key. It is almost entirely formed by the windings of the Euphrates and the river Kbabour, and occupies a consi¬ derable portion of the most barren part ot Mesopotamia. It touches on the north and east the pachalik of Diarbekir, and the dependencies ot Malatea; and on the south and west it is separated by the Euphrates from the deserts ot Syria. The southern part of this province is, for the most part, flat, sandy, and uncultivated, and inhabited by tribes of wandering Arabs, who pitch their tents on the banks of the rivers and in the vicinity of the springs; but towards the north the country is mountainous and better inhabited. In the early ages of the Homan empire this division of Mesopotamia bore the name of Osrhoene, and had sub¬ sisted for 840 years as an independent kingdom, v, hen it was reduced into the form of a Roman province by the Emperor Caracalla. It was finally swallowed up in the Turkish empire. The principal towns are Orfa, Racca, and Soverick. _ Orfa, a large town, and the capital of a pachalik ot the same name, in Asiatic 1 urkey. It is situated on the east¬ ern side of a hill, at the commencement of a plain ; so that whilst its western extremity stands on elevated ground, the eastern quarter of the town stands on a lower level; and, with some trifling inequalities, the whole town may be said to be nearly flat. It is surrounded by a stone wall, which encloses a circuit of from three to four miles, in the form of an irregular triangle ; and it is bounded on the west by modern burying-grounds, gardens, hills, and vales, on the south by a rising ground, on the east and south-east by a fertile plain, terminating at the foot of a bare ridge of hills, and on the south-west is a hill nearly overlooking the town, and crowned with the walls of a ruined castle. The houses are well built, and of good masonry ; they have mostly a small door of entrance from the street, with an open court, and divans in recesses below, whilst the upper story is laid out in public rooms more expensively furnished. Above is the terrace, on which are placed sofas and beds, where, in hot weather, the family sleeps. The streets are narrow, but having a paved causeway on each side, with a central channel for water, and being more or less sloping downwards, are generally clean. The bazaars are numerous and well supplied, and are appropriated to the manufac¬ ture and sale of particular commodities. Most of these are commodious; they are also covered, and are always fresh and cool, being sheltered both from the sun and rains. The bazaar in which muslins, cottons, and other piece goods are exposed, is from twenty to twenty-five feet in w idth, and from thirty to forty feet in height, covered in by a range of fine domes in succession, admitting light and air by a sort of lantern windows in the roof, ihe khans and caravanse¬ rais are numerous, and some few are excellent. The Khan Or; [j] Khoolah-Oghlee, on the outskirts of the town, is spacious,^^ and capable of accommodating in its central court 100 camels ! f with their lading, in the adjoining stables as many horses, mules, and asses, and in the chambers above there is room for 200 persons. The Khan-el-Goomrook, or the custom¬ house khan, consists of an open court 100 feet square, and paved throughout. Through this court runs a tine broad stream of transparent water, crossing it diagonally, and serving for the watering of horses, the ablutions of the pious,°and the washing and cleaning of manufactures. There are, above and below, about 100 chambers large enough to accommodate eight or ten persons each. There are fifteen mosques crowned with minarets. 1 he most mag¬ nificent of these, though not the largest, is that of Ibra¬ him el Khaleel, or the mosque of the patriarch. It is si¬ tuated on a lake filled from a clear spring which runs in the south-west quarter of the town, and abounds with fine carp, in which the superstitious people believe that, owing to the care of the patriarch, no impression can be made by any process of cooking. The grand facade of this mosque is a square pile of building, over which rise three large domes of equal size ; and a lofty minaret springs up from amidst a cluster ot tall cypress trees. At each end of this central pile, towards the stream, are flights of steps descending to the water s edge, for the ablutions of the pious. The wings are terminated by two solid masses of building, uniform in design, and “ completing,” says Buck¬ ingham, “ one of the most regular edifices of this kind to be found perhaps in Turkey.” The largest of the mosques at Orfa has a square steeple, and this form is also repeat¬ ed in one of the smaller ones. The castle is on the south side of the city; the ascent is very steep, and is about half a mile in circumference, surrounded by a deep ditch cut in the rock, which can be filled with water from the river Scirtus. On this rock are the ruins of a building called by the Arabs the palace of Nimrod, consisting of two lofty and fine Corinthian pillars, and of some subterranean apart¬ ments, apparently of great antiquity. There are four or five large baths, some reported to be good; but the one which was seen by Mr Buckingham was, though spacious, dirty and badly attended. The manufactures of the town are chiefly confined to articles of the first necessity, name¬ ly, to coarse woollen cloths, used for shirts and drawers, and, when printed, made into gowns for females, shawls for the head, and some other articles. The process used tor printing cottons is tedious. A few carpets are made, o a very good quality, also silk bands and tapes, hair-cloth tor sacks and bags, and every description of saddlery and smith s work, as well as of mason’s work and carpentry. Cook-shops and coffee-houses abound everywhere ; and, during all the summer, there is an abundant supply of solid ice brougi^ down from the summits of Mount Taurus, and sold a pre sent for a farthing a pound. It is the seat of a consider¬ able inland trade, being a thoroughfare for caravans pass¬ ing from Aleppo into the interior of Persia. Ihe popma tion may be estimated at 50,000, amongst whom are Christians and 500 Jews, the rest being all Mahomme- dans. The Christians are chiefly Armenians and bynan > each of whom have a separate church, and live in a [ Orta is of great antiquity, and is considered by all the learned Jews and Mahommedans, and by Christian scholars, as the Ur of the Chaldees. It was the Edessa ot the and Romans, and was frequently taken and reta j> the wars between the Persians and Romans. In t 8 of Heraclius, about a. d. 637, Orfa was taken by the cens, and its walls levelled with the dust. . • ality by Baldwin in 1097, who founded the first pr P / of the Franks or Latins. It was also take"f / ^ by Khan about the year 1144, and thirty years afterward O R G O R G 529 Orfl reu: Wh II Org; Saladdin. It was sacked by the Moguls in the thirteenth century; and two centuries afterwards suffered the same calamity from the armies of Tamerlane. It was visited in 1544 by Tavernier, in 1738 by Pococke, who describes ^it as being in a flourishing state, and in 1766 by Niebuhr, who gives the same account of it. It is sixty-seven miles from Bir, and 232 from Diarbekir. Long. 38. 25. E. Lat. 36. 50. N. ORFFYREUS’S Wheel is a machine so called from its inventor, who asserted it to be a perpetual motion. This machine, according to the account given of it by s’Gravesande, in his (Euvres Philosophiques, consisted ex¬ ternally of a large circular wheel, or rather drum, twelve feet in diameter, and fourteen inches deep, being very light, as it was formed of an assemblage of deals, having the intervals between them covered with waxed cloth, to conceal the interior parts of it. The two extremities of an iron axis, on which it turned, rested on two supports. On giving a slight impulse to the wheel in either direction, its motion was gradually accelerated; so that after two or three revolutions it acquired so great a velocity as to make twenty-five or twenty-six turns in a minute. This rapid motion it actually preserved during the space of two months, in a chamber of the landgrave of Hesse, the door of which was kept locked, and sealed with the landgrave’s own seal. At the end of that time, however, it was stopped, to prevent the wear of the materials. The professor, who had been an eye-witness of these circumstances, examined all the external parts of it, and was convinced that there could not be any communication between it and any neigh¬ bouring room. Orffyreus, however, was so incensed, or pretended to be so, that he broke the machine in pieces, and wrote upon the wall that it was the impertinent curiosity of Professor s’Gravesande which made him take this step. ORFORD, a borough and market town of the county of Suffolk, and hundred of Plomsgate. It is a part of the parish of Sudborne, though separated from it, and stands at the confluence of the river Ore and Aide, ninety miles from London. Orford was a place of some trade till its har¬ bour became chocked up. It has a mayor, recorder, twelve burgesses, and eight portmen, and returned two members to the House of Commons till 1832, when it was disfran¬ chised. It is remarkable for the ruins of an ancient tower, which serves as a land-mark to vessels. It gives the title of baron to Earl Walpole. The population amounted in 1801 to 751, in 1811 to 737, in 1821 to 1119, and in I 1831 to 1302. ORGAL, amongst dyers, denotes the lees of wine dried. ORGAN, in general, is an instrument or machine de- 1 signed for the production of some certain action or opera¬ tion ; in which sense the mechanical powers, machines, and even the veins, arteries, nerves, muscles, and bones of the human body, may be called organs. Organ, by far the most noble and imposing of all mu¬ sical instruments. It is quite inconsistent with the de¬ sign and limits of this work for us to enter into all the de¬ tails of the nature and structure of the organ. They would nil a volume, and require many illustrative plates. We shall, however, endeavour to give such a general idea of the nature of the instrument as may satisfy those readers who are not professionally interested in the subject; and "e assure them that their own inspection of the mechanism j o an organ (which is easily attained in every large town) wi afford them more clear and satisfactory knowledge an undreds of pages written in explanation of its con- struction. For minute details, we refer to LArt du Fac- • \nJc!r9Ves' ky F* Bedos de Celles, published at Paris rVI a an^ ^ foFo, with 137 plates. This is con- 1 ered, even now, as the best and most complete work n organ-building. It is a pity we have none such in the English language. See also the Abbe Voder’s German VOL. XVI. ® works upon organ-building, and G. Serassi’s Lettere sugli Organi, printed at Bergamo in 1816; together w'ith Re¬ ports of the French Institute upon M. Grenie’s improve- ments on the organ. We suspect that the general want of improvement in organ-building in Great Britain may be traced to the absence of such works, and some others, in our own language, for the instruction of our organ-build¬ ers. This may also explain, in some degree, why almost all the best organs in England were constructed by fo¬ reigners. Recently, however, we are happy to perceive a spirit of emulation arising amongst our native organ-build¬ ers , and we have little doubt that the ingenuity and supe¬ rior workmanship of British artisans will soon enable us to vie with, oi excel, the best organ-builders of the Continent. But, to do this, we must cast aside all national prejudices as to organs, &c. and meet foreigners upon a fair and liberal ground of competition. The earlier history of the organ is extremely obscure. A small and imperfect instrument, somewhat on the prin¬ ciple of the organ, may have been known to the ancients; but surely nothing like our great church-organ. We read of ancient hydraulic and pneumatic organs ; but such dis¬ tinction is so far erroneous, inasmuch as organ-pipes could not be made to sound by having water forced through them. I he water must have been a moving power only, to impel the wind into the pipes. It would seem that the Greek and Latin terms and organum, translated by the English word organ, originally signified an instru¬ ment or machine of any kind, and were afterwards applied to musical instruments of all kinds. “ Organa dicuntur omnia instrumenta musicorum," says St Augustin. Still later, according to St Isidore, these names, oeyavov and or¬ ganum, were applied to none but wind-instruments. In modern times the term organ, in a musical sense, came to signify only the instrument which we now know under that name. The passage in Eginhard’s Annals which has been interpreted the sending of an organ by Constantine Co- pronymus to King Pepin in the year 757, may more pro¬ bably mean “ various musical instruments," since the words are, “ Constantinus Imperator Pipini regi multa misit mu- nera, interque et organa," &c. A writer of the sixteenth century has ventured to describe the supposed organ sent to King Pepin; and, by force of imagination, makes it out to have been a grand organ with pedals. In Luitprand’s His¬ tory (book vi. c. 2) there is a curious passage regarding an instrument sent to the Emperor Constantine in 950 “ Erat Regia ornata sumtuosissime, ibi aenea inaurata ar¬ bor ante ipsius imperatoris solium effulgebat, expansis magnum in modum ramis aereis atque inauratis; in his frequentissimae variarum specierum aves arte confictae, quarum singulae speciei proprias voces cantusque emitte- bant, incredibili arte. In the second volume of Gerbert (De Cantu et Musica Sacra, plate xxviii.) will be found a representation of a tree of this kind with birds upon it. The Chronicle of Albericus adds to the singing of the birds before Constantine, “ the roaring of enormous gilded artificial lions.” (See Gerbert, vol. ii. p. 151.) That such birds can be made, is certain from Maillardet’s beautiful little artificial bird, which started up out of a gold snuff¬ box, fluttered its wungs, and sang with a pipe so clear and loud as to fill a large room. It would appear that, in the rude instruments called organs in the eleventh and twelfth centuries, the pipes were disposed in such a manner that every sound in its finger-key compass caused the fifth and the octave of that sound to be heard above it. Such a succession of fifths and octaves was called “ organum,” no doubt par excellence. From this and the old and extraor¬ dinary specimens of Biscantus, or Discantus, given by Ger¬ bert and others, and alluded to in our article Music (page 623), we are inclined to believe that the modern mixture- stops of the organ have originated. We leave the consi- 3 x Organ. 530 ORGAN. Organ, deration of the ancient organs to antiquaries, and now pro- ——v -mmm' ceed to the modern organ, which seems to have assumed something of its present form in the fifteenth century. The mechanism of the modern organ has been much im¬ proved at different times by different builders. The fa¬ mily of the Antegnati, of Brescia, were amongst the earliest famous organ-builders in Italy in the fifteenth and six¬ teenth centuries. In the eighteenth century there were m Italy many celebrated organ-builders, amongst whom be- rassi of Bergamo, and Callido of Venice, each constructed upwards of three hundred organs. . . Most of our readers probably know already that the great organ is a complex wind-instrument, consisting ot a great number of pipes of different sizes, formed of wood and of different kinds of metal, some of which are Aute- pipes or mouth-pipes, and others reed-pipes ; whilst all ot these are made to sound by means of compressed air applied to them through certain channels, by bellows worked ei¬ ther by human force or by mechanism. There are differ¬ ent kinds of organs, from the Lilliputian bird-organ up to the great church-organ. We pass over the minor ones, in¬ cluding the chamber-organs and the smaller chapel-organs, and proceed to the great church-organ. We need not de¬ scribe its front, nor the case in which its mechanism is con¬ tained. The great church-organ has usually three rows ot finger-keys, placed above each other like steps. In some of the largest organs there are four, or even five such rows of keys. Besides these, there are rows of pedals, or toot- keys, which act upon the larger pipes of the organ, ihe bellows communicate, by a wind-trunk, with win a-chests, or reservoirs of air, whence the wind is distributed to the various pipes of the organ when the finger-keys or the foot-keys (pedals) are pressed down. Attached to the up¬ per part of each wind-chest is a sound-board, as it is rather improperly called. This sound-board consists of two parts, an upper and an under board, the latter of which is much thicker than the other. Both of these are formed of planks of wood laid horizontally side by side, and accurately join¬ ed together at their edges. In the under side of the lower board several rectangular grooves or channels are cut paral¬ lel to each other, and carried along nearly the whole lengt i of the board, and as far as there are stops in the organ. In these channels are fixed bars of wood, so as to render each channel or partition completely separate from every other. In the upper side of this board are cut a number of other rectangular channels or grooves running across the board, and at right angles with the under grooves. Into these upper grooves are exactly fitted wooden sliders, or regis¬ ters, which run the whole length of the grooves. These sliders can be drawn out so far or pushed in at pleasure, by a mechanism attached to the draw-stops that are placed on the right and left in front of the organ. Holes corre¬ sponding with the number or rows of organ-pipes placed above the sound-board, are pierced through the latter into the above-mentioned channels, and also through the she - ers or registers, in such a manner that when the latter are drawn out, their holes correspond with those of the sound¬ board, and allow the air from the wind-chest to pass through them and through the other holes in the sound-board; whilst, on the contrary, when the sliders are pushed in, they completely prevent any air from passing from the wind-chest to the pipes above the sound-board. Above all and corresponding with the upper holes of the sound¬ board, are placed the pipes, fitted in by their conical feet to what are called the stock-boards. There are rows of thin boards, called racks, which are sustained by pillars of wood, and which receive the upper part of the feet of the pipes in holes made for the purpose. Opening into the wind-chest, and fixed upon the under side of the sound¬ board, are spring-valves, which are connected, by a paiti- cular mechanism, with the finger-keys and pedals; and which, when the sliders are drawn out, and the keys and Oiy pedals pressed down, are made to open, and so to admit the air from the wind-chest into the channels or partitions belonging to the different rows of pipes constituting the various stops of the organ. The pedals and the finger- keys communicate with these spring-valves by means of an apparatus of trackers, cranks, and rollers, acting upon pull, down wires that pass through the bottom of the wind-chest, and are attached to these valves. The draw-stop move¬ ment, by which the sliders are drawn out or pushed in, consists of a similar mechanism. In some organs these sliders are superseded by another contrivance. Thus, in what are called by the Italians somieri a vento, the open¬ ing of a given stop or register is not effected by drawing out a wooden slider, so as to make its apertures correspond with those in the sound-board ; but by pulling open, all at once, in the channels of the sound-board, as many small valves as there are pipes to that given stop. These small valves are made to open by pulling out a draw-stop, and to shut by pushing it in again. They are considered to have many advantages over the ordinary slider, as being more durable, and less subject to the influence of changes of the weather. A stop is called simple if it consists of one row of pipes, and compound if it consists of more than one row. As to the different rows of finger-keys, each communicates with what is really a separate organ, or collection of pipes, with its peculiarwind-trunk, wind-chest, sound-board, &c. These different organs are generally three, and are called the great organ, the choir-organ, and the swell-organ. The middle row of keys is connected with the great organ, the lower with the choir-organ, and the upper with the swell- organ. The swell-organ has its pipes enclosed in a wooden box furnished with a sliding door, or a hinged door, which is gradually opened or shut by mechanism moved by the performer’s foot applied to a pedal. All these different organs, constituting the great church-organ, are supplied with air by the same bellows, and by suitable wind-trunks connected with the bellows. The bellows now generally used are horizontal ones, instead of the old ones resem¬ bling blacksmiths’ bellows. For some improvements in the sound-board and its appurtenances, see Serassi’s Let- tere sugli Organi. We have already mentioned, that the pipes of an organ generally consist of mouth-pipes and of reed-pipes. With regard to the mouth-pipes, their nature may be pretty well understood by any one acquainted with the upper part of the common English flute, or the flageolet. I e reed-pipes are explained in a subsequent part of this arti¬ cle. What we have said regarding sonorous tubes in the article Music, pages 608, 613, 615, may assist the rea er in understanding our notices of organ-pipes. Organ-pipes are either open, or stopped, or half-stopped. The stopped ones have a plug or tompion inserted into their upper en , and pushed down or pulled up to regulate the Pltc * half-stopped ones have a kind of chimney at the top- Some of the middle-sized ones are partly stopped, an have also on each side of the mouth a kind of ear ot me ^ ’ by bending of which outwards or inwards, the pitch ot t pipe may be regulated. The largest pipes are square ones of wood, and belong to the pedals. In some gre^ ° ’ the largest open pipe is thirty-two feet m length. 111 , pipes are made of wood or of metal. It has been ob by organ-builders and others, that the quality (timbre) of pipes depends much upon them propor 1 length and width, the material of which they are made, &c.; and also upon the form of their open top, by the wind escapes. We shall have occasion to notice m again, when describing some of Greme s ^P™ d A reed-pipe, with a conical tube which has a P end, as in fig. 1, gives the most brilliant sound, it tnep p Irga ’V* ORGAN. 531 have a reversed conical top, as in fig. 2, the sound be¬ comes dull. If two similar truncated cones placed base to base be fixed to Fig-l* Fig. 2. Fig. 3. the wider end of a long conical tube, as in fig. 3, a reed-pipe so formed will give fulness and strength to the sound. Theory affords no satisfactory expla¬ nation of these facts. The timbre of the stopped and of the half-stopped pipes is softer and duller than that of the open ones. Pipes of pure tin have long been known to possess a timbre more clear and penetrating than those made of tin mixed with lead. Some years ago, a Bohe¬ mian organ-builder made some of his pipes of zinc, which was said to answer better than even tin. No doubt vari¬ ous simple and compound metals, and various other sub¬ stances that have not yet been used in the making of or¬ gan-pipes, might be employed with advantage to produce a still greater variety of timbres and effects ; and for the same purpose, various modifications of the ordinary forms of pipes might also be employed. The pipes and stops of an organ differ in number and kind according to the size of the organ, the fancy of the builder, and the taste of the public. In some Dutch, German, and Italian organs, there seems to be a superfluity of stops. An immense organ at Weingarten, in Germany, is described as having sixty-six stops and 6666 pipes. The great organ at Haarlem contains sixty stops, and its largest pipe is thirty- two feet in length. For an enumeration of the stops of three of Silbermann’s organs at Dresden, we refer to a Ramble among the Musicians of Germany, published at London in 1828 (pp. 193, 194, 195). One of the largest organs in Italy is said to be that built in 1733, by Azzolino della Ci- aja, for the church of the Cavalieri di S. Stefano at Pisa. It is said to have four rows of finger-keys, and more than 100 stops. Another remarkable one is in the church of S. Alessandro in Colonna, at Bergamo. It was built by Serassi in 1782, and has three rows of finger-keys, and about 100 stops. In it the first and second rows of keys serve for the great organ, and the second organ or choir- organ, built together in the same part of the church. The third row of keys is connected with mechanism, which passes under ground and extends to a distance of about 115feet English, with a third great organ placed in another part of the church, and directly opposite to the first. Not¬ withstanding such a distance from the keys, the third or¬ gan obeys them as readily as the first one does, Its low¬ est pedal-pipes consist not only of mouth-pipes, but also of reed-pipes. The following is a brief description of an¬ other organ built by Serassi in 1796. “ Two rows of fin¬ ger-keys, the upper for the great organ, the ripieno of which consists of the following stops : Two principal soprani; two principal basses; octave, twelfth, fifteenth, twenty- second, twenty-sixth, twenty-ninth, two thirty-thirds, two thirty-sixths, and twelve deep bass stops belonging to the chromatic scale, with the octaves of these, all, however, governed by one register. The different stops belonging to the great organ are, the sesquialtera ; two cornets ; flute in octave ; flute in twelfth ; German-flute ; vox humana ; viola; bassoon ; English horn ; trumpets ; trombones ; cym¬ bals; kettle-drums, and bass-drum, the last being man¬ aged by a pedal. The lower row of manuals or finger- keys serves for the second organ, or choir-organ. It has its ripieno, composed of principal, octave, fifteenth, nine¬ teenth, twenty-second, twenty-sixth, and twenty-ninth; and has, besides, the stops of cornet, flute in octave, vox inmana, and violoncello. By means of a pedal moved by the right foot, all the stops of the first organ can be open¬ ed or shut at once.” 01 the different stops or registers of an organ, some de¬ rive their names from the instrument the tone of which Organ, they imitate, and some from the relation in pitch which they bear to the sounds of the diapason stop, as octave, twelfth, fifteenth, seventeenth, and so on. We subjoin a brief account of the most usual organ-stops. I. Open diapason ; consists of metal mouth-pipes open at the upper end, and extends through the whole scale of the organ, as its name diapason imports. II. Stopped diapason ; mouth-pipes generally of wood, and their pitch an octave below that of the open diapason. They are stopped at the upper end. III. Double diapason ; wooden mouth-pipes, open at the upper end, and their pitch an octave lower than those of the open diapason. They are generally confined to the two low¬ est octaves of the organ’s compass. In some of the largest organs, the gravest sound of these is rendered by an open pipe thirty-two feet in length. YV.Principal; metal mouth- pipes, the pitch of which is an octave above the open dia¬ pason. The principal is the first stop tuned ; and then, from it, all the other stops. V. Dulciana ; a metal mouth- pipe stop, tuned in unison with the open diapason. The sweetness of its tone originates in the length and narrow¬ ness of its pipes. VI. Twelfth ; metal mouth-pipes tuned a twelfth above the open diapason. VII. Fifteenth ; metal mouth-pipes tuned an octave above the principal. There are, in some organs, stops named tierce or seventeenth, la- rigot or nineteenth, twenty-second, twenty-sixth, twenty-ninth, thirty-third, &c., tuned respectively at these intervals above the open diapason. VIII. Flute ; metal and wood mouth- pipes, in unison with the principal. IX. Trumpet; reed- pipes of metal, in unison with the open diapason. X. Cla¬ rion or octave trumpet-stop; metal reed-pipes tuned an octave higher than those of the trumpet stop. XI. Bas¬ soon ; reed-pipes, in unison, as far as their compass reaches, with pipes of the open diapason. XII. Cremona, or pro¬ perly krum-horn; reed-pipes, in unison with the open dia¬ pason. XIII. Oboe ; reed-pipes, in unison with the open diapason. XIV. Fb#/mmawa ; reed-pipes, in unison with the open diapason, and intended to imitate the human voice, a function which in general they perform very unpleasingly. Amongst the compound stops used in organs are, I. The sesquialtera, consisting of four or five rows of open mouth- pipes at the intervals of seventeenth, nineteenth, twenty- second, twenty-fourth, or twenty-sixth, above the open dia¬ pason. II. The cornet, a stopped diapason, principal, twelfth, fifteenth, and seventeenth. III. Mixture or furniture stop, consists of several ranks of pipes nearly the same as those of the sesquialtera, but some of them of a higher pitch. Vogler denounces the mixture-stops as “ insignificant' We have sometimes heard a harsher term applied to them. In Costanzo Antegnati’s Arte Organica we find the following exposition of the series of registers or stops of the organs then used in Italy. 7th do. 1st Stop. 2d do. m: -o- 3d do. 4th do. 5th do. XU X2I cr Principal. VIII. XV. XIX. XXII. XXVI. XXIX. In order to enable the reader to form a clearer idea of the distribution of the pipes of an organ, we subjoin a sketch of a row of the usual pipes of the great organ (as contradistinguished from the choir and swell organs), and as these pipes stand upon and are inserted in the top of the sound-board. To simplify the diagram, the rack-board and pillars are not represented here. The letter t indi¬ cates the trumpet; ff, furniture; sss, sesquialter; 15, fif¬ teenth ; 12, twelfth; p, principal; sd, stopped diapason ; od, open diapason; SB, the top of the sound-board. The other rows of pipes are, of course, to be imagined as placed behind those pipes here represented, and as extending, in their respective ranks, the whole length of each stop 532 Organ. ORGAN. or register, in lines at right angles with the line formed by the row of pipes shown in the diagram. Fig. 4. o d \1A Fig. 7. Fig. 5. Fig. 6 Not many years ago, M. Gre- nie, a French amateur of music, introduced several important im¬ provements in the construction of reeds for organ-pipes. (See the Reports of the French Institute, &c.) His reed (AB in the an¬ nexed figure 5) was made ot wood or copper, square-edged, and of the form of a parallelopipedon. [In order to show the difference between the construction of M. Grenie’s reed and the common organ-pipe reed, we add a dia¬ gram of the latter, fig. 6.] Ihe tongue was a thin plate ot brass, of an even surface, and cut in a rectangular shape, so as to fit — almost exactly the grooved face of the reed. A strong wire-spring cc’kept down this tongue firmly upon the reed, at the* proper length, so as to regulate the tongue’s vibra¬ tions. The result of such a construction is, that when this reed, enclosed in its tube, is made to sound by air forced into the porte-vent DEF, by the aperture at F, the air thus introduced not obtaining admittance into the reed between the tongue and the sides of the reed-groove, im¬ pels the tongue into the latter. A little air haying been thus admitted into the reed-channel, the elasticity of the tongue makes it resume its former position, so as again to exclude the air. The velocity which the tongue had ac¬ quired in its first vibration causes it, when returning, to pass beyond the limit of its former position, to which it is again brought back by the resistance of the air, and by its own elasticity, and'whence the impulse of the current of air from the porte-vent again forces it into the reed- channel. The advantages of this construction are, that the tongue does not strike against the edges of the reed, as in the common reed-pipes, which thereby produce a harsh and uneven tone ; and that its movements are smooth and regular, since it has nothing to encounter in its vibra¬ tions but the air itself. The sound of M. Grenie’s reed- pipes is said to be, in the most acute as well as in the gravest of them, as sweet and pure as that of flute-pipes. M. Greni6 adapted the degree of strength and rigidity of each tongue to the breadth of the reed-channel which it had to cover, so that the stream of air could never throw ( it into vibrations around its axis. The strength of the^“^ spring-wire also kept the length of the vibrating portion of the tongue unchanged; so that, whatever the force of the wind, the tone never altered its pitch. Only the in¬ tensity of the sound was affected by the greater or less impulse of air. By means of a pedal, the performer moved a spring-bellows, and, by thus regulating at pleasure the force of the wind, could obtain a crescendo and dimi¬ nuendo in all the reed-pipes, as perfect as that of the hu¬ man voice, or of instruments modified in their sounds by the lips and breath of the performer. The air which causes these reeds to vibrate passes out through open pipes, bevelled off into a cone, and terminating in a hemisphere, fig. 7. I his form is said to give roundness and strength to the tone. M. Grenie, when constructing his reed-pipes, was for a long time checked by a very curious phenomenon. He was at first occupied with the gravest octave of which the sound C is in unison with an open flute-pipe of eight feet; and had constructed a certain number of pipes, in giving wind to all his reeds by pipes of the same length, fig. 8. But when he had reached the first notes of the tenor compass, still con¬ tinuing to construct his porte-vents in the same manner, the reed would not sound at all. He in vain increased and diminished the wind, in vain length¬ ened and shortened the tongue; the reed remained mute, or produced only very bad sounds. At last, after many attempts, M. Greni6 thought that the length of the pipe which conducts the wind to the reed might have some un¬ known influence upon its vibration. He therefore substitut¬ ed for his fixed tubes two pipes, of which the one was made to slide within the other, so that he could gradually vary the whole length. He tried this change of length until the reed produced a clear, pure, and sustained sound. He found also, that in order to obtain the tenor sounds in all their fulness, it was necessary to make the porte-vent much longer than for the sound immediately preceding, and this length always went on diminishing for the most acute octaves, as is represented by fig. 9. Then the tops Fig. 8. Fi°r. 9. R R R of the pipes formed the curve C C' C*. This seem^j* indicate that, by prolonging that curve, one wou o ^ the most favourable dimensions for those pipes first octave which M. Grenie had at first made o eq^ lengths. But, to his great surprise, he found tna L rg« ■v" O R G was no advantage whatever in doing so; but that, on the contrary, the sounds became very dull and irregular. He therefore reasonably adhered to his first construction, which, nevertheless, he still purposed to improve, by afterwards making all his porte-vents sliding tubes, so that each of them might have the most favourable length given to it. He has since constructed, on this same model, open reed- pipes of sixteen feet, which sound with very remarkable distinctness, strength, and regularity. In this case the tongue is a flat slip of copper, in length 0240 of a metre, in breadth 0-035 of a metre, in thickness 0-003 of a metre ; equal respectively to 9-449040, and 1-377985, and 0-118113 English inches and decimal parts. Its vibrations are so powerful, that they cause the pipe in which it is placed, the porte-vent over which it is mounted, and all neighbour¬ ing elastic bodies, to tremble. Of course, in order to make it sound, a powerful and well-managed bellows-force is necessary. That which M. Grenie employed was perfect in regularity and power. It had a double current of air, and was worked by one handle. M. Grenie obtained a patent for his improvements. He considered the mixture- stops in common organs as productive of nothing but bad effects, and therefore excluded them from his organ. (See report by Cherubini, Catel, Baillot, &c. in 1811.) We have given so full an account of Grenie’s improvements, in order to excite the attention of British organ-builders to this subject, and induce them to discover many more improve¬ ments of which our organs are unquestionably susceptible. One of the greatest steps to improvement in English organ-building was made upwards of twenty years ago, by Messrs Flight and Robson of London, in the construction of their magnificent organ, called the Apollonicon. It was exhibited to the public, and attracted vast numbers of vi¬ sitors. The ingenuity of its mechanism, the excellence of its workmanship, the fineness of its tone, and the novelty and grandeur of its effects, were universally acknowledged. This fine instrument was played either by means of the re¬ volutions of three large cylinders, or else by means of six different sets of finger-keys acted upon simultaneously by six different performers. The Apollonicon was about twen¬ ty-four feet high and twenty broad. We heard it in 1817, md were much struck by its varied and powerful effects. However, the room in which it was placed was neither suf¬ ficiently large, nor so proportioned in form, as to display the powers of this organ to the best advantage. This fine instrument alone is sufficient to bear us out in what we fiave said at the beginning of this article, as to the cer¬ tainty of English organ-builders being able to rival, or to ;xcel, the foreign ones, if they choose to exert themselves. Several methods have been proposed in England to ren¬ der the intonation of the organ less imperfect, by dividing he octave into a greater number of intervals than the usual -welve : amongst others, that employed in Haw ke’s patent )rgan, described in the thirty-sixth and thirty-ninth volumes ff the Philosophical Magazine. Hawke divided the octave nto seventeen intervals. Loeschman’s patent organ was mother of this kind. He divided the octave into twenty- our intervals, which were produced by six pedals and •welve finger-keys. (See description in vols.xxxvii.xxxviii. ){ Philosophical Magazine.) In 1810, the Rev. Henry Lis- •on, a clever and ingenious Scottish clergyman, obtained i patent for an instrument, constructed by Messrs Flight Robson, w-hich he named the Enharmonic Organ. ee v°h xxxvii. of Philosophical Magazine.) Another ’’gan, similar to the one last mentioned, was made for Mr mston by the same builders. (See Philosophical Magazine, 0 ’ Xxx*x-) It had eleven pedals, six of which were the ame as those in Loeschman’s organ. In the second organ ).m *" har Mr Liston, there was a contrivance for an occa- jlona alteration of the pitch of the pipes, in the requisite egree, by means of flat metallic plates, which, when acted O R G 533 upon by the pedals, were brought, at due distances, over Organist the tops of the open pipes, or opposite to the mouths of II t ie stopped pipes, so as to flatten the pitch when this f>r£“n0- change was required. I^yncon. ihe object of Mr Liston’s organ wras to supersede tern- ^ ^ v " perament; but although its ingenuity and its effects were admired by many of the best musicians in London, the complexity of its manuals and pedals prevented it from ever being generally adopted. And this has been the fate of all such instruments, in modern as well as in ancient times; for attempts of a similar kind were made, cen¬ turies ago, to introduce such minute subdivisions of the octave into keyed instruments. The Spanish waiter Sa¬ linas, in his work De Musica (lib. iii. c. 27), speaks dis¬ paragingly of an instrument called an Archicymbalum, which had been constructed in Italy above forty years before the publication of his work in 1577, and in which every tone w-as divided into five parts. “ Non silentio prae- termittendum arbitror instrumentum quoddam, quod in Italia, citra quadraginta annos fabricari cceptum est, ab ejus autore, quisquis ille fuit, Archicymbalum appellatum. In quo reperiuntur omnes toni in quinque partes divisi: ex quibus tres vindicat sibi semitonium majus, et duas semi- tonium minus, a quibusdam magni nominis musicis in pre- tio habitum, et usu receptum : eo quod omnis in eo sonus habet omnia intervalla, atque omnes consonantias (ut sibi videntur) inferne, et superne, et post certam periodum ad eundem, aut equivalentem sibi sonum post 31 intervalla reditur,” &c. In the latter part of the last century, F. X. Richter, chapel-master in the cathedral of Strasburg, usu¬ ally composed upon a clavichord, which had twenty-one sounds to the octave, and which then seemed to be upwards of two hundred years old. Richter died in 1789, aged eighty. For some hints regarding the proper use of the organ, see the article Music (vol. xv. p. 644). Those who wish to extend their knowledge of this subject will find abun¬ dance of information upon the history and the construc¬ tion of the orgart, and the art of playing it, in works pub¬ lished in Germany, France, and Italy. The German works are the most numerous. (g. f. g.) ^ ORGANIST, a person who plays upon the organ. In Germany and Prussia, the requisites of a good organist are so many in point of musical education, and musical taste, and mechanical skill, that hardly any of the organists of other countries would venture to enter into competition with the German or Prussian organists. All the best works upon the art of organ-playing are in the German language. We may cite, as one of these, Rink’s work upon organ-playing. ORGANO-LYRICON, a musical instrument invented at Paris in 1810, by M. de Saint Pern. Its height is about eight feet two inches English, its breadth six feet six and a half inches, its depth about four feet four inches. It consists of apiano-forte, coupled with twelve different wind- instruments, viz. three kinds of flutes, an oboe, a clarinet, a bassoon, horns, trumpet, and fife. It has two rows of finger-keys. The lower row belongs to the piano-forte ; but, by an ingenious mechanism, and according to the de¬ pression of the keys by the performer, it may be made to sound either the piano-forte alone, or a flute, or an oboe, or to unite them all. The upper row of finger-keys has no action on the piano-forte; but, by management of the pressure, it causes the German flute or the oboe to sound, and produces rinforzi by the gradual re-union of several wind-instruments. Independently of these functions, this row of finger-keys is destined for a great church-organ placed above it. The correspondence between the two rows of finger-keys is such, that they may, at the will of the performer, act together or separately, or even partial¬ ly. The finger-keys are singularly light in their touch, even at their maximum of depression. At the bottom of 534 O R I O R I Orgia II Orichal- the instrument there are pedals for the double bass, and for other combinations. The wind-chests are numerous, and of such capacity that the wind of the large bellows , which fill them cannot produce in them any augmentation injurious to the purity of the timbre and the trueness of the intonation. In this instrument, by means of ingenious contrivances, the inconveniences of an irregular supply of wind have been carefully avoided. A double pedal for the right foot enables the performer to work the bellows him¬ self when he is alone. An adjacent pedal, turned the op¬ posite way, enables an assistant to do this. But, to avoid the trouble of these pedals, M. de Saint Pern placed in an adjoining room a large piece of clock-work, moved by a weight of fifty pounds, which served instead of a bellows- blower. The performer has beside him a mechanism that communicates with the clock-work, and, by means of a click and spring, leaves the weight going, or stops it at pleasure. See Report read to the French Institute on the 10th of September 1810 ; also Report of the French Conservatory of Music, 12th of August 1810, where it is said that “ M. de Saint Pern’s organo-lyricon might, in a large room or a chapel, hold the place of an orchestra, and imitate nearly all the effects of one.” ORGIA, feasts and sacrifices in honour of Bacchus, which were held every third year, and chiefly celebrated bv wild, distracted women, called Bacchce. The chief so¬ lemnities were performed in the night, to conceal, perhaps, their shocking impurities ; and a mountain was generally chosen as the place of celebration. They were instituted by Orpheus, and from him are sometimes called Orphica. Authors are not agreed as to the derivation of the word; but if we consider the frantic proceedings of the Baccha¬ nalians, opyyj, furor, bids fair for being the true etymology. Orgia, according to Servius, was a common name for all kinds of sacrifices amongst the Greeks, as ceremonice was amongst the Romans. , . c ORGUES, in the military art, are thick long pieces of wood pointed at one end, and shod with iron, which being kept clear one of another, hang each by a particular rope or cord, perpendicularly, over the gateway of a strong place, to be let fall in case of the approach of an enemy. Orgues is also used for a machine composed of several harquebuss or musket barrels bound together, by means of which several explosions are made at the same time. It is used to defend breaches and other places attacked. . ORGYA, b^yurx, an ancient Grecian measure containing about six English feet. ORIBASUS, a celebrated physician, greatly esteemed by the Emperor Julian, in whose reign he flourished. At the request of the emperor, he abridged the works of Ga¬ len, and of all the most respectable writers on physic ; and he accompanied Julian into the East, but his skill proved ineffectual in the attempt to cure the fatal wound which his benefactor had received. After Julians death he fell into the hands of the barbarians. ORICHALCUM, or Aurichalcum, a metallic sub¬ stance resembling gold in colour, but very inferior in va¬ lue. It was well known to the Romans, who often took advantage of its resemblance to gold ; for some sacrilegi¬ ous characters, who could not resist the temptation of taking gold from temples and other public places, chose to conceal their guilt by replacing it with orichalcum. It was thus that Julius Caesar acted when he robbed the capitol of three thousand pounds weight of gold ; in which he was followed by Vitellius, who despoiled the temples of their gifts and ornaments, and replaced them with this inferior metal. It has been a matter of dispute with philosophers and others, what the composition of this metal could be, or how it was procured; it is probable, at least, that it was analogous to our brass, if not wholly the same with it. The Romans were not only in possession of a metallic substance, called by them orichalcum, and resembling gold u ^ in colour, but they knew also the manner of making it; illi and the materials from which they made it were the very^'-w same with those from which we make brass. There are, indeed, authors of great repute who think very different¬ ly, and consider the art of making brass as an invention wholly modern. Thus M. Cronstedt does not think it just to conclude from old coins and other antiquities, that the making of brass was known in the most ancient times; and the authors of the French Encyclopedic assure us that our brass is a very recent invention. It appears, however, from Pliny (Nat. Hist. lib. xxxiv. § 2), and from the concurring testimony of other writers, that orichalcum was not a pure or original metal; but that its basis was copper, which the Romans changed into orichalcum by- means of cadmia, a species of earth which they threw upon the copper, and which it absorbed. It has indeed been contended that the cadmia of Pliny was native arsenic; an opinion which scarcely merits confutation, but which must appear extremely groundless, when we reflect that it is impossible to make either brass or copper from arsenic, and that Pliny expressly calls the substance from which brass was made a stone. The testimony of Ambrose bishop of Milan in the fourth century, and of Primasius bishop of Adrumetum, in Africa, in the sixth, and of Isidorus bishop of Seville in the seventh, all seem to confirm Pliny’s account. We may therefore safely conclude, that the Romans knew the method of making brass by mixing cadmia or calamine with copper. Yet it is probable they were not the inventors of this art, but borrowed it from some other country. It appears from a variety of testimonies that brass was made in Asia, in a manner similar to that employed at Rome; and a variety of places are mentioned where it was com¬ monly made. It is supposed by some that in India, as well as in other parts of Asia, it was made in the remotest ages. With respect to orichalcum, it is generally supposed that there were two sorts ot this metal, one factitious, and the other natural. The factitious, whether we consider its qualities or its composition, appears to have been the same with our brass. As to the natural orichalcuw, there is no impossibility in supposing that copper ore may have been so intimately blended with an ore of zinc, or of some other metallic substance, that the compound, when smelted, might yield a mixed metal of a paler hue than copper, and resembling the colour of gold or of silver. We know of no country in which oricfuilcum is found at present; nor was it anywhere found in the age of Pliny, who does not seem to have known the country where it had ever been obtained. He admits, indeed, that it had been formerly dug out of the earth ; but it is remarkable, that in the very passage where he mentions by name the countries most celebrated for the production of different kinds o copper, he only says in general, concerning orichalcum, tnat it had been found in other countries, but without specify¬ ing any particular country. Plato acknowledges t at on chalcum was a thing only talked of even m ins tune; was then nowhere to be met with, although in the isiana of Atlantis it had been formerly extracted from the min • The Greeks were in possession of a metallic subst called orichalcum before the foundation of lloI“e- f mentioned by Homer and by Hesiod, and by bothot "e. poets in such a manner as shows that it was then he great esteem. Other ancient writers have expressed^ selves in similar terms of commendation ; and it is p selves in similar terms oi comnienuauun , a r . pally from the circumstance of the high reputed rallJ , ... i i tn cunnose tnai orichalcum that authors have been induced to suppose the ancient metal of this name was a natura su ^ very different from the factitious one in use at Rom , ^ probably in Asia, and which, it has been shown, respect different from our brass. ■, their But this conclusion cannot be validly deduced fr a O R I O R I 535 mcomiums upon orichalcum; for, at whatever time the nethod of making it was first discovered, its novelty and scarcity, joined to its utility, would enhance its value; at east there can be no absurdity in supposing, that when iirst introduced it was greatly prized, even though it be ■■ranted that it possessed no other properties than such as ippertain to brass. With respect to the etymology of the word there exists rreat diversity of opinions. Those who write it aurichal- um think it is composed of the Latin word aurum, gold, •snd the Greek brass or copper. But the most ge¬ neral opinion is that it is composed of 6«of, a mountain, and brass, alluding perhaps to its being found in mountains or mountainous countries. ORIENT, L’, an arrondissement of the department of Morbihan, in France, which extends over 665 square miles. It comprehends eleven cantons, divided into fifty-two com¬ munes, and in 1836 it contained 133,307 inhabitants. The rapital is the city of the same name. It is a fortified sea¬ port, and a royal naval arsensal, standing at the mouth of he river Scorf, where it enters the bay of Port Louis. There are all those establishments for the building and ?quipping of ships of war. It is a well-built place, with long straight streets, and very fine quays. It has three churches, i naval hospital, 2000 houses, and 18,975 inhabitants. It s considerable also as a commercial port, is a depot for East India commodities, and has a great trade to the West indies and the north of Europe. Long. 3. 30. W. Lat. 47. 18. 11. N. ORIGEN, a celebrated ecclesiastical writer, and one of he greatest geniuses, as well as most learned men, of the hurch, during the third century, was born at Alexandria n the year 185. He was sumamed Adamantius, either rom his indefatigable application to study, or from the irmness he discovered amidst the torments which he suf- ered for the faith. Leonidas, his father, trained him with ;reat care, and caused him, from his infancy, to apply to the tudy of the Scriptures, in which he made surprising pro¬ cess. The son’s inclination and turn of mind suited ex- ; ;ctly with the father’s design ; for he pursued his studies rith extraordinary zeal and ardour ; and, being endowed nth a quick apprehension and a strong imagination, he did lot content himself with that sense which at first present¬ ed itself, but endeavoured to discover mysterious and al- egorical explications of the sacred books. He would ometimes even puzzle his father, by soliciting the latter or recondite meanings; which obliged the good man to eprehend him a little, and withal to advise him not to tterapt to penetrate too far in the study of the Scriptures, 'ut to content himself with their clear, obvious, and na- ural sense. Hence it appears how early he was seized | >ith that furor allegoricus, as a learned modern calls it, hat rage of expounding the Scriptures allegorically, which fterwards became a distemper, and carried him to ex- esses which can never be excused. In philosophy he iad the celebrated Ammonius as his teacher, and St Cle- oent of Alexandria for his master in divinity. At eigh- een years of age he succeeded the latter in the office t catechist; an important employment, which consisted i teaching divinity, and in expounding the Scriptures, ^eonidas his father had suffered martyrdom the year be- }re, during the persecution of Severus, in 202; and Ori- en had shown such eagerness to follow his father to mar- frdom, that his mother was obliged to hide his clothes 5 Prevent him going abroad. Origen had a great con- aurse of auditors who attended his school, some of whom ere of the faithful, and the others Pagans. He confirmed nd strengthened the former in their faith, and converted 'ost of the latter; and there were such a number of mar- /rs ainongst his disciples, that it might be said that he ePt a school of martyrdom rather than one of divinity. He taught the doctrines of Christianity to the women and Origen. girls, as well as to the men; and taking in a too literal sense what Christ says of becoming voluntary eunuchs, cas¬ trated himself, to prevent his deserving or suffering scandal. He took a voyage to Rome in 211, in the beginning of the reign of Caracaila, under the pontificate of Zepherinus. On his return he published many works, whereby he ac¬ quired an extraordinary reputation, which drew to him a great number of auditors. But Demetrius, bishop of Alex¬ andria, conceiving a jealousy of him, endeavoured upon va¬ rious pretences to injure him. At length Origen went to Antioch, whither the Empress Mammaea had sent for him to hear him discourse on the Christian religion. He did not however stay long there, but returned to Alexandria, where he continued to teach till the year 228, when he left that city and travelled into Achaia. He then went into Palestine, and was ordained by the bishops of that pro¬ vince at forty-two years of age. But the circumstance of his being ordained by foreign bishops, without the per¬ mission of Demetrius, renewed that prelate’s resentment against him ; upon which Origen hastily returned to Alex¬ andria, to endeavour to mollify him. Demetrius, however, drove him thence in the year 231, and caused him to be ex¬ communicated, and even deposed, in a council which was held in Egypt. Origen then retired to Caesarea in Palestine, where he raised a celebrated school, and had St Gregory Thaumaturgus, and a great number of other persons who were illustrious for their virtue and learning, as his disci¬ ples. He afterwards travelled to Athens, and, at the de¬ sire of Firmilianus, staid some time at Caesarea in Cappa¬ docia ; whence he was invited into Arabia, to convince and bring back to the truth Beryllus bishop of Bostra, who maintained that the Word had no existence before his in¬ carnation. Origen had the happiness to make him sensi¬ ble of his mistake ; and some years afterwards he was sent into Arabia by an assembly of bishops, to dispute against certain persons who maintained that the souls of the dead remained in a state of insensibility till the general resur¬ rection. At length the seventh persecution of the Chris¬ tians began in the reign of Decius, and none was treated with greater severity than Origen. He supported with incredible constancy the dreadful torments which the per¬ secutors of the Christians invented against them; torments which were the more insupportable, as they were made to continue for a long time, and as the persecutors took the greatest care to prevent his expiring in the midst of his tortures. But in the most excruciating agony he discov¬ ered an heroic courage, and suffered nothing to escape him which was unworthy a disciple of Jesus Christ. Ori¬ gen died at Tyre in the year 254, aged sixty-nine. He was the author of a great number of excellent works. The prin¬ cipal of those which have descended to us are, 1. A Trea¬ tise against Celsus, of which a good edition in Greek and Latin, with notes, has been published by Spencer; 2. A number of Homilies, with Commentaries on the Holy Scriptures ; 3. Philocalia, and several other treatises; 4. Fragments of his Hexapla, collected by Montfaucon, in two volumes folio. Of all Origen’s works, the loss of the Hexapla is most to be regretted. This work was thus named from its containing six columns, in the first of which was the Hebrew text of the Bible; in the second, the same text in Greek characters ; in the third, the Greek version of the Septuagint; in the fourth, that of Aquila ; in the fifth, that of Symmachus; and in the sixth, Theo- dosian’s Greek version. This admirable work first sug¬ gested the idea of our Polyglot Bibles. Of the book of Principles we have only an incorrect Latin version. The most complete edition of the works of Origen is that of Father Delarue, a Benedictine, in Greek and Latin. Mont¬ faucon likewise published, in two volumes folio, some re¬ mains and fragments of his Hexapla. He ought not to be 536 O R I O R I Orinoco. Origeniansconfounded with another Origen, a Platonic philosopher, and the disciple and friend of Porphyry, who studied phi¬ losophy under Ammonius. This Origen was perhaps the ' founder of the sect of Origenians. ORIGENIANS ( Origeniani)were ancientheretics. Epi- phanus speaks of them as existing in his time; but their numbers, he says, were inconsiderable. He seems to fix their rise about the time of the great Origen; but he does not say that they derived their name from that distinguish¬ ed father of the church. On the contrary, he distinguishes them from the Origenists, whom he derives from Origen Adamantius ; adding, that they first took their name from one Origen, by which he intimates that it was not the great Origen. St Augustin also asserts that their founder was a different person. Their doctrines were infamous. They rejected marriage; they used several apocryphal books, as the acts of St Andrew ; and they endeavoured to excuse their open crimes, by saying that the Catholics committed the same in private. ORIGENISTS, in Ecclesiastical History, a Christian sect in the fourth century, so called from their deriving their opi¬ nions from the writings of Origen. The Origenists main¬ tained that the souls of men existed in a prior state; that they were holy intelligences, and had sinned in heaven before the body was created ; that Christ is only the Son of God by adoption ; that he has been successively united with all the angelical natures, and has been a cherub, a seraph, and all the celestial virtues one after another ; that in future ages he will be crucified for the salvation of the devils, as he has already been for that of men ; and that their punishment, and that of the damned, will continue only for a limited time. ORIGINAL, a draught or design of any thing, which serves as a model to be imitated or copied. Original Sin. See Theology. ORILLON, in Fortification, a small rounding of earth, faced with a wall, and raised upon the shoulders of those bastions which have casemates, to cover the cannon in the retired flank, and prevent their being dismounted by the enemy. ORINOCO, or Oronoko, ariver of Colombia, in South America. Like all great rivers, its upper waters separate into several branches, and it does not appear that the main source has been ascertained with any degree of certainty. According to La Cruz d Olmedilla, it issues from a small lake called Ypava, situated in north latitude 5° 5', whence, by a bend of a spiral form, it enters the lake Parima ; but although the existence of this sheet of water has been de¬ termined, doubts are entertained whether it may not owe its origin only to the temporary overflowings of the river. From this lake it is said to issue by two mouths; and after avery circuitous course of upwards of fifteen hundred miles, including its windings, it flows into the Atlantic Ocean, opposite to the island of I rinidad, by about fifty mouths, seven of which are navigable. The Grande Boca, or prin¬ cipal mouth, which is six leagues wide, is south-east of Tri¬ nidad, in latitude 8° 30' north, and longitude 59° 50' west. A soft mud bank, formed by the debris brought down by the river, and of course just an extension of the delta of the Orinoco, which will one day be clothed with vegeta¬ tion, stretches a considerable way into the ocean on the left of the grand mouth, forming one line of the chan¬ nel to the entrance of the river. The other side of this channel consists of hard ground, covered with shells and shingles, and on which the water deepens and shoals con¬ tinually. At its estuary it presents the appearance of a boundless lake, and for a great extent its fresh waters pene¬ trate into the bosom of the ocean, almost uncontaminated by saline matter. “ Its green-coloured stream,” says Hum¬ boldt, “ and its waves dashing over rocks in milk-white foam, are strongly contrasted with the deep blue of the sea, which is separated from them by a strongly marked f line.” Such is the force of the stream formed by the Ori-V noco between the main land and the island of Trinidad, that vessels overcome it with great difficulty, even when favoured by a fresh breeze from the west. This solitary and dreadful place, perpetually tormented as if by a whirl, pool, is called the Melancholy Gulf, the entrance to which is formed by the Dragon’s Mouth. There, in the midst of furious waves, says the great traveller just quoted, enor¬ mous rocks raise their isolated heads, the remains of that ancient dike which formerly joined the island of Trinidad to the coast of Faria. It was the aspect of these places which first convinced Columbus of the existence of the continent of America. The unrivalled navigator reasoned admirably when he concluded that such an immense body of water must have accumulated during a very lengthened course, and that the country through which it flowed must be a continent, and not an island. He, however, supposed it to be a continuation of the coast of Asia; and, from the ethereal clearness of the sky, the refreshing mildness of the evening air, and the aromatic odours which came waft¬ ed by breezes from the land, the Orinoco appeared to him to be one of the four streams which issued from the ter¬ restrial paradise to fructify and divide the earth, and he be¬ lieved that he was about to set foot in the garden of Eden. Within the bar of the Orinoco the water gradually deep¬ ens, the force of the current continuing very considerable, and sometimes during the rainy season running at the rate of six miles an hour, so that navigation upwards is exceed¬ ingly difficult, except by steam-boats. At some distance within the Grande Boca of the river there is an island very thickly wooded, and forming the segment of a large circle. Indeed the magnificence of the scenery on the banks of the Orinoco is the astonishment of every traveller. Fo¬ rests of boundless extent expand on either side, and, being filled with aromatic herbs and flowers that diffuse the most delightful odours, and all alive with birds of beautiful and glancing plumage, from the lovely mocking-bird to the grand vulture and fiery-red flamingo, together with hordes of monkeys, which disport from bough to bough, exhibit a richness, grandeur, and variety of scene which defies de¬ scription. Passing these forests, enormous plains stretch out like oceans of verdure, far beyond the horizon embraced by the eye ; and the sublimity of the scenery on the Orinoco is enhanced by several cataracts, of which Humboldt has distinguished and described those of Maypures and Atures. Their elevation is inconsiderable, and both owe their ex¬ istence to an archipelago of little islands and rocks. The appearance of these rapids, however, is exceedingly pictu¬ resque and beautiful. “ When the traveller descends from the village of Maypures to the brink of the river, after clearing the rock of Manimi, he enjoys a truly astonishing prospect. At once a sheet of foam stretches out before him, to fully a mile in extent. Masses of rock, of an iron- black colour, rear their rugged fronts, like towers, out of this misty cloud. Every island, every rock, is ornamented with luxuriant trees, closely grouped together. A thick smoke constantly hangs suspended over the water; and through this foggy vapour, which rises from the foam, shoot up the tops of lofty palm-trees. As soon as the burning rays of the setting sun mingle with this humj cloud, the optical phenomena which are produced actual y give an air of enchantment to the scene. The coloured arches successively appear and disappear, and their image incessantly hovers before the eye at the mercy o t wind. During the long season of the rains, the murmur- inc waters have accumulated little islands of vegeta e earth round the naked rocks. Adorned with the dr(^e'?’ the mimosa with its foliage of silver white, and a mu ti u of other plants, these form beds of flowers in the mi s frowning rocks.” O R I r;no The Orinoco is navigable, without difficulty, for two hundred and sixty leagues, to the rapids of Atures, where its mean height above the sea is, according to the travel¬ ler just quoted, not more than three hundred and fifty feet, and thence, after two short portages, for one hun¬ dred leagues more, to the point near Esmeraldo, where the celebrated bifurcation of this river takes place, and a por¬ tion of its waters descends along the natural Canal of Ca- siquiari, to join the Rio Negro and the Amazon. The communications which exist between the Orinoco and the Amazon constitute one of the most astonishing phenomena of physical geography. More than half a century has elapsed since the fact was made known by the Portuguese ; but for a long period after this it was pertinaciously main¬ tained by systematical geographers, that such conjunctions of rivers were impossible. By the enterprise and perse¬ verance of recent travellers, however, it has been proved that this is no anomaly; and we no longer stand in need of either analogies or critical reasoning to support the fact. M. de Humboldt has navigated both these rivers, and ex¬ amined and described this singular arrangement of the land. It is now put beyond a doubt, that the Orinoco and the Rio Negro flow along a plateau, which at this part has no actual acclivity. A valley then intervenes, their wa¬ ters flow into it, and there unite, thus forming the cele¬ brated Casiquiari, by means of which MM. Humboldt and Bonpland passed from the Rio Negro into the Orinoco. It is believed that there are also other communications be¬ tween the Rio Negro and the different tributaries of the Amazon. On both sides along its course the Orinoco re¬ ceives many tributary streams, of which three in particu¬ lar, the Apure, the Meta, and the Guaviare, flowing from the westward, have also long navigable courses. The Apure falls into the Orinoco about four hundred and forty miles from the mouth of the latter river, in latitude 7. 36. 23. north, and longitude 69. 7. 29. west. The course of the Apure is as serpentine as that of the Orinoco, only on a much smaller scale, the tributary being in no part of its course much more than a musket-shot across. At rather more than one hundred miles from the confluence of the 1 two rivers is San Fernando de Apure, a considerable town in the province of Apure, and a place of some commerce. From thence the navigation is continued, partly on the Apure and partly on the river Santo Domingo, to Toruno and Varinas, at a distance of above two hundred miles i farther. The line of navigation of this branch of the com¬ merce of the Orinoco extends, therefore, nearly eight hundred miles from the mouths of the river to the extre¬ mity of the province of Varinas. About sixty miles below the cataracts, the Orinoco receives the Meta, a river which, issuing from the paramos of Cundinamarca, keeps its course parallel to them for a hundred and fifty miles, receiving in its progress their tributary streams ; and then bending to the east, crosses the llanos of Casanare, and completes a course of more than four hundred miles before its conflu¬ ence with the great river. At some future period the navigation of the Meta will become an object of very great importance to Guiana, and all the other eastern departments of the republic. The Guaviare is also a very considerable navigable river, form¬ ed by a number of streams which flow down the eastern declivities of the Andes. It joins the Orinoco at San ; Fernando de Atabapo, in latitude 4° 3' north, and longi¬ tude 68° 10' west, which is the point where the Orinoco takes a great bend to the north. When steam navigation shall have become common in this quarter of the world, the river Guaviare will prove of immense advantage to »ome of the interior provinces of Colombia, as a medium through which their produce may be conveyed to the sea-ports of the republic. There are a great number of other streams, tributary to the Orinoco, no less than three vojl. XVI. O It I 537 hundred being enumerated. Many of the upper streams Orion, of this river display the singular phenomenon which has 'v——' been called “ black waters.” Under the shadow of the palm-trees their colour becomes of a deep black, but, in transparent vessels, it assumes a yellow hue. The ab¬ sence of crocodiles and fish (which are very plentiful far¬ ther down), a greater degree of coolness, a smaller num¬ ber of musquitoes, and a more salubrious atmosphere, dis¬ tinguish the region of the black waters. Humboldt sur¬ mises that they derive their colour from a solution of car¬ buret of hydrogen, resulting from the decomposition of the multitudes of plants that cover the soil through which they flow. With regard to the breadth, depth, and quan¬ tity of water discharged by the Orinoco, as well as the size of the delta which it has formed, our information is by no means precise. At six hundred miles from the ocean it is said to be from five to six hundred yards across, and at Angosturaor StThomas’s, situated two hundred andforty miles from its mouth, to be nearly eight hundred yards across. Its depth appears to be very great; even when the waters are at the lowest, it is no less than sixty-five fa¬ thoms in some parts ; and during the rainy season it inun¬ dates the immense plains through which it flows, extending during the highest floods from eighty to ninety miles on either side, and thus presenting to the eye the appearance of a vast inland sea, rather than a river. These facts, together with that of the vast extent to which the current of the river may be traced in the ocean, are sufficient to prove that the quantity of water brought down by the Orinoco is inferior to that of few rivers on the face of the globe. The annual swell of the Orinoco commences in April and ends in August. At the distance of thirteen hundred miles from the ocean the rise is about thirteen fathoms. In the be¬ ginning of October the water begins to fall, and, quitting the deluged plains, continues to diminish till March, when it is at the lowest ebb. This river abounds in fish of va¬ rious descriptions. Amphibious animals are also found in great numbers on its shores ; the cayman or alligator fre¬ quents its waters, and is very formidable. From one of the best maps of Colombia which have been published, it appears that its delta extends above one hundred and fifty miles in length at the base, and that from the middle of this line to the apex of the triangle it is above one hun¬ dred miles in depth. (r. r. r.) ORION, in fabulous history, was the son of Jupiter, Neptune, and Mercury. As these gods were visiting the earth, they entered the house of Hyrieus, a native of Ta- nagra, in Bceotia, under the character of benighted tra¬ vellers, on account of his being famed for hospitality to strangers. Hyrieus treated them in the best manner pos¬ sible ; and even killed an ox, the only one he had, for their entertainment. With this the gods were so pleased, that they offered the old man whatever he should ask; and he having let them know that he desired nothing so much as a son, they, anxious to gratify his wish, caused the ox’s hide to be brought before them, and having deposited in it their urine, bade him keep it under ground for nine months. He then dug for the skin, and found in it a beautiful child, whom he called Urion. The name was af¬ terwards changed into Orion, by the corruption of one let¬ ter, as Ovid observes: Perdidit antiquum littera prima sonum. Orion soon became conspicuous, and Diana admit¬ ted him amongst her attendants, and even became deeply enamoured of him. His gigantic stature, however, dis¬ pleased Oenopion king of Chios, whose daughter Hero or Merope he requested in marriage. The king, not willing to deny him openly, promised to make him his son-in-law as soon as he should have delivered that island from wild beasts. This task, which Oenopion supposed to be im¬ practicable, was soon performed by Orion, who eagerly de¬ manded his reward. Oenopion, on pretence of complying, 3 y 538 0 R I Orissa, made his illustrious guest drunk, and in this state put out his eyes on the sea-shore, where he had laid himself down to sleep, so that Orion, when he awoke from his debauch, found himself blind. Directed by the sound, he then went to a neighbouring forge, where he placed one of the work¬ men on his back, and by his directions proceeded to a place where the rising sun was seen with the greatest advantage. Here he turned his face towards the luminary; and, ac¬ cording to report, he immediately recovered his eye-sight, and hastened to punish the perfidious cruelty of Oenopion. Orion was believed to have been an excellent workman in iron, and to have fabricated a subterranean palace for Vulcan. Some say that Orion was the son of Neptune and Eury- ale, and that he had received from his father the privilege and power of walking over the sea without wetting his feet; but others assert that he was a son of lerra, like the rest of the giants. He had married a nymph called Sida be¬ fore his connection with the family of Oenopion ; but Sida was the cause of her own death, by boasting herself fairer than Juno. Diodorus says that Orion was a celebrated hunter, superior to the rest of mankind by his strength and uncommon stature. He built the port of Zancle, and fortified the coast of Sicily against the frequent inunda¬ tions of the sea, by heaping up a mound of earth called Pe- lorum, on which he built a temple to the gods of the sea. After his death Orion was placed in heaven, where one of the constellations still bears his name. The constellation of Orion was placed near the feet of the bull. It was com¬ posed of seventeen stars, in the form of a man holding a sword; for which reason the poets often speak of Orion’s sword. As the constellation of Orion, which rises about the 9th day of March, and sets about the 21st of June, is generally supposed to be accompanied at its rising with great rains and storms, it has acquired the epithet of aquo- sus, which is applied to it by Virgil. ORISSA, an extensive province of Hindustan, in the Deccan, between the sixteenth and twenty-third degrees of north latitude. It has Bengal for its boundary to the north, to the south the river Godavery, to the east the Bay of Bengal, and to the west the province of Gund- wana. It may be estimated from north-east to south¬ west at 530 miles in length by ninety in average breadth. Orissa was formerly an independent Hindu kingdom. It was first conquered by the Afghans, and afterwards by the Moguls towards the end of the sixteenth century. It was in ancient times divided into five districts, namely, 1. Jella- sir, comprising Midnapoor and the British possessions ly¬ ing north and east of the river Subunreeka ; 2. Buddruck (now Cuttack) ; 3. Cuttack; 4. Kulling or Cicacole; and, 5. Rajamundry. The principal modern subdivisions of this extensive province, independently ol other petty states and large zemindaries, are, 1. Singhboom ; 2. Kunjeur ; 3. Mo- hurbunge ; 4. Balasore j 5. Cuttack ; (3. Khoordah. This "province, in the interior, is of a rude and barbarous aspect, consisting for the most part of rugged hills, unin¬ habited jungles, and deep water-courses. It is surround¬ ed by pathless deserts, forests, or valleys; and the atmo¬ sphere is pestilential. There are only two passes in the great mountainous ridge that extends from the Godavery to the Mahanuddy ; the one direct, from Chandah to Cica¬ cole ; the other oblique, from Choteesghur by the way of Kaluhindi, and both uniting at the pass of Saloor or Saure- acca. But though Orissa is, generally speaking, a barren country, the south-eastern or maritime parts are equal in fertility to most parts of India. At present the British rule over nearly one half of this extensive region, and the remaining part is possessed by tributary zemindars, called ghurjauts or hill-chiefs, who pay a fixed rent to the British, under whose jurisdiction they live. The woody and interior division of the country belongs to them ; whilst the other division, belonging to O R K the British, comprehends all the low lands extending along Orist the coast, a tract generally plain and fertile, but not well || cultivated or peopled. But the country occupied by the 0rk> natives, though a barren tract of rock, forest, and jungle,^1 and thinly inhabited, produces a surplus of grain beyond^ ^ the consumption of its inhabitants. The British portion of the country produces, as its chief staples, rice and salt, the former of which is an article of export. Every sort of grain and vetch is cultivated, and the country is improv¬ ing under its present administration; whilst the portion that is still under its native chiefs presents a scene of op¬ pression and decay. The low lands along the Bay of Ben¬ gal abound with wild animals, such as hogs, deer, tigers, and jackalls ; and the high lands are infested by such num¬ bers of wild animals, that in many places they are regain¬ ing possession of the country from which they were driven by the progress of cultivation. Fish swarm in the rivers, which are also infested with reptiles and alligators; and in the plains and jungles are innumerable noxious insects. The chief rivers are the Godavery, Mahanuddy, Byturnee, and Subunreeka, besides innumerable mountain streams of a short course. The country between the rivers Gaintee and Bamoni is peculiarly fertile, and is inhabited by an industrious class of persons, weavers, chiefly of coarse muslins for turbans, and sanaes, which are a staple manufacture. I he districts to the west of Bengal are mountainous, and inhabited by a savage race of Hindus, who are still called Oureas. They go nearly naked, and are armed with bows and arrows, and are nominally subject to the Mahrattas, though they pay but little revenue. They are naturally a fierce people, possessing personal courage in a great degree. They are great enemies of the Mahrattas, who plunder and op¬ press them ; but those under the British dominion are a mild and tractable people, and the palanquin-bearers in Calcutta are mostly from that country. These bearers have high and proud notions: they pretend to be of a higher caste than the bearers from Bahar, and are very fastidious about performing their duties. In the ancient history of the Hindus, Utcala or Odra- desa, implying the great or famous country of Gala, was nearly co-extensive with the modern Orissa ; but the mar¬ tial race by whom it was inhabited were at last extirpated by the karnas or kings of Magadha. A race of Hindu princes governed the country in 1592, and were conquered by the viceroy of Akbar, to whose dominion the country was annexed as a dependent government. It then ro63* sured 600 miles along the sea coast by forty in medium breadth, extending from Tumlook on the banks of the Great Ganges, to Rajamundry on the Lesser Ganges; and was inhabited by the Oureas, a race of Hindus, of pecu¬ liar and distinct language, manners, and religion. From disjointed fragments of its history, and from existing re¬ lics, it appears to have been a flourishing empire, even be¬ fore the Mahommedan invasion ; but it soon afterwards fell into decay. When the Afghans were expelled from Bengal by the Moguls in the sixteenth century, they took refuge in Orissa, and retained possession of part of it, in¬ cluding the celebrated temple of Juggernaut, till near the year 1615. . A ; , ORISTANO, a city of the island of Sardinia, situated on the western side of the gulf or bay of that name, t is the seat of an archbishop, and has a cathedral, a nunnery, several monasteries, and a harbour about a mi e ronl ’ into which the river Oristano enters. The air is very i pure. Oristano contains 4990 inhabitants. ORIZAVA, a town of Mexico, in the state ot Cruz. See the article Mexico. r.lQnfi.in ORKNEY Islands, or Orcades, a group of island. the North Sea, belonging to and forming with the Islands one of the counties of Scotland. They ar I ORKNEY. rated from Caithness by the Pentland Firth, a strait of ''about twelve miles in breadth, and are situated between the parallels 58. 44. and 59. 24. north latitude, and be¬ tween 2. 24. and 3. 20. west longitude from the meridian of Greenwich. In number they amount to sixty-seven, of which twenty-seven are inhabited; and the others, known by the name of holms, are employed as grazing grounds for sheep and cattle, and for the manufacture of kelp. The islands are divided into two groups, called, in reference to Pomona, the principal island, the North and South Isles. The following are the names of the inhabited islands in the southern division, with their population ac¬ cording to the census taken in 1831 : South Ronaldshay 2265 Walls and Hoy 1388 Flotay and Faray 369 Burray 357 Graemsay 225 Swanay and the Skerries 89 Copinshay 7 4700 The following are the names and population of the North Isles: Sunday 1839 Westray 1702 Stronsay, Papa Stronsay, and Lingholm 1071 Rousay 921 Shapinshay 809 Eday and Pharay 756 North Ronaldshay 522 Papa Westray 330 Egilshay 228 Weir 93 Gairsay 69 Enhallow 20 8360 Pomona, or the Mainland, has a population of 15,787, and thus the whole number of inhabitants f«mounts to 28,847. Orkney has been computed to contain 150,000 square acres, and, of these, 100,000 are said to be waste, or cover¬ ed by water. But the very irregular form of the islands, penetrated by arms of the sea in all directions, renders these estimates, in absence of any accurate survey, nothing more than approximations. The general appearance of the islands is bleak, and upon the whole uninteresting. The total want of wood, and the immense tracts of waste, un¬ cultivated land, present a very forbidding aspect. The climate is exceedingly moist, and, though the cold is not very intense, the variable weather renders the winter disagreeable in the extreme. For several months there is a succession of rain, sleet, and storms. Spring is late, damp, and cold; but an Orkney summer, though short, has many and peculiar charms. The length of the day, the duration ot twilight, the rapid vegetation, and, above all, the still¬ ness of the sleeping ocean on a calm evening, compensate m no small degree for the dreariness of the other seasons. Orkney is divided into twenty parishes, composing three presbyteries and one synod. Together with Zetland, these is anas constitute one sheriffdom or stewartry, under the jurisdiction of a sheriff-depute and two substitutes, whose courts are held at Kirkwall in Orkney, and Lerwick in lM u! * . !l Passing of the reform bill, Orkney alone i3 'he privUcge 0f sending a member to parliament; the v | h“lders °f Zetland, owing to the want of a separate ua ion of their estates, having no vote in the election. v|p iand-tax payable for the county, two thirds are le- nfu r°I11 Orkney, and one third from the other division 01 the stewartry. We shall now proceed to notice the principal islands, 539 pointing out the most remarkable objects in them. The Orkney, most southerly is South Ronaldshay, containing twenty- four square miles, and a population of 2265 persons, chiefly employed in agriculture, and the lobster, cod, and herring fisheries. Ihere are two commodious and secure harbours in this island, Widewall Bay on the west, and St Marga¬ ret s Hope on the north. The antiquities of the island are several Piets houses, three or four monumental stones of large size, and the How of Hoxa, an ancient stronghold. To the north-west of South Ronaldshay lies Hoy, an island of twice the extent, but containing only 1388 inhabitants, the greater part of it being high land covered with heath! This is in many respects the most interesting of all the islands. The Wart Hill, the highest mountain in Orkney, its towering precipices washed by the fury of the West¬ ern Ocean, the huge isolated rock called “ the Old Man of Hoy,” the meadows of the Kaim, the beautiful vale o. Berrydale, through which flows a stream whose banks are fringed with birches, creeping juniper, and willows, and the dwarfie stone, present to the spectator objects which will amply repay a lengthened visit. Forming part of the island of Hoy, but constituting a different parish, is Waas, or Walls, distinguished chiefly for its excellent harbour, Long Hope, which is now protected by a small battery and a couple of martello towers. Burray, situated to the north of South Ronaldshay, and separated from it by a channel of a mile in breadth, has an area of only three square miles, but produces grain, green crops, and good pasture, and has, moreover, a valuable rabbit warren. Far¬ ther north is the largest island of the group, Pomona, or Mainland, extending to thirty miles in length, and con¬ taining upwards of two hundred square miles. The towns of Kirkwall and Stromness are in this island (see articles Kirkwall and Stromness). Pomona is divided into thirteen parishes, which are supplied by eleven clergymen. Of these divisions, if we except St Ola, or Kirkwall, Sten- nis has the greatest claims on the attention of the travel¬ ler or the antiquary. Here are the Stones of Stennis, two collections of what at one time must have been upright pillars, forming a circle and a semicircle. Many of these stones are now overthrown ; but the circle, when com¬ plete, seems to have been formed of thirty-five blocks ; its diameter is three hundred feet, and the stones of which it is composed vary from ten to sixteen feet in height, and from two and a half to five feet in breadth. There have been many conjectures as to the purpose of these erec¬ tions, and it is by no means certain even by whom they were raised. One opinion is that they are of Druidical, and another that they are of Scandinavian origin. A very probable conjecture is, that the circle was dedicated to the sun, and the semicircle to the moon, the frequent ob¬ jects of Scandinavian worship. Of these stones the most interesting was one which stood near to, but did not form part of, the circle; it was perforated by a small hole, through which the heads of children were passed in order to secure them against palsy in after-life, and through which also lovers’ hands were joined, in token that the vows then made should be faithfully kept. The contracts or agree¬ ments here made were peculiarly binding, and the promise of Odin was regarded by an Orkneyman as of too solemn a nature to be trifled with. The malice or stupidity of a stranger, wTio rented a neighbouring farm, induced him, in 1814, to overthrow and break to pieces this curious relic of ancient times. In front of the circle there is a large horizontal stone, conjectured to have been used for sacri¬ ficial purposes ; and it has been thought that it was on this altar that Einar, jarl of Orkney, son of Ronald, about the year 893, or, according to other accounts, 930, stretched Halfdan, the son of Harold the fair-haired, king of Nor¬ way, and, tearing out his lungs, presented the reeking gift to his god. In the adjoining parish of Sandwich, the gran- j 540 Orkney. ORKNEY. deur of the rocks must attract the attention of the visitor ; and one huge archway, formed by the restless fury of the waves, called the Hollow How, or the Hole of Row, is particularly deserving of attention. Robert Steuart, earl of Orkney, had a palace in Birsay, the next parish on the north-west, the ruins of which still remain. Brand, who The geology of these islands offers little to attract our Orb attention. The Orkneys are said to consist of an assem-'s-v blage of secondary strata, disposed round a high central nucleus of primitive rocks ; but Professor Traill remarks, that “ the mineral history of Orkney is singularly monoto¬ nous and uninteresting; the whole islands, with slight ex- ~f'. , , ' . • innn cn-irc “ tlin nalire is two sto- ception. consisting of horizontal or slightly inclined strata r^X'Se^^p^.yJeco.ed.thecen- rcL^lfoldtgTth ScriptuietsLes! aTuoah's flood, in a few places, containing beds of limestone, with some Christ's riding to Jerusalem &c. and the Scripture rs set tra“s ^™anr'"ep,j®”a;sn known t0 conslst of 545 species, down beside the figure. It was .nh*.ted wrthtn Aese ^ a careful exaraiMtioP„ Smed Mm thAe^ace wms Fauna 0™- Stdr:rm~JTh^fectio„ of hisyh„uSe. It fld«^ur ^S^pS^r dence of the treasonable designs of ^jJ^ertus ^The’hSor^of the islands will not detain us long. They of Patrick, Earl Roberts son . Do ^ have been originally peopled by a Scandinavian Stuartus, filius Jacobi quinti, rex Scotorum, p . , j.t^e certain is known till the year 870, when struxi.” The two islands of Shapinshay an .. h tl Norwegian chiefs, who had fled from home because of containing from ten to twelve sfl^are.mile ’1'e!0pptiief"°ind the fic orie of Harold the Fair-haired, arrived thSre. Ha- of the Mainland. In the former lead ore 1^ been found, years afterwards, defeated them, but not in quantities sufficient to remune a » a inted Ronald count of Moere jarl or earl ofOrk- and the latter presents to the antiquary for his mvestiga- ^ aPP^int^ 1 succeeded after an interval and some tion, tumuli, Piets' houses, standing stones, a"da "umber ""f; Ha ^ ^eZ whilst another son of his, Hoi- of ancient graves. To the east of Rousay ts the beautiful fr0'm Charles the Simple, king of island of Egdshay, the favourite summer re? France and becoming duke of that [uovince.was the grea:- great-great-grandfather of William^the^Conqueroi'. The islands, was basely murdered by his cousin Hacon, in 1110. Beyond these, to the north-east, lie Stronsay, where there is an extensive fishing station ; and Eday, an island that can boast of a burgh of barony. Still farther north he Sanday on the east, and Westray on the west. Hie for¬ mer, because of its superior productiveness, has been call¬ ed the granary of Orkney ; and it produces, or rather did descendants of Ronald ruled as jarls for upwards of four hundred years, when the male line terminated m the per¬ son of Magnus, the fifth earl of that name. He died about 1320 or 1330, leaving one daughter, Matilda, who became the wife of Malise, earl of Stratherne, and had issue Isa- bell, who married Sir William St Clair, baron of Rosslyn; etl the granary of Orkney; and it produces, or rattier u,u and ^S^^JorS.^HuTtle was Emitted by produce, fully one fifth of the kelp manufactured in all the the ScoWtsA “rls oMJ y enter- islands. It is a flat, low-1,ing island; and, till the ereetton Hacon ^'nfhif " een the coyurts „f Gotland of a lighthouse in the year 1806, proved fatal to many a ves- f St’ded t0 lhe former Man and the sel. Westray is, will, the except,on o Sanday, the largest ^ Norwy, ‘he la“c “ f in ar, !om of the north isles. In it are the remams of a strong castle, Western I lands, tor Pay " , tribu/e> not ha,. of which Ben, who wrote in 1529, thus speaks = Es ex- called the Annual r“ln^r°er"a>;on amounled t0 a |arge cellentissima arx stve castellum, sed nondum tamen adl uc g _ > h ne„otja,i0n on the subject, it was completa.” A great many graves, generally f°™«l °f ‘"ra ’ ad tot *e arrea^f the anm.al should bo held as flat stones, four standing on their edges, and resting o » , , James HI should marry Margaret of the fifth, have been lately uncovered, m consequence of ^ ahVuld be 60,000 florins, and that sand blowing. In them have been found the remams of Norway, tojte^dowryfi^ Sc’otla„d for five sixths human bones, and of various weapons, offensive a , ^ tl js]ands to be redeemed on the payment fensive. In all probability they are the graves of native %^ttv was entered into in H68. The and strangers, who had fallen in some of the many battles of the mo )• y o-ften rise to of which tradition preserves the remembrance. Separat- marriage-portion was nev p , . Norway to these fd from Westray & a frith of a mile in breadth, is the small island of Papa Westray, with its beautiful fresh-wa- islands has b<- > been for centuries ter loch, in the middle of which is a small island, whereon into w nc i ' ‘ -pb earldom remained in the family stood the chapel of St Tredwall. The most northerly of practically re o ved The earldom ema in, or the islands is North Ronaldshay, containmg » -a „1 ufoted to. the crown of Scotland, never again,» from four to six square miles, with a population ot It was on a reef near this island that the Suetia of Got- tenburf, an Indiaman, valued at half a million sterling, was wrecked in 1740; and here, too, four years after¬ wards, another Indiaman, the Crown Prince of Denmark, with thirty chests of treasure on board, was cast away. Ht theV 1790, a lighthouse, seventy feet in height, bo^dTer'self to create was erected on the north-east point ot the island ; but this Bo , k ' d tShim in possession of tlm light being often mistaken for that in Sanday, misled ma- him Duke of Orkney P ^^ infeft> or, at all riners, and it is now discontinued, the latter being regard- ndands. ^ Hejpea^ ^ he fle(1; a„d the duke- ed as sufficient. ot eclair tin Itti ij wiien it ^ o 0!nfn rather was united to, the crown of Scotland,never ^ - be alienated, except in favour of a lawful son of the ki g- For almost a century the crown-lands were leased nous tenants, till at length, in May 1564 Qn® “ary granted a charter to Lord Robert Stuart, her c by Dame Euphemia Elphinstone, constituting of Orkney. Afterwards, by her marriage-con 0 R K 0 R L 541 dom was at an end. Earl Robert had no concern with y Orkney from 1567 to 1581, but in the latter year he had another grant of the earldom made to him. This was re¬ voked by King James upon his attaining his majority in 1587. Again, a farther grant was executed in favour of him and his heirs in 1591, which in 1592 was confirmed by parliament. Earl Robert died in that year, and the earldom was once more resumed by the crown ; and once more, in March 1600, Patrick, the son of Robert by the Lady Jean Kennedy, got a grant of it in his favour ; and in May of the same year he got a grant of the bishopric. Earl Patrick’s crimes brought him to the scaffold in 1615; and after his death 'the Orkneys were again unalienably annexed to the crown, and again they were alienated in 1643. This deed was declared null and void in 1669; and once more, in 1707, they were mortgaged to the Morton family, burdened with an annual payment of L.500 to the crown. In 1742, this mortgage was declared irredeem¬ able, and Lord Morton in 1766 sold his rights for L.60,000, to Sir Laurence Dundas, in whose family they still re¬ main. From a calculation made by Sheriff in his agricul¬ tural survey, printed in 1814, it would appear that Lord Dundas draws annually from his vassals in the earldom L.2187. 11s. 9||d., payable partly in money and partly in produce. In addition to this he has a large private pro¬ perty in the county. Of the trade and manufactures of Orkney, it is not easy to give any thing like an accurate estimate; but the fol¬ lowing may be looked upon as generally correct. Years. 1770 1780 1790 1800 1820 1833 Exports. L. 12,018 23,257 26,598 39,677 Shipping. Tons. 825 940 2000 1375 2841 4049 Ships. Sailors. 17 20 23 21 46 78 76 90 170 119 300 319 The exports consist chiefly of grain, fish, cattle and sheep, butter, hides, rabbit-skins, and eggs. In 1833, it is said, 100,000 dozens of eggs were exported, which, at 6d. a dozen, brought L.2500. The imports are of a most miscellaneous description, and we have seen no probable estimate of their value. Till lately, the principal manufacture in the islands was that of kelp, which at one time brought L.12, L.16, and even L.20 a ton; but now the prices obtained barely suf¬ fice to cover the expenses of making and carrying it to market. The greatest quantity ever made in one year was in 1826, when 3500 tons were manufactured, which, on an average, sold at L.7 a ton. The expense of cutting, drying, and burning the sea-weed, amounts to about L.3 or L.3, 3s. a ton of kelp, and it costs about L.l more to bring it to market; and, for some years, the price has scarcely exceeded L.4. 10s. or L.5. In 1833 there were forty vessels of about thirty tons each engaged in the cod-fishery, and they caught and cured 560 tons of fish, valued at L.l3 per ton. During t ie same year, the produce of the lobster-fishery, in which t ere were engaged 216 boats and 432 men, amounted to • 800. The principal fishery, however, is the herring- snery. In 1820 there were exported from Orkney 17,989 an els of herrings, which, at 10s. a barrel, would amount o about L.8000 ; and in 1833 the number had amounted 0 4,000 barrels, valued at L.17,000. The principal stations for this fishery are Huip in Stronsay, and StMar- garets Hope in South Ronaldshay. e chief manufacture in Orkney at present is that of taw-plaiting. Twenty years ago, from six to seven thou¬ sand females were employed in this branch of trade ; and Orle they are calculated to have drawn in wages L.20,000 an- II nually. Since that time the plaiting of common straw has ^^r^eans' been almost entirely discontinued, and that of the unsplit straw of rye or wheat has been introduced. In 1833 there were plaited 489,560 yards of Orkney straw, and 240,900 yards of foreign straw. I he former is thought tougher than the latter, but the colour is not so pleasing. A bon¬ net that will cost L.4 contains about 140 yards of the finest plait. In Kirkwall there are two licensed distilleries, and there is one in Stromness. In 1833 there were distilled 13,947 gallons of whisky, yielding to the revenue L.2324. 10s. of duty. It has been calculated, that during the year to which these estimates chiefly refer (viz. 1833), upwards of L.60,000 was received in Orkney, principally from fish¬ eries, farm produce, and manufactures. When Dr Barry wrote his history of Orkney, more than thirty years ago, he pointed out many defects in the sys¬ tem of Orkney farming. Some of these still remain, but many of them have disappeared ; and, as old prejudices wear away, and landlords see that it is for their own no less than for their tenants’ advantage to grant leases of some duration, and when both parties are convinced that a proper rotation of crops should be insisted on, and when fencing and draining have been carried to a greater ex¬ tent than has yet been done, we may hope to witness a still more marked improvement. The grain almost exclu¬ sively raised in Orkney is barley, or rather bear or big (/tor* deum tetrasiechon), and gray oats (arena strigosd). We have seen wheat tried, but the result of the experiment was not encouraging. In conclusion, we would remark, that the inhabitants of these islands are in general not overmuch inclined to la¬ bour when at home, but that when abroad they can be made to exert themselves. They are somewhat supersti¬ tious, but are nevertheless well informed on many sub¬ jects ; whilst the upper classes, as a body, are not inferior to their equals in station in any part of Scotland. All classes are universally acknowledged to be kind, courteous, and most attentive to strangers. ( Orkneyinga Saga ; Torfaei Rerum Orcademium His- toria; Brand’s Brief Description of Orkney, 8$c.; Wal¬ lace’s Description of Orkney; M'Kenzie’s Greevances of Orkney; Fea On the Fisheries of Orkney ; Low’s Fauna Orcadensis ; Barry’s History ; Sheriff’s Agricultural Scene¬ ry ; Neill’s Tour; Peterkin’s Rentals and Notes; Groat’s Thoughts on Orkney.') OIILE, Orlet, or Orlo, in Architecture, a fillet under the ovolo, or quarter round, of a capital. When it is at the top or bottom of a shaft, it is called cincture. ORLEANS, an arrondissement of the department of the Loiret, in France, extending over 1012 square miles. It comprises fourteen cantons, divided into 111 communes, and in 1836 contained 141,637 inhabitants. The capital is the city of the same name, being the seat of a bishop, and of the departmental boards of the government and courts of law. It stands on the right bank of the Loire, over which there is a fine bridge of sixteen arches. It is surrounded with walls, which, being planted with trees, form pleasing promenades. In general, it contains anciently built houses, and narrow streets, though there is one exception in the suburbs. The cathedral is a fine old building, as well as the town-house, and the chatelet, formerly the residence of the Duke of Orleans. There are five hospitals, an ex¬ change, an academy, a lyceum with a library of 36,000 vo¬ lumes, and a theatre. The city contains 4600 houses, with 40,272 inhabitants. It is a place of extensive trade, hav¬ ing manufactories of serges and other woollens, several sugar-refineries, distilleries, breweries, and china-w'orks. It is also a depot for the wines of Languedoc and Guienne, 542 OEM Orleans, and for brandies of its own preparation, as well as for Peter those of Cognac, Chinan, Samur, and Blois. It has long Joseph oiven a titie t0 a branch of the Bourbon family, and has ^ been much celebrated for its defence under the famous v . , Maid of Orleans. Long. 1. 49. 23. E. Lat. 47. 54. 10. N. Orleans, New, a city of Louisiana, one of the United States of North America. See Louisiana. Orleans, Peter Joseph, a French Jesuit, was born at Bourges in 1641. He taught belles-lettres for some time in his society, but afterwards devoted himself to the writing of history; and this pursuit he continued till his death, which happened in the year 1698. He wrote a History o the Revolutions of England ; a History of the Revolutions of Spain; a History of two conquering Tartars, Chunchi and Camhi; the Life of Father Coton; and some other pieces. His History of the Revolutions in England, under the family of the Stuarts, from the year 1603 to 1690, was translated in English, and published at London in 1711, one vol. 8vo ; to which is prefixed an Introduction, by Mr Laurence Echard, who says, that “ the great va¬ rieties and wonderful changes in these reigns are here ju¬ diciously comprised in a moderate volume, with no less perspicuity than strictness, and with a beautiful mixture of short characters, nice reflections, and noble sentences, which render the whole agreeable and instructive. ORLOP, in nautical language, the uppermost space or deck in a great ship, reaching from the main to the mizen- mast. In three-deck ships, the second and lowest decks are sometimes called orlops. ORME, Robert, the historian of British India, born at Aniengo, in Travancore, was the son of Ur Alexander Orme ; and his mother was a Miss Hill, a sister of Mrs Ro¬ bert Adams. , He was sent to England at the age of two years, and placed under the care "of Mrs Adams, who lived in Caven¬ dish Square. His literary education commenced very ear¬ ly, for he went to Harrow at six, having been previously, for a twelvemonth, under the private tuition of a clergy¬ man in the neighbourhood. For seven or eight years he applied to his classical studies as a school-boy with great diligence; and when he was thirteen, he was placed in the^office of the accountant of the African Company, in order to gain some practical knowledge of the principles of commerce. In 1742 he went out to Calcutta, and was there enga¬ ged in a mercantile house of respectability; he made a voyage to Surat in their concerns, and on his return, in 1743, he received from England the appointment of a writer. Five years afterwards he was promoted to the rank of factor in the company’s service. In 1752, having been desired to give his opinion on the regulation of the police of Calcutta, he drew up a memorial on the subject, which did great credit to the accuracy and profoundness of his views of the manners, the habits, and the interests of the country. He returned to England in 1753, upon a visit to his aunt, and he was much consulted, during his stay in London, by Lord Holderness, then secretary of state, with regard to the policy to be observed towards the French government respecting the affairs of India. He went out again in 1754, and took his seat as a member of the council at Fort St George. He had here an opportunity of effectually serv¬ ing the company by the vigour of his political conduct, and of greatly contributing to the establishment of the decided preponderance of the English interest in India. After the well-known affair of the Black Hole of Calcutta, he was particularly active in promoting the appointment of Colonel Clive to the command of the expedition destined to punish the cruelty of the tyrant who was the author of that out¬ rage • although his friendship with Colonel Clive did not continue uninterrupted through life. Mr Orme’s exertions OHM on this and other occasions were so highly appreciated by One the directors, that he was nominated as eventual successor to the government of Madras; but he did not stay long enough to profit by the appointment. In the capacity of accountant-general, he became intimate with Mr Alexan¬ der, afterwards Lord Caledon, who was his deputy, and with Mr Dalrymple the hydrographer, to whom he showed many civilities, from a conviction of his merits. Mr Ben¬ jamin Robins, the historiographer of Anson’s Voyage, had also been one of his early friends, that is, during his first residence in India; for this singularly active person died in 1751. Mr Orme’s situation in India was extremely favourable for the acquisition of historical information, which it was the delight of his life to collect; but his health requiring a change of climate, he sailed for Europe on board of the Grantham in 1758. The ship, however, was captured in January 1759, off the Cape of Good Hope, and carried to the Mauritius; but after having been detained there for some time, Mr Orme was allowed to proceed to the Cape, and thence to France. Having landed at Nantes in the spring of 1760, he paid a visit to Paris, where he amused himself for some months with the literature and the theatres of the day; and his biographer has preserved some inte¬ resting remarks that they suggested to him. In October he arrived in London, and engaged a house which had been lately built in Harley Street. He employed himself for the two succeeding years upon his Military History, sparing no pains nor expense to com¬ plete the collection of materials, which he had begun to form in India, and to prepare the work, with all possible care, for the press. The first volume appeared in 1763, and was received with great approbation. The company not only granted him free access to their records, but gave him also the appointment of their historiographer, with a salary of L.400 a year. After this time, he resumed some of his classical studies, which he had discontinued so long as to have forgotten almost all that he had learned; but he soon recovered his knowledge of the ancient languages, and added to them afterwards such of the modern ones as he found likely to be subservient to his pursuits. His hours of leisure were chiefly passed in the enjoyment of literary society ; he became a fellow of the Society of Antiquaries in March 1770 ; and about the same time he became inti¬ mate with Lord Sandys, and with Sir James Harris. Sir William Jones, Dr Robertson the historian, Dr Pemberton, Dr Wilson, Athenian Stuart, and Nourse the bookseller, were also among his particular friends; as well as Mr Rouse Boughton, afterwards Sir Charles Rouse Boughton, to whose urbanity and thorough acquaintance with the Persian lan¬ guage he was indebted for several of his historical docu¬ ments. He obtained additional information tor the com¬ pletion of his History from the French general De Bussy, who had been much concerned in some of the transactions narrated in his first volume, and who was so much satis¬ fied with his candour and impartiality that he invited mm to his house in the country, and entertained him there, m 1773, with great kindness and hospitality. After the publication of the second volume ot his His¬ tory, he had ample leisure to amuse himself with literary pursuits of a more general nature ; but in 1784 he suft - ed a severe affliction from the loss of his nephew, Mr n- sea, who was shipwrecked, with his wife and family, upo their return from India, on board of the Grosvenor. 1792 he retired to Ealing, where he continued to re till the time of his death, which happened on the January 1801. . Good sense and sound judgment were the principa tures of his character. His works are more distingu by simplicity, clearness, and precision, than by any J powerful eloquence, or a very nice discrimination o 0 R M racter. He was not, however, deficient either in command of language or in poetical feeling. Sir William Jones and ^ Dr Robertson paid him some very high compliments, in ^ their private correspondence, for the elegance and purity of his style ; and the former of these writers has also cha¬ racterized him, in his third Discourse, as possessing an “ex¬ quisite taste for every fine art.” We find also, amongst a few miscellaneous poems collected by his biographer, a re¬ markable little Address to the Moon, written at Madras in 1757, which is manifestly the original of a well-known Greek epigram and a Latin ode of Sir William Jones ; and certainly the compliment of having been “ set to music, and much admired,” must be considered as far inferior to that of having been repeatedly imitated and translated by a poet of a judgment so correct, and a taste so refined, and having been called the production of “ a man of great ta¬ lents, and a particular friend of the translator.” 1. Of his works, the earliest in its origin was his Gene¬ ral Idea of the Government and People of Indostan. It was principally written in 1752, and finished during his return to England in the next year. A part of it was pre¬ fixed to his Military History, and it is printed in its entire state among his posthumous works. 2. History of the Military Transactions of the British Nation in Indostan, from the year 1745. A Dissertation on the Mahommedan Conquests and Establishments in In¬ dostan is prefixed to the first volume. “ No historian,” says the author of the Annual Register for 1764, “ seems to have been more perfectly informed of the subject on which he has undertaken to write ; and very few have pos¬ sessed more fully the talent of impressing it, in the clear¬ est and most vivid manner, on the imagination and under¬ standing of his reader.” The first volume, published in 1763, extends to 1756; and the second, published in 1778, carries the history down to the peace of 1763. 3. Historical Fragments of the Mogul Empire, from the year 1659, 8vo, London, 1782 ; first published anonymous¬ ly, but acknowledged and reprinted in 4to in 1805; to¬ gether with the Origin of the English Establishment at Broach and Surat, the General Idea of the Government and People of Indostan, and a Life of the Author. The His¬ torical Fragments is a work of considerable research, mak¬ ing a sort of episode to the Military History, to which it affords some additions and corrections. It relates princi¬ pally to the sanguinary Aurungzebe and his immediate suc¬ cessors, and to his contemporary, Sevagi the “ Morattoe,” the professed descendant of Porus. The Essay on the Trade of Surat is a fragment which was left unfinished by the author. 4. Several hundred volumes of Mr Orme’s manuscript i collections, together with some scarce printed tracts re- ating to oriental history, are carefully preserved in the library of the East India Company. ORMEA, a city of the province of Mondovi, in the con¬ tinental part of the kingdom of Sardinia, and situated on the river Tanaro. It is surrounded with old walls, and has a citadel, a collegiate church, and 800 ill-built houses, ; 5460 inhabitants, who carry on an extensive trade in ORMOND, the northern division of the county of Tip¬ perary, m the province of Munster, in Ireland. For a long ^aVe earh an(I afterwards of marquis u y3’t0 t^le n°ble family of Butler, descended from a s er o St Thomas a Becket, archbishop of Canterbury ; p i ’ the accession of George I. the last duke was attaint- 0 igh treason, and died abroad. In that part of the ountry the family had great prerogatives and privileges, Wh^ were granted by Edwar^ 1 * n , SKIRK, a market-town of the hundred of West vprn m 1 he county of Lancaster, twelve miles from Li- P o > and 210 from London. The parish is very exten- O R M 543 su e, comprehending six townships and one chapelryr. The Ormuz. town is well built, consisting of four streets crossing eachv other at right angles. Its church is a handsome Gothic stiucture, and is remarkable for having the tower and the steeple detached from each other, so as to appear like two churches. There is a good market on Thursday, and con¬ siderable trade at all times, arising from the navigable canals, to which there is easy access. The population of Ormskirk township amounted in 1801 to 2554, in 1811 to 3064 in 1821 to 3838, and in 1831 to 4251. ORMUZ, a barren island in the Persian Gulf, on which was formerly built a city, forming a vast emporium of In¬ dian trade, and celebrated for its wealth and its extended commerce all over Asia. This island is about twelve miles in circumference, and resembles, when viewed from the sea, a mass of rocks and shells thrown up by some vio¬ lent convulsion from the bottom of the ocean. Not more than 500 inhabitants are contained within the walls of the fort and a wretched suburb. A range of hills intersects the island from east to west, from the suburb to these heights is about a mile and a half, and the ground conti¬ nues level about two miles along the northern shore. This whole space is one mass of ruins; and it is only where the reservoirs of water have been made that the buildings are in any thing like a perfect state. According to the account of Kinneir, these appear to have been made in the shape of a hollow cylinder, covered by an arch of solid masonry; and it is probable, he adds, that every house of consequence had one of these reservoirs, as there is only a record of one well of fresh water ever having been on the island, and that is now dry. The rocks of Ormuz con¬ sist almost entirely of fine crystal salt; and, from various specimens which are found on the surface, there can be little doubt of its abounding with sulphur and a variety of me¬ tals, especially iron and copper. It is mentioned that the southern part of the island is one entire heap of cliffs and rocks. > These sink abruptly, towards its northern extre¬ mity, into a plain, comprising an extent of six or eiMit square miles of comparatively level country, terminatmo- in a sandy spit that divides the harbour of Ormuz into two parts, and on which stands the old Portuguese fort. The har¬ bour is tolerably good, being surrounded on all sides by the land, though the bottom affords good anchorage. The fort, which is still in a good state of repair, is built on a narrow neck of land jutting into the sea, by which the walls are washed on the northern and western sides, and was never of great extent or regular figure. The walls have been most carefully and substantially built of the rock af¬ forded by the island. Strong bastions command each face, and the height from the water to the ramparts may be about eighty feet. The walls are in good repair, but the inte¬ rior is in ruins. Two large reservoirs for supplying them with water still subsist, and both are covered in. The roof of one rests on two rows of massy pillars, and its diameter is about 100 feet. The fort was formerly separated from the mainland by a canal cut through the neck of land, and this was crossed by a drawbridge ; but it is now chief¬ ly filled up, the eastern part serving as a dock for repair¬ ing boats. A rotten plank is the only passage to the gate¬ way, which is strongly defended by guns from the neck of the opposite bastion. Several iron and two brass guns are mounted on the walls, bearing the Portuguese arms. The carriages of the guns are so bad that they would not bear a single discharge. A mud wall, just beyond the old ditch, encloses between itself and the fort the few miserable huts that are occasionally tenanted on the island. “ Beyond this,” says Frazer, in his Narrative of a Journey through Kho- rassan (p. 47), “ upon the plain extending to the feet of the mountains, lie scattered the ruins of the ancient Ara¬ bian and Portuguese city, with its villas and seats, which are constructed of such perishable materials that scarcely 544 O R M Ormuz, any relics of importance are to be seen. The only re markable object is a tower near the waU, which I ra conjectures to have been a minaret built by Shah Abbas after he had captured the place. Along the shore both o the eastern and western bays, not far from the water edge, may be still seen a row of ruined houses, arcaded into apartments of various sizes and dimensions, which, in the opinion of Frazer, have been sirdabs or underground apartments for retiring to in warm weather, or cellars for receiving merchandise. The whole was of the same solid architecture as the first. The ground beyond, for a - siderable space towards the mountains, was thickly stre ed with broken tiles, pottery, glass, and the other u destructible relics of an eastern city thrown ^to heaps o rubbish. Ormuz thus was possessed of no natural adva ta^es either from soil or climate; the heats during the summer being scarcely supportable by the human frame. It produces no articles of provision, n°t eve« » dr0P f water • so that it required a great exertion to render it habitable. The greater portion of the i^and consists o volcanic rocks, and the remainder of uneven stony place , strongly impregnated with salt; so that the means of proving the^country do not exist. Not a tree nor a shrub can beS raised; for the first necessary, water, is entirely wanting, and all vegetable supplies come from Kishmee or the mainland. Considering the barrenness of the island Frazer doubts where the blooming and aromatic shrubs, that in former times were said to have decorated the streets, could have been found. The surface of the plain, though level when contrasted with the mountains beyond it, is still found extremely rugged on a nearer approacji, and broken into ravines. The rocks are strongly impreg¬ nated with iron ; they rise in rugged amorphous masses, strewing the ground with ruins, from which the mountains rise abruptly in bare desolate crags, and sharp, lofty peaks, of every variety of form and hue. “ In many parts, says Frazer, “ these, as well as the plains below, have a volcanic appearance, and a looseness of texture that alarms the tra¬ veller lest the surface should give way under Ins foot and swallow him up in yet smoking ashes. The only produc s of Ormuz are iron in various shapes, sulphur , salt, which produced from several salt springs, and is the only source of revenue in the island. The export in the company ships is prohibited, lest it should interfere with the mono¬ poly of salt in India. But the export to other places is considerable. The garrison of Ormuz consists °f eighty soldiers belonging to the imaum of Muscat, who live im¬ mured in this desolate spot in great wretchedness. I he broadsword and the target are their chief arms. These swords are sharp and thin, and previous to an attack they make them quiver and ring in the hand, with a jerk, whilst held in an upright position, and then charge with loud shouts. Ormuz was entirely indebted for its pre-eminent splendour to commerce, and it was long tbe great depot both of Indian and European produce. When the Portuguese fleet had found their way to India round the Cape of Oood Hope, they soon cast a covetous eye on the wealth ot Ur- muz. They made several attempts to gain possession ot it but without effect, till in 1514 it surrendered to Albu- nuerque, who approached with an overwhelming force. It continued to be one of the chief seats of the Portuguese power till the reign of Shah Abbas, who conceived the plan of its conquest, and of attaching it as an appendage to the Persian empire. His attempt would have been vain had he not been aided by an English squadron which hap¬ pened to be cruizing in these seas ; and the commanders of which, being hostile to the Portuguese, readily fell in with the schemes of the Persian monarch. Iheir combined forces having landed, obliged the Portuguese to evacuate the town and to retire to the castle, which was at last re¬ duced, chiefly by famine. Under the Persian regime the O R N town decayed ; the trade was ordered by the Shah to be O' transferred to Gombroon, on the opposite coast; and all the inhabitants at last followed, leaving only a Persian^ ; garrison. About the end of the last century Ormuz was ‘1 taken possession of by the imaum of Muscat, and the inha¬ bitants were then reduced to forty families. But the fort has since been repaired, and now contains 500 families. Long. 56. 40. E. Lat. 27. 8. N. ORNE, a department of France, formed out of the southern part of the ancient province of Normandy and a portion of the division of Perche. It lies between north latitude 48. 12. and 48. 58., and in longitude between 1.1. and 0. 50. west. It is bounded on the north by the depart¬ ments of Calvados and Eure, on the east by Eure and Loire, on the south by Sarthe and Mayenne, and on the west by La Manche and the sea. It is 2524 square miles in ex- tent, or, according to the Almanac Royale, 645,254hectares, of which 318,750 are under the plough, 63,750 are mea¬ dows and pasture, 61,500 are woods, and the remainder is uncultivated, or the sites of towns, and the courses of rivers, or roads. It is divided into four arrondissements, thirty- five cantons, and 627 communes, and contains a popula¬ tion of 443,688 persons, who almost all adhere to the Roman Catholic church. The face of the country is hilly, though few of the elevations exceed 600 feet. Hie valleys between these hills are most abundantly supplied with streams of water, and it is said that no less than 300 rivers, great and small, have their sources within the depai tment. As a whole, it thus appears to be a lofty region. The Orne, the Mayenne, and the Sarthe, are the great rivers by which the water of the smaller streams runs to the ocean. Ihere are many morasses, ponds, and small lakes between the hills, but no canals. On the hills the soil is of a very ste¬ rile character, yielding only some scanty pasturage for cattle. In the valleys it is better, but much of it is either sandy or very stony. The climate is cold, but dry and healthy. In the spring, from the height of the land, the northerly winds often prove injurious to the blossoms o the fruit-trees, and even to the corn. Ihe wheat, as well as the rye, is peculiarly subject to blight. The agriculture is badly conducted, although ot late somewhat improved. It does not produce sufficient corn fiy a half years con¬ sumption, and what is raised is ot an indifferent quality. The country people are generally poor; they are clothe with coarse materials made by themselves, genera y wear wooden shoes of their own fabrication, feed on buck¬ wheat and rye, and for drink have bad cider or perry. No wine is produced within the department, nor is any beer brewed. The products of most value are hemp and flax, which grow of fine and long fibre, and the sale of them procures the requisite corn from the neighbourhood. 1 cattle also yield some of the means of subsistence ^ breed of Norman horses is good, and the races have "e years been improved by crosses with some of greater pmver. Many young black cattle are bred, and many sheep, afew which yield fine wool. The forests have been negleriech and fuel is scarce. There are mines of iron, from ^.cn about 150,000 quintals of wrought and of cast iro yearly produced, and mostly converted into nails and ironmongery goods. There are some fine hnens made, and much pillow-lace is made by the females, spun from their own flax. Those articles made from flaK are the most valuable products of manufacturi g A few cotton goods are also made ; and some lea h p wax, honey, and bacon, may be added to he list rip ducts. The city of Alenqon is the partment, which elects four deputies to the ie0 ^ORNITHLE, a name given by the an compressed, acute: ten species. shfm* ir^n,mPeter* Beak conical, convex, rather O,- Pp; the YpPer mandible longer : one species. • Bustards. Beak with the upper mandible arch- ed. four species. Pstrich and cassuary. Beak somewhat co- niLa ; win§s for flying : three species. Genus Columba. Pigeons. Beak straight; nostrils with a tumid membrane : forty species. Alauda. Larks. Beak slender, pointed; tongue slit; hind claws very long : eleven species. Sturnus. Starlings. Beak slender, pointed ; flattened towards the point: five species. Turdus. 1 brushes. Beak subulate, compressed, notch¬ ed : seven species. Ampelis. Chatterers. Beak awl-shaped, depressed at the base, notched : seven species. Loxia. Gross-beaks, bullfinches, &c. Beak conical, bulging at the base: forty-eight species. Emberiza. Bunting. Beak somewhat conical; lower mandible broader : twenty-four species. Tanagra. fanager. Beak notched, awl-shaped, coni¬ cal at the base : twenty-one species. Motacilla. Wagtails and warblers. Beak awl-shaped ; tongue jagged; claw of the hind toe of moderate length: forty-nine species. Pipra. Manakin. Beak awl-shaped, feathers at its base directed forwards ; tongue abrupt: fourteen spe¬ cies. r Hirundo. Swallows. Beak very small, depressed at the base, incurved; the mouth wider than the head: twelve species. Caprimulgus. Goat-suckers. Beak very small, incurv¬ ed, depressed at the base ; large bristles; the mouth very wide : two species. The amount of species in the class of birds with which Linnaeus had to form his system did not greatly exceed nine hundred. Yet with what admirable tact has he seized upon the characteristic forms which so long served as the nuclei around which so many other species were assem- bled. It is true that his arrangement, like all other in¬ ventions of human genius, is liable to many objections, and may not suit the subject in the wide extent acquired in re¬ cent times; but when we see how closely his ordinal di¬ visions accord even with the most elaborate arrangements of modern days, and how gracefully his generic groups may now be formed into more extended families, each retain¬ ing such strong affinities in its constituent parts, we the more incline to marvel at the two following circumstances ; —1st, That Linnaeus himself should have so far advanced’ before his age, and anticipated the labours of posterity: 2d, that that posterity, or such portion of the same as in- 547 History. 548 ORNITHOLOGY. History. cline not seldom to sneer at his unprecedented and even now unequalled labours, should not perceive that it is to his system they are indebted for almost all that is of any value in their own. But on this subject we shall not here enlarge. It has been sometimes remarked, that the characters given by Linnaeus to his orders are totally inapplicable to many of the species which each contains. Thus the vul¬ tures, it is said, which belong to the first order, have no projecting processes on the upper mandible; the parrots, which are referred to the second, have the bill hooked, not cultriform, and bear no resemblance to the other species; among the Anseres, which are characterised as having the bill smooth, covered with epidermis, and enlarged at the tip, are the gannets, with a bare and pointed bill, and the divers, terns, and gulls, with bills not at all answering to the description given ; among the Grallae, with a cylindii- cal bill, are the ostrich, with a short depressed one, the canchroma, with one resembling a boat, the spoon-bill, the heron, the flamingo, and others, the bills of which differ from each other as much as from those of the snipes and curlews ; the character given to the bill of the Gallinae agrees with that of many Passeres; and the wag-tail, the swallow, the tit-mouse, the red-breast, and numerous other small birds, have bills very different from those of the gold¬ finch, bunting, bullfinch, and cross-bill, which, neverthe¬ less, are all defined under the same order, and by a similar phrase.1 We believe the truth to be, that the more natu¬ ral an order is, the greater the difficulty becomes of ex¬ pressing its characters in a single line, in accordance with the briefness of the Linnacan method,—because none of these characters, taken in disconnection, remain unmodi¬ fied throughout the extended series of beings which they are intended to define. There is always a blending or transition towards other groups, so that the character.ex¬ pressed in words must be regarded as applying in force rather to certain species which exemplify the whole, and towards which the others tend, than to the entire as¬ semblage. Now the Linnaean genera are often natural as family groups, though their constituent portions may not accord with the definition ; and as they become ex¬ tended, or rather filled up, by the discovery of new species, the difficulty increases. Many of the modi¬ fying species, or connecting links, were totally unknown in the time of the great Swedish observer, who ‘seized chiefly upon the more prominent and tangible points ; and the necessity of forming new subdivisions in no way invalidates his claims upon the gratitude of all lovers of the lucidus ordo. At the same time his early disciples erred (though less grossly than many of the later rene¬ gades) in viewing all living things as merely destined to clothe with flesh and blood the gigantic frame-work which he had erected,—as if his exposition of the system of nature were in fact itself that system,—as if the highest attainments of any one, however gifted, in either art or science, were ever more than the passionate expression of some dim vision of truth, perceived through the influence of the love of knowledge. With all the lights of modern method, and the vaunted improvements in classification, see we not still “ through a glass darkly?” Have not some of those who talk slightingly of the Swedish sage never contrived to see through the glass at all ? During the thirty years which elapsed between the first and twelfth editions of the Systema Natural, several im¬ portant additions were made to Ornithology from other quarters. Edwards, especially, in his Natural History of Birds, and other rare undescribed Animals, and in his Meanings in Natural History, amounting in all to seven volumes 4to (1743 and after years), made known in a H p rough but recognisable style, many new and interesting'*"' species. “ C’est le recueil,” says Cuvier, “ le plus riche pour les oiseaux apres les planches enluminees de Buffon” During the same period a letter was published at Pappen- heim, on the birds of the Black Forest, by J. H. Zorn, Epistola de Avibus Germanics, prccsertim Sylvee Hercynice, which contains many excellent observations ; and the cor¬ respondence was afterwards extended by Briickmann in his Aves in Germania obvice Epistolar. Itinerar. cent. ii. epist. 18, and Aves Sylvee Hercynice, ibid, epist. 17. In Ander¬ son’s Natural History of Iceland and Greenland (1750), we have among the earliest authentic notices of the Zoology of these northern regions. Klein and Maering each pub¬ lished systematic works, but based on very artificial prin¬ ciples, at this epoch. In Brown’s Civil and Natural His¬ tory of Jamaica, there are several ornithological contribu¬ tions ; and we may here name another excellent English work, Borlase’s Natural History of Cornwall, which appear¬ ed at Oxford in 1758. In 1760 Brisson published his great systematic Ornithologie, in six volumes 4to, still of value for the minute though laborious exactness of the descrip- tions. H is method is founded entirely on the form of the bill and feet, the number of the toes, and the manner in which these are united, with or without membrane, to each other. The Ornithologia Borecdis of Brunnich ap¬ peared at Copenhagen in 1764. The Storia Naturale degli Uccelli, printed at Florence in 1767, is the most extensive of all the Italian works on Ornithology, after that of Aldrovandi. It is frequently named by Temminck and other modern writers, most of whom, however, from their vague references, may be safe¬ ly inferred to quote at second hand. It consists of a large collection of plates both of indigenous and exotic birds, executed with sufficient exactness, considering the slight practice which obtained in those days in the representa¬ tion of natural objects. The position of most of the figures, as Signor Savi remarks, is forced and unnatural; and we may see at once that the artist was guided more by his own fancies than the accustomed observance of living na¬ ture. “ Illuminatio non semper optima, nec optimus sem¬ per avium situs,” are the observations made by Bcehmer.2 The plates were engraved from drawings in the collection of a Florentine patrician, the Marchese Giovanni Gerini, a passionate lover of Ornithology, who passed much of his time in collecting, and causing to be described and figured, whatever birds he could procure from every clime and coun¬ try. After his death some learned men, unfortunately not much skilled in Ornithology, supposing either that general erudition might suffice for science, or that the superficial study of a few books might compensate the want of laborious observations carried on from year to year, undertook to pub¬ lish Gerini’s uncompleted work, to fill up the voids which he had left, and even to alter what he had already done. They thus compiled a superficial text, in which they con¬ fused the classification, mistook the species, omitted seve¬ ral of the most interesting, and neglected the localities,—so that a work which, in the hands of an able editor, might have added a new glory to the already illustrious literature of Italy, became nothing more than a disorderly collection of figures. It is, however, of some value, chiefly as con¬ taining representations of species not previously known, such as Falco cenchris, FringiUa cisalpina, Sylvia province alis, melanocephala, and melanopogon, Sterna leucoplera, c. From the year 1767 onwards, Fallas, in his Spfdegw Zoologica, the narrative of his various Travels, ana the c of the Royal Academy of St Petersburg, contributed to nithology, as to most other branches of zoological scienc , 1 Macgillivray’s Lives of Zoologists, vol. i. p. 275. 2 Bibliotheca Scriptorum IJistorice Naturalis, kc. tom. ni p* 502. ORNITHOLOGY. and about the same time the industrious Pennant was ao 'tively engaged in his important labours. His numerous well-known works need not be here particularised. The great collection published at Nuremberg by Schligmann in 1768, though amounting to nine volumes folio, including an indifferent text, seems chiefly copied from preceding works, such as those of Catesby and Edwards. In 1770 and following years, Noseman, in-conjunction with Sepp the engraver, published, in Dutch, his History of the Birds of the Low Countries. The concluding fasciculi are by Houttuyn. Baron Cuvier thinks the figures “ remarkable for their elegance.” Mr Swainson regards them as “poor and unnatural.” The year 1770 is farther marked as an important epoch, by the appearance of the first two volumes of the Histoire Naturelle des Oiseaux, by BufFon. That illustrious writer was the first to clothe the descriptive portion of the science with colours as bright and varied as those which beautify the fairy forms of which he treats, but which had hitherto been viewed as it were only by the half-closed eye of the technical describer. The Planches Enlminees, afterwards published by Daubenton the youn¬ ger, in illustration of BufFon’s work, amount to above a thousand plates of birds, being the greatest and most important collection yet achieved in this department. In 1774 we have the Elementa Ornithologica, by SchcefFer, whose system rests entirely on the legs and feet of birds, the primary sections being divided into nudipedes and plumipedes, while the orders and genera are determined by the number, position, and connection of the toes. He never employs the bill when he can help it; from which we may infer the nature of the work, and its probable uti¬ lity to the student. The Voyages aux Indes, &c. by Sonnerat (1775 and suc¬ ceeding years), contains figures and descriptions of many new exotic species. Scopoli’s Introductio ad Historiam Na- turalem, published at Prague in 1777, exhibits a systematic distribution of birds, based on the form of the scales which cover the tarsi. Thus the species which, like the gene¬ rality of the accipitrine kinds, parrots, the gallinse, grallce, and palmipedes, have those parts covered by small poly¬ gonal scales, form the section called retepedes ; while the others, which have the tarsi protected in front by semicir¬ cular plates, bordered behind on each side by a longitu¬ dinal furrow, constitute the scutipedes. The general result, however, of this view is by no means successful. In 1776 Francesco Cetti published his Uccelli di Sardigna, a small octavo volume, containing descriptions of only a portion of the Sardinian birds, but valuable, from its notices of their habits, and the description of various new species. Latham’s General Synopsis commenced in 1781. How¬ ever faulty in relation to the present state of the science, it was a work of great merit for its time, and contains, un- er not very appropriate names, by no means inaccurate descriptions of many rare birds, some of which have since been published, by more recent writers, as entirely new. Under this head we may mention both the Index Orni- tmogicus of the same author (1790), and his greatly en¬ larged and more modern work, the General"History of w s, ten volumes 4to, 1821-24, which combines the two preceding (with their supplements); but is, we regret to ! 5ay, a mere combination of those rather obsolete mate- rja s, without critical discrimination, or any correction of >6 ancient errors. There is great increase without much progression. Nearly contemporaneous with Latham’s first iT0r ’ We contributions to Ornithology by Gilius, err em, and Jacquin. About 1783 Mauduit commenced e rmthology of the Encyclopedic Methodique, for which onateire formed the system of classification which ac- i •ompanies the volume of indifferent plates. Of the de- iptive portion an excellent modern continuation, if not 0 etlon> ^as been published bv M. Vieillot, in three vo¬ lumes 4to, 1823. Sparmann, a pupil of Linnaeus, and a well-known traveller, published in 1786 the Museum Carl-' sonianum, in which several new species are represented and described. In 1787 R. L. Desfontaines (in the Me- moires de VAcademic des Sciences) contributed some no¬ tices of birds which frequent the coasts of Barbary ; and, in the same year, Martinet, who had acted under the younger Daubenton as a superintendent of the Planches Enluminees, took it into his head to publish, on his own account, a collection of figures and descriptions of birds, amounting to no less than nine volumes octavo. Their number was not more alarming than their nature. In 1789 and following years, J. F. Gmelin published the thirteenth edition of the Systema Natures of Linnaeus. “ Son travail,” says Baron Cuvier, “ tout indigeste et de- nue de critique et de connaissance des choses, est cepen- dant necessaire, comme la seule table un pen complete de ce qui a ete fait jusque vers 1790.” About a volume and a half is devoted to Ornithology. White’s Journal of a Voyage to JSew South Wales appeared in 1790, forming an interesting addition to the natural history of a country which still offers a vast field for zoological research ; and soon afterwards Shaw announced his Zoology of New Hol¬ land, which advanced no farther than a few fasciculi. We have likewise in 1790 the Fauna Grdenlandica of Otho Fabricius, a work of great merit for the time, and still holding a high place in the estimation of the naturalist, from the accuracy of its descriptions, although in some in¬ stances the names are misapplied. In 1792 M. Beseke published in German his materials for the Natural His¬ tory of the Birds of Courland. The works by Lord, Hayes, Lewin, and others, which appeared about this epoch, iii il¬ lustration of the birds of Great Britain, were so soon af¬ terwards superseded by the admirable and unequalled wood engravings by the inimitable Bewick, that it is scarcely ne¬ cessary to bring their names to the reader’s recollection. We may close our imperfect sketch of the Ornithology of the eighteenth century by the mention of Cuvier’s first work, the Tableau Elementaire eh Histoire Naturelle (1798), which contains the methodical distribution of birds, which he afterwards completed in his Regne Animal. We may commence the present century with the title of Daudin’s work, the Traite Elementaire et complet d’Or- nithologie, two vols. 4to, 1800. It is an unfinished compi¬ lation, of no great merit, containing oidy the accipitrine birds, and a portion of the Passeres. Although Le Vaillant commenced his magnificent series of ornithological illus¬ trations during the preceding season, and continued them at intervals for several years, we shall here group together the most important, for the convenience of the reader : 1st, Histoire Naturelle des Oiseaux de f Afrique, six vols. 4to, 1799-1800. The plates amount to 300, but are in¬ ferior to those of the other works of the same author. 2d, Histoire Naturelle June Partie d’Oiseaux Nouveaux et Bares de VAmerique et des Indes, one volume 4to, IbOl. This volume illustrates the Buceridce or horn bills, and the Arrpelidai or fruit-eaters. 3d, Histoire Naturelle des Perro- quets, 2 vols. 4to, 1801-5. Almost all the plates (139 in number) of this exquisite work are from drawings bv Barrabaud, an almost unrivalled artist in the ornithological department. 4th, Histoire Naturelle des Oiseaux de Paradis, et des Rolliers, suivie de celle des Toucans et dis Barbus, 2 vols. folio, 1806. “ Equally splendid,” says Mr Svvainson, “ with the preceding. The size and extraordinary plu¬ mage of the paradise birds require a scale fully equal to the dimensions of this volume, which exceeds any other of the author’s in the beauty and splendour of its contents.” We believe that the two volumes, though generally regard¬ ed as one series, were published separately, with distinct titles. 5th, Histoire Naturelle des Promerops, et des Gue- piers, 1 vol. folio, 1807. This rare and beautiful volume 549 H istorv. 550 ORNITHOLOGY. History, sometimes occurs alone, sometimes as forming volume third of the preceding series. A complete collection ot Le Vaillant’s works forms of itself a noble gallery of or* nithological portraits. The letter-press, more especially that of the Oiseaux d’Afrique, is also of great value, and will be studied with additional advantage by those familiar with the delightful narrative of his first and second I ra¬ vels into the Interior of Africa, 1790-95. As belonging to the same class of works, and also of ex¬ cellent execution, may be mentioned Desmaret s Histoire Naturelle des Tangaras, des Manahins, et des lodiers, 1 vol. folio, 1805. M. Vieillot, who died in 1828, after a very active career in Ornithology, is the author ot the following works, all of a sumptuous character, and of considerable value in their way, though inferior in beauty to those of the two preceding authors. Histoire Naturelle des plus eaux Oiseaux Chanteurs de la Zone lorride, 1 vol. folio, x80o Histoire Naturelle des Oiseaux de l'Amerique Septentmonale, 2 vols. folio, 1807 ;—Galerie des Oiseaux, 4 vols. 4to, 1826, an extensive series of figures, chiefly from the col¬ lection of the museum in the Garden of Plants. M. Vieif- lot is likewise the continuator of Audebert’s Histoire des Oiseaux dores, ou a reflets metalliques (2 vols. folio, com¬ menced in 1802) ; and has written largely on systematic Ornithology in the Encyclopedie Methodique (Ornitholo- qie, by the Abbe Bonnaterre, continued by M. \ieillot, 3 vols. 4to, besides the plates, Paris, 1823); and in the Nouveau Dictionnaire d'Histoire Naturelle. Lastly, he in¬ dicated various new groups, or at least a variety of groups under new names, in his Analyse d'une houvelle Orndxo o- qie Elementaire, Paris, 1816 ; a work which seems to have occasioned great offence to M. Temminck,1 and some dis¬ satisfaction to Baron Cuvier.2 Alexander Wilson’s admirable American Ornithology, or Natural History of the Birds of the Lnited States, was pub¬ lished in nine volumes quarto (including Mr Ord’s Supple¬ ment) between 1808-14. It still maintains its character as a work of the highest value, and although it has been since surpassed by other works in elegance of design and beauty of colouring, its descriptive or narrative portion has been scarcely equalled. Of this most remarkable production several editions have been published in America, and two in this country, viz. one by Professor Jameson, in a cheap and commodious form (four small volumes of Constable s Miscellany, No. 68—71, 1831), with the advantage of a systematic arrangement of the original materials, another by Sir William Jardine (in three large 8vo volumes, Ip^A with plates, and consequently of higher price, but enriched by numerous notes of great value. . We may here name the General Zoology, in fourteen volumes octavo, 1800-26, commenced by Dr Shaw, and concluded by Mr Stephens. The last seven volumes are devoted to Ornithology. Most of the plates are copies. II- liger’s excellent Prodromus Mammalium et Avium was pub¬ lished at Berlin in one volume octavo, 1811. It establishes several new and important genera. _ . The first edition of the Regne Animal of Baron Cuvier (four vols. 8vo) appeared in 1817 ; the second (in five vols. 8vo) was published in 1829. We need say nothing of the surpassing excellence of a work which cast the whole sub- iect of Zoology into a new and more natural form, nor of the unequalled labours of the illustrious author, by whom the structure and characters of so many important groups have been brought from darkness into light. The general features of his system have, with few exceptions, been steadily adhered to throughout the zoological treatises ot this Encyclopaedia, and (which is more to be admired) do H ?i equally pervade and illumine the labours of many modern'''—-^ authors who yet place themselves in opposition to his doc¬ trines, and seem to have forgotten, or been blinded by, the dazzling source from which they drew their “ golden light as if the false though gorgeous glory of a cloud could of it¬ self adorn the beauty of the azure heavens,—as if the re¬ flection of a sparkling river were any thing more than the borrowed lustre of the “ Great Apollo.” Let the reader rest assured, that however praise-worthy may be the skill and devotedness of our ingenious system-makers, or how¬ ever valuable may be the materials which they have brought to bear uoon isolated portions of nature s most majestic kingdom, they are yet separated, by the will of God, in head and hand, “ longissimo intervallo,” from their great master. This is no reason, but the reverse, for their ceasing to exercise their useful talents and natural powers of obser¬ vation with assiduity and patience, as becomes alike the aspiring philosopher and the humble Christian , but let no man mistake “ the spirit he is of,” nor suppose an owl an eagle, seeing that not in every acceptation of the phrase is it true, that ** a living dog is better than a dead lion. The natural history of the birds of Germany has been amply and successfully illustrated by the well-known works of Naumann (father and son), by those of Bechstein, and of Messrs Meyer and Wolf. We owe to M. Leisler a Supplement to the work of Bechstein (Hanau, 1812-13), and of Naumann’s Naturgeschichte der Vogel Beutschlands, a second edition (in octavo), with beautifully coloured plates, was commenced in 1820, but has not yet at^ined comple¬ tion. Meyer and Wolf’s Taschenhuch der Deutschen Vo- qelkunde now amounts to three volumes, and is filled with excellent observations, while their large illustrated work on German birds, commenced so far back as 1804, and re¬ cently brought to a conclusion, is one of the most beauti¬ ful with which we are acquainted. M. Brehm published his Beitrage zur Deutschen Vogelkunde in 1820-22, in three large volumes, filled with minute details, which exhibit an accurate practical knowledge of the science. The authors views of species are peculiar. His Lehrbuch der ISatur- qeschichte oiler Europaischen Vogel (two volumes) was pub¬ lished in the following year. In this, too, he surely describes local races, or accidental varieties, as distinct species, lo M. Brehm we likewise owe several fasciculi of a work com¬ menced in 1824, and published at intervals, under the title of Ornis. It consists of memoirs and memoranda, by va¬ rious authors, relating chiefly to Ornithology. Lastly, we may here name his Handbuch der Naturgeschichte aller Vo- qel Deutschlands (Ilmenau, 1831), forming a goodly volume of 1100 pages octavo (with plates), which, M. lemm remarks, may be reduced to at least one half, by suppress¬ ing the numerous indications of what the author ca species. His system is partitioned into twenty-three ord , variously subdivided, and containing 196 genera: Some important additions have been made of kite y to the Ornithology of northern countries. The buds Sweden are described by Professor of Lim , ^ his Ornithologia Suecica, Copenhagen, ■L817- ‘ same author published a Skandinavischen Fauna in 18-_, and a much more sumptuous work appeared a 1832, under the title of llluminerade figurer l Fauna, mU text The first volume oouta t* navims Fauna, nut text, me mat, vu ^ sides quadrupeds, seventy-five figures of Jn^ M. Boie gave forth his Tagebuch fl^Uen / ofhis durch Norwegen, in which, along with the nar at ^ ^ travels, he furnishes many valuable observatio « See his Observation, sur la Classification Methodique des Oiseaux, &C. 1817 J and Manuel d Ormthologie, Introduct * E^nie Animal, second edition, tom. L note to Preface, p 23. ORNITHOLOGY. history and manners of the birds of Norway. The same author published a work under the title of Ornithologische Beitrage, in 1824 M. Faber’s excellent little volume, the Prodromns der Islandischen Ornithologie, appeared in 1822. It contains most interesting accounts of the birds of Iceland, especially the aquatic kinds ; and not less va¬ luable is his later publication, Uber das Leben der hoch- novdischen Vogel, 1825, in which we have many acceptable observations on the geographical distribution, and the modes of life, of northern species. While on the subject of northern birds, we need scarcely recall to the reader's re¬ membrance the various appendices to the Voyages of Cap¬ tains Parry and Franklin,—Captain Sabine’s Memoir on the Birds of Greenland (Linn. Trans, vol. xii.), or the beautiful work by Dr Richardson and Mr Swainson on the birds of Northern America, which constitutes the second volume of the Fauna Boreali-Americana, 1831. We have few systematic works devoted to the Ornitho¬ logy of the more southern countries of the European con¬ tinent. We are ourselves acquainted only by name with the Ornitologia deW Europa Meridionale (dedicatio sig- nata 1772), in fob max., by Clement Bernini, a teacher of drawing. 1 he birds of France in general are described by M.Vieillot in the corresponding portion of the Faune Fran- P«we,an octavo work, still in course of publication; and those of Provence in particular, by M. Polydore Roux in his Or- nithologie Provenyak, 1825. Of a more general character, though not without its bearings on our present subject, is the Histoire Naturellede VEurope Meridionale by M. Risso of Nice, in five volumes 8vo, 1826. We have already had occasion to name the Storia Naturale degli Uccelli, m\b- ished at Florence in 1/67 ; and Cettfs more restricted one, \jli Uccelli di Sardigna, 1776. In more recent times 1811), Professor Bonelli of Turin published a Catalogue eks Oiseaux du Piemont, containing two hundred and sixty- wo species. In 1822, Giambatista Baseggio inserted in he twenty-eighth volume of the Biblioteca Italiana an “numeration of the birds observed by him in the neigh- •ourhood of Bassano, amounting to a hundred and thirtv- tven species. In 1823, Fortunate Luigi Naccari printed .1 Treviso, his Ornilologia Veneta, ossia Catalogo degli jccelli della provincia di Venezia, in which he notices wo hundred and six species. In the same year Savi the ounger published, at Pisa, his Catalogo degli Uccelli del- j i Provincia Pisana, e loro Toscana Sinonimia. The spe- I ies are classed in accordance with M. Temminck’s sys- sm, and amount to two hundred and twenty. From 1819 i 1826, Professor Ranzani of Bologna gave forth his ex- I e lent Elementi di Zoologia, of which the third volume, onsistmg of nine parts, is devoted to the natural history 1 ■ birds. It is, however, a general system, treating of xotic as well as of indigenous kinds ; yet a good deal may e gleaned from it regarding the Italian species. A work more special interest is the Specchio comparativo delle mithologie di Roma e di Filadelfia, by Carlo Bonaparte, ^monly called the Prince of Musignano. In this slight ‘ hlg;hly interesting volume (republished in the Nuovo nornde de Letterati of Pisa), the author compares the ithology of two distant regions of Europe and America, ng, however, under nearly the same latitude, and re- ,11S. observations on their history and manners. Of Jr68 0^, ^oman territory we had previously • e. ^ an7 knowledge, and the Prince makes us ac- v ntecl with not fewer than two hundred and forty- // 'n y the same author we have also Osservazioni a beconda Edizione del Regno Anirnale del Baron Cu- rtWiTe ln the tenth and eleventh fasciculi of the nan di Storia Naturale of Bologna ; and he has more 551 recently commenced the Iconografia della Fauna llalica. History. Rome, 1832,—a sumptuous lithographic work, in large' v'— quarto, devoted to Italian zoology. Not more than half a dozen numbers have as yet appeared, and these contain but few examples of the feathered race. Though not re¬ lating to Italy, we may here mention our author’s other works, viz. American Ornithology, or the Natural History of Birds inhabiting the United States, not given by Wilson fiP1ieS’ 1three volumes 9^0, Philadelphia! 1825-28 (only the land-birds have yet been published) •— .Observations on the Nomenclature of Wilson’s Ornithology, Philadelphia, 1828 ;—and Genera of North American Birds, with a Synopsis of the species found within the territory of the United States, New York, 1828 (published in the An¬ nals of the Lyceum of that city). The birds of Liguria are enumerated and briefly described, particularly the im¬ mature conditions of the plumage, by Girolamo Calvi in his Catalogo d’ Ornitologia di Genova, 1828. The latest but most important work with which we are acquainted on the birds of Italy, is the Ornitologia Tos¬ cana of Professor Savi, in three vols. 8vo, with additional synoptical tables, Pisa, 1827—31. Though more specially’ devoted to the birds of luscany, it also contains descrip¬ tions of all the other Italian species, and may be regarded as a most valuable addition to our knowledge of the feathered tribes of Europe, dhe southern position and de¬ lightful climate of the Italian Peninsula induce the wan¬ dering wings of many species elsewhere rarce aves to wend their way towards the olive groves and richly laden fig- trees of that favoured land,—thus connecting the Ornitho¬ logy of Europe with that of Africa and other sultry re¬ gions. J Me may be thought, in some of our preceding notices, to have entered too minutely into the enumeration of de¬ scriptive local works, but we have been guided in so do¬ ing by two considerations : Is*, That none of our English writers ever make any allusion to Italian Ornithology, ex- cept by casual reference to Carlo Bonaparte; and, ‘idly, that Buffon has recorded as his opinion, that “ le seui moyen d’avancer 1’ornithologie historique, seroit de faire 1 histoire particuliere des oiseaux de chaque pays ; d’abord de ceux d’une seule province, ensuite de ceux d’une pro¬ vince voisine, puis de ceux d’une autre plus eloignee; re- unir apies cela ces histoires particulieres pour composer celle de tous les oiseaux d’une meme climat; faire la meme chose dans tous les pays et dans tous les differens climats; compaier ensuite ces histoires particulieres, les combiner pour en tirer les faits, et former un corps entier de toutes ces parties separees.” 1 The Natural History of British Birds, by Donovan, in ten volumes octavo, is a work of no great merit. Its period of publication extends from 1799 to 1816. To no one of our contemporaries is Ornithology more deeply indebted than to M. Temminck. His Histoire Na- twelle Generaledes Pigeons et des Gallinacees, three volumes octavo, appeared in 1813-15. The portion which concerns the pigeons was also published in folio, with beautiful co¬ loured plates, by Madame Knipp. His Manueld’Ornitho¬ logie, ou Tableau Systematique des Oiseaux qui se trouvent en Europe, 1815, consisted at first of a single octavo volume; but a greatly improved and extended edition in two vo¬ lumes appeared in 1820. Whatever difference of opinion may prevail in regard to the author’s system, naturalists ai e agieed that this is by far the most valuable work we yet possess on the birds of Europe. Its main excellence con¬ sists in the attention bestowed upon the sexual distinc¬ tions, and the successive changes of plumage from youth to age. I he first volume contains, under the title of Ana- 1 Hiitoitc Nat. des Oiseaux, Plan de POuvra^e. w ORNITHOLOGY. * History, lyse du Systlme Generate d'Ornitlwhgk,* c^,sslfic^on°/' a^Mowlyra^^tll ’logons ami, o Synopsis of th^' ' birds in general. Instead o a f r.dBirds of Australia. The latter is in a more portable form the author has recently published (in 183o) a ’ han tlfe others ; but it is the author’s intention to illus. as a supplement to the first volume, and he is n°w abo Ornithology of New Holland in the same mode to give out a fourth part, or supplement to the second ^ ^ in which i,e Ls treated the birds of Europe, lume. These parts contain the corrections and add t ^ M Lesson tiie Ornithologist stands indebted for se- rendered necessary by the lapse of many years tfu . publications, both of a sumptuous and useful charac Temminck has not confined his attenuon to tne m Vhe last edition of his work on humming-birds bears Europe. In 1820 he commenced (m conjunction wi • , ‘ foll()Win,r title: Les Trochilides, ou tes colibris et les Meiffren de Laugier) his Planches Colonees, ajvork smvi dun index general, dans leqml tended as a continuation and completion of the wel decrites et classees methodiquement toutes les races et Planches Enluminees of Buffon. It is printed in both a ^nt^cr^ paris, 1832, with seventy co- quarto and a folio form, now amounts to above nmety especes^ auj^ Conjointly with M. Garnot, he has pub- parts, and will be concluded (so far, at least, lished some figures of birds in the Zoological Atlas to Du- great series is concerned) on the P^bca ion of the hun Mshed ^ ^ ^ weU a§ ^ o dredth number. It will then form five vo u™os, comp d J^oohgie% His other works specially devoted in all of Ired and ninety-five plates, exhibiting en ^ sent subject are,—Manuel d’Ornithologie, two seven hundred and fifty-five figures of birds, tne majmity ^ P 1829 ; Trade d’Ornithologie, two volumes vriters. Each PHte is accompanied by ~ plateA 1831; and Histoue Naturelle des unknown to prior writers. Each plate is accompanieu uy ^ umes^ ^ ^ 183! ; and Hisloire NaturelU des corresponding letter-press, containing tl;e generic charac ^ ^ et des Epimaques, one ters, the description of the species figu , •• • i gvo (with 41 coloured plates), 183o. instances bv general observations on the distribution a Mr S wainson’s beautiful Zoological Illustrations {YmiSe- co’nstruction of groups. The two conclud,„g numbers re i^S, Second^eriesS vol, 8vo 183M) to contain a general index, as well as the ^les and t r entations of many rare and remarkable birds, of the volumes. On the completion of this centmy, we ‘0 none with which we are acquainted, either m trust M. Temminck will be encouraged 10 P^ceed to ano > or accuracy. By the same author (conjointly ther series, as we know his materials are abundant, i g Richardson) we have, as already noted, the Fan- inexhaustible. It would in truth be desira^e na Boreali-Americana, Part Second; and (without other such established work should be generally regarded as a ^ ^ delightful pencil) several fasciculi of the proper medium for the publication of new or rate subj Brazil. More recently Mr Swainson has en- Fn Ornithology, for it is the bane of natural history in e- ^ ^ well as extended exposition of the neral, that every year should be distinguished by the ap^ t^^ H ^ classiJkation 0f Birds, va two vo- pearance of numerous abortive attempts, which each (1836_7)? which form the ornithological portion of feeding season condemns to oblivion. i , ^ Lardner’s Cyclopaedia. These will amply repay the comes both heavy and unproductive, yet we fear that na- ^^aiUentive tional pride and personal vanity will long Prevent t1^ ‘ The birds of South America, which, like all the pro- troduction of a better system. \Ve do not ™ean to say du^‘ons of that splendid country, are extremely gorgeous, that we possess not among ourselves individuals compe liere and there illustrated in various works, tent to do the subject justice, but assuredly there is muc 1 ^ rtia]1 g0 by Mr Swainson in one of those just labour lost by a want of concentration. d ]n Azara’s Voyages dans VAmerique Mendion- In connection with the labours of the !ast-named author, 4th volumes) there are descriptions of we may here mention M. Werner’s lithographic work en- ^ ies from Paraguay and La Plata. The titled Atlas des Oiseaux d Europe, pour ser™Je ornithological portion of the French edition was trans at- ment au Manuel d!Ornithologie de M. of c .1 gonnini#i A great mass of Brazilian thirty-two livraisons have now appeared. M.Temminck had ed,^ and figured in Spix’s ^ ^ figured a few European novelties in his Planches Color , ^ vols. 4t0 1824-26; while the habits of se- but he appears to have remitted most of bis rare mdigenous Aouz,^ ^ curious birds of Demerara are record- kinds Werner ; and we are happy to find he is no e(]\ln Mr Waterton’s eccentric and well-known Wan- immediate communication, so fai as t ic pu > i . , derinqs. , . „t European species is concerned, with our zealous and - ^ Ornithology of North America has been illustrat- ligenFcounFryman Mr Gould. This leads us to record the i‘ieanU™;^ef yfull and satistactory manner. Indeed, title of one of the most sumptuous and beautifully execut feathered tfibes of n0 C0Untry out of Europe, equal ed works within the whole range o orni .10 ogi \ . extent, do we possess so ample and accurate a tion, viz. The Birds if Europe, by John Gouid F.L S we do of those of the United States. \Ve ha e now completed in five volumes royal folio. 1 he plates are E g the immortal WOrk of Alexander WJ chiefly from lithograph drawings by Mrs Gould, but ma y J p nt continuation by Charles Lucien B are also by Mr Lear, one of the best ornithological drafts- son and its exetnen^ c^ ^^ ^ ^ Jrecord the title of a men the world has yet seen. Mr Goulds other works,maglFifiCent publication than either, weje^ preceding^are Birds, from ike Tne Birds of America, eagraoed from D,a«,,g, to his brother, Don Joset iMcolas )vno rmoueu,. uv^ ^Jnfiliolre Naturelle de. Quadruples du Paraguay 2 ^A^^ewise and published under the now wel - m -n tlie followinrr vear with corrections and additions by the author. I Rnen0s AfU; The original, however, appeared at :,i a( h ^ . tfufntos para la Historia Natural de los Pajaros del Parafiay ff,-, MlrU published his ornithological work under the volumes of the French translation, entitled Voyages duns l Am ? ^ 7’ ^ M‘- «• “ H"”,er pn,pos p tn.LWinmlltrits of both works, from the original Spanish, with notes. 7* the United States, by John James Audubon, F. R. S., &c. ••^3 vols. folio, London, 1831-37; an undertaking which far exceeds in size and splendour all its predecessors in this, or indeed in any other department of Zoology. The di¬ mensions of the work, as we have elsewhere noticed, are such as to enable the author not only to represent the largest birds of the United States, of the size and in the attitudes of living nature, but to figure a great proportion of them in family groups, so admirably conceived and skil¬ fully executed, as really to form historical pictures of the highest interest to the general observer, and of the great¬ est utility to the student of Ornithology. The completion of each volume of plates is immediately followed by a lartre octavo volume of descriptive and general history of all the species therein contained. Mr Audubon far excels Wil¬ son as an ornithological draftsman, and often equals him in his lively, eloquent, and interesting details of the life and manners of the feathered tribes. His descriptive vo¬ lumes aie entitled Ornithological Biography, or an Ac¬ count of the Habits of the Birds of the United States. They at present amount to three in number; and a fourth and final one, to accompany the concluding fasciculus of his splendid plates, is now on the eve of publication. An extremely useful and well-concocted work, of less ambitious form than the preceding, is the Manual of the Ornithology of the United Slates and of Canada, by Thomas hiuttall, F. L. S., in two compact octavo volumes, Cambridge and Boston, 1832-34. The author has recent- ly returned from a scientific tour through the great west- ern territories, including an extended range of the Rocky Mountains; and, we doubt not, the public will benefit by whatever account he gives of his researches. Although we have hitherto confined our bibliographical notices chiefly to the works of foreign writers, we have done so not in consequence altogether of our own poverty, but rather for the more ample information of the English reader, who may be supposed to require less assistance in regard to British authors. We have scarcely even named the British Birds of the unequalled Bewick. We name it, and nothing more, believing that every one who de¬ lights to see nature in art, is familiarly acquainted with a work which may be keenly relished without any arduous study, but which those who study most will best appreciate and enjoy. Although the descriptive portion is written with accuracy and intelligence, we doubt not it would be ad¬ vantageous to the author’s family, and prove a labour of ove to one or more of the many skilful Ornithologists of the present day, that the plates should be re-arranged in conformity with modern views, the supplement incorporat- ea, the synonyms increased, and such rational alterations Rrit; l n°nS ,ef^ected’ as would ^nder it the manual of British Ornithology, if not for all time coming, yet for authL’UtT k-6318' , accomPanied by portions of the that °bl0graphy’ 80 much the better* We regret seen th S%racy and oriSlnal> should have not yet ifh -lhc; m0St recent and complete edition of face ?nJ,rda 18 V13t °f 1832- A ver* beautiful pre- ■s piefixed to the one published in 1826. ■ain '! m°5 oriSinal descriptive works on the birds of Bri- jvo jl'e Montagu s , Ornithological Dictionary, 2 vols. fheJ802’ and SuPPlement to the same, 1 vol. 8vo, 1813. ORNITHOLOGY. 553 IW , ro tue same, 1 vol. 8vo, J 813. i hnnlv ^ u0u °n y, excellent works on British birds ,f p y Such’ but valuable additions to the actual history huropeau species,-the chief merit of many of our other eS rrSU,,g in the'"' ,he diereas Mn eign, wmers to our indigenous kinds ; ations HpI n ^ rat ler £ave than borrowed, his obser- ow extrempf 3 m°S.t eat|rely original. His volumes are ombining bntl^^ 'p t-ieir tirst torm ’ but a new edition, Ith notes, by^Mr Rennie WaS br0USht 0Ut in 1831’ VOL. XVI. Dr Flem ing, in his History of British Animals, one vol. History, octavo, 1828, enumerates and describes the birds of Bri-' n. us work, which has been very useful to some who say rather too little about it, we should desire to see a new edition, remodelled in accordance with the altera¬ tions and additions rendered necessary by the lapse of years. It is a publication of great merit. ^ . Tbc letter-press to Mr Selby’s folio Illustrations of Bri- Rvn °^it c9y CT Tan the second edition, in two vols. Svo, 1833) forms the best completed work we yet possess in accordance with the modern method of arrangement Jointly with Sir William Jardine, Mr Selby h^s also brought out many fasciculi of Illustrations of Ornithology (small folio), in which are figured various interesting and curious forms of foreign species; and his well-instructed coadjutor is editor (and of several volumes author) of the JSaturahsts Library, in which a due portion is success- iully devoted to the history and representation of the feathered tribes. Both publications continue at the pre¬ sent time (1838). ^ One of the most valuable and carefully constructed works with which we are acquainted is the Systema Avi¬ um of Dr Wagler, pars prima, Stuttgard, 1827. It con¬ sists of a series of monographs, not in systematic order, biit including several extensive and difficult genera, such as Btcus, Columba, &c. The author unfortunately died not Jong ago, in consequence of a gun-shot wound accidentally inflicted by himself while sporting, and the non-comple¬ tion of Ins work may be regarded as a great loss to Orni¬ thologists. Various additional though detached portions of it, however, may be found in the Isis, a German perio¬ dica published at Frankfort. Wagler is also the author ot the most recent descriptive summary of the parrot tribe, under the title of Monographia Psittacorum, one yo . 4to, Munchen, 1835. Our best previous treatise on that gorgeous family was published by the lamented Kuhl, in the Worn Acta of Bonn, vol. x. Of illustrated works on the subject, we have already mentioned that of Vaillant • and the English reader need scarcely be reminded of the’ extreme beauty of Mr Lear’s more recent Illustrations of Hie Psittacidce, in one vol. royal folio. A considerable flock of ornithological authors has re¬ cently appeared above the horizon, to enlighten, however, rather than obscure our vision. We shall name a few. Outlines of the Smaller British Birds, by R. A. Slanev Esq. 12mo, 1833. y* Familiar History of Birds, by the Rev. Edward Stan¬ ley, 2 vols. 12mo, 1835. Manual of British Vertebrate Animals, by the Rev Leonard Jenyns, 1 vol. Svo, 1835. Feathered Tribes of the British Islands, by Robert Mu- die, 2 vols. Svo, 1836. History of the rarer British Birds, intended as a sup¬ plement to Bewick, by T. C. Eyton, Esq. 1836. Of these, and other contemporary writers, the reader will find more ample notice in Mr Neville Wood’s Orni- thobgists I ext-Booh of 1836. The following works relate particularly to the more mu¬ sical of the feathered tribes : Harmonia Ruralis, or Natu- rfd^storJ of BritishSong Birds, by James Bolton, folio, Hot 'Z>Britlrnk Warblers' by Robert Sweet, F. L. S. 8vo, 1823-32 British Song Birds, by Patrick ™yme,’ ,' S