Mfr Z)f*/? TM " KT t3. MANUAL OF POWER FOR MACHINES, SHAFTS, AND BELTS, WITH THE HISTORY OF COTTON MANUFACTURE IN THE UNITED STATES. BY SAMUEL WEBBEK, C. E. H NEW YORK: D. APPLETON AND COMPANY, 549 AND 551 BROADWAY. 1879. T~S COPYRIGHT BY SAMUEL WEBBER. 1879. V i ' f ' : '/ "' - . ,'.;,. TO HOJST. E. A. STEAW, PRESIDENT OP THE NEW ENGLAND COTTON MANUFACTURERS' ASSOCIATION, THIS COLLECTION OF TESTS, COMMENCED AT HIS BEQUEST, IS RESPECTFULLY DEDICATED, BY THE COMPILER. 337536 PEEFAOE TO EEVISED EDITION. IN preparing for the press a second and enlarged edition of my " Tests of Power," a somewhat more extended preface seems neces- sary, in order to explain what have appeared to many persons to be discrepancies in the first edition, and also to give a short explana- tion of the manner in which the results were attained. The dynamometer used in the great majority of the tests was designed by Hon. E. A. Straw, of Manchester, New Hampshire, on the same principle as the one originally invented by Samuel Batch- elder, Esq., at Saco, Maine, in the year 1836, but contained the modifications of the hydraulic regulator and second transmitting shaft, which were added to the original machine by James B. Fran- cis, C.E., of Lowell. The principle of the machine may be de- scribed as follows : A shaft containing the receiving pulley passes through the fulcrum of a steelyard, having fast on it at the end next the pulley a bevel gear, which forms one side of a " box or compound " gear. On a sleeve at the opposite end of the shaft, and revolving freely around it, are fixed another bevel gear of equal diameter, forming the opposite side of the " box," and a plain gear, which transmits the power to a second shaft parallel with the first, and which carries the delivering pulley, which is thus brought in the same line of transmission as the receiving pulley. Around the steelyard, on either side of the fulcrum, revolve freely two other bevel gears, of equal diameter with those mentioned, which complete the " box " or " compound," and which transmit the mo- VI tion from the first shaft to the sleeve, from which it is given to the second shaft by a pair of equal gears. If the dynamometer is put in motion without attaching any machine to the second shaft, the gears revolve around the steelyard without any other resistance than their own friction, and no effect is recorded ; but if a belt be carried from the delivering pulley to the pulley on any machine, the resistance caused by such machine tends to act upon the steelyard in such a manner as to give it a motion around its fulcrum. This steelyard is made of such length that a weight hung at its extremity would describe a circle of 10 feet each revolution, if the steelyard were allowed to rotate on its fulcrum ; and consequently the 100 revolutions would move 1,000 feet. A set of weights are therefore prepared, which are sufficient to hold the steelyard at a level poise when the power is being trans- mitted through the dynamometer, and each one pound weight is considered to move 1,000 feet in 100 revolutions, or to equal 1,000 pounds moved one foot. The steelyard is also graduated into inches and tenths, and a poise weight prepared, which represents 100 pounds moved one foot in 100 revolutions, for each inch that it is carried out on the steelyard toward its outer end, this poise being 3.84 pounds in actual weight. The weights representing 1,000 pounds are also double the actual weight necessary to represent that sum, as the steelyard would only make 50 revolutions, if left free, while the shaft was making 100. The dynamometer, being fastened in position and belted prop- erly, is put in motion, the machine to be weighed being driven through it ; and the weight necessary to hold the steelyard perfectly level while driving the machine is attached to it in the usual man- ner. When this balance is properly adjusted, the revolutions of the shafts are counted by a clock driven by a worm and gear attached to one of them, and the apparent weight hung on the steelyard is divided by the number of seconds consumed in making 100 revo- lutions. Thus if 11,000 pounds be the marking of the weight hung on the steelyard, and the time of completing 100 revolutions be 10 Vll seconds, the answer to the division is - - = 1,100 pounds lifted a foot in one second, or 2-horse power 550 pounds lifted one foot per second being the equivalent of 33,000 pounds lifted one foot per minute, the established standard of a horse power. The amount of weight necessary to balance the friction of the dynamometer it- self, when in revolution at the desired speed, is first ascertained and deducted before making such divisions, and will average not far from five per cent, of the whole power consumed, but in all cases in these tests has been actually ascertained and deducted in each in- stance. Previous to the commencement of these operations, the dyna- mometer was compared with the one designed by Mr. Francis for the Locks and Canals Company, of Lowell, with which it was found to agree exactly, and was then further verified by over one thou- sand tests with a Prony brake, the friction pulley of which was attached to the machine in the place of the ordinary delivering pul- ley and the arm of the lever loaded with varying weights ; while by a series of pulleys the speed of the dynamometer was changed from time to time, so as to vary from 200 to 1,000 revolutions per minute. During all these tests the steelyard of the dynamometer was found to record accurately the load placed on the brake-lever, plus a certain uniform difference for the friction of the machine, which increased in a regular ratio with the velocity, and agreed very close- ly with the amount of friction observed by running the dynamom- eter without a load, and it was therefore decided to adopt the method of deducting the actual observed friction in every test. The greater part of the tests in the following tables have been taken without any previous preparations of the machines to be weighed, the dynamometer having been attached to them as they were actually in operation in the mills ; but there are some few exceptions which should be noted. All the tests at Manchaug in August, 1871, were of compara- tively new machinery, which was in the best possible order, and had been run just about long enough to get fairly eased in its bearings Vlll and the same remarks will apply to the tests at the Manchester Print Works in June, 1872. The tests at Manville, Ehode Island, were of a new frame in perfect order, kept thoroughly clean and well oiled, but in an unfinished mill, where the atmosphere was damp and cool until the last day of the trials, reference to which will show that the machinery ran with less power on that day ; and the same difference will be noticed in the tests at Mount Yernon Mills, Baltimore, as well as the difference caused by the oils used for lubrication in the same trials. The tests of the Pusey Spindle at Wilmington, Delaware, and those of the Sawyer Spindle at the Appleton Mills, Lowell, were also made under the most favorable circumstances, as were those of the Pearl and Rabbeth Spindles in June, 18T3, at the Pacific Mills, and those of the Kabbeth in March, 1873, at the Potomska Mills. The difference due to cleaning and lubrication will be noticed in the tests of spinning September 25-27, 1873, at the Atlantic Mills, and of the throstle frame, A, at the Stark Mills in April and November, 1871. The difference due to the atmosphere is strikingly shown in the tests of the same spinning frame, August 7th and 8th, 1872, at the Amoskeag Mills. The differences due to banding may be seen in many places, but in none more strikingly than in the tests at the China Mill in March, 1875 ; and those caused by tight belts may be seen in the trials at the Ocean Mills, June, 1873. The matter of banding is one to which it is well worth while to call the attention of spinners, as all tension beyond that actually required to drive the spindle up to its proper speed causes unneces- sary friction in the bearings, and wears out both them and the spindles rapidly. A band should never be tied on so as to be rigid, but should always retain its elasticity ; and the same is true in regard to belts ; and a little extra attention to these matters is always true economy. Geared machines, like drawing, speeders, and fly frames, will not of course show these differences ; but with spinning every detail must be taken into account to prove a correct conclusion as to the IX result. It has also been found impossible to test a single loom with absolute correctness, as the dynamometer tended to register the extreme power of the beat, particularly if the speed was high. It should also be noted that the speed of the mule spindles given is the actual number of revolutions per minute, deducting the time taken up in " running in " the carriage, and not the velocity of the spindle when in operation, and the comparative power of the mules and frames is ascertained by the number of yards of yarn per spindle per minute, as compared with the foot pounds. This in the mule is equal to the length of stretch, multiplied by the number of stretches per minute, and in the frames by the number of revolutions of the front roll, multiplied by 3.1410 or 3^-, the diameter of the front roll being one inch. Taken as a whole, however, the results obtained have agreed remarkably with those obtained by the steam-engine indicator, when the summary of the dynamometer results was compared with the indicator cards of the same mill, after allowing for friction of en- gine, or with the calculation of the effect of the Boyden turbine in cases where water power was used, particularly in the cases shown in the summaries of tests as in mills B and I. In two cases " Swain " Wheels have been put into mills after getting the required power by the dynamometer, namely, the Whittenton Mills at Taunton, and the Clinton Mills at Woonsocket, and in both cases have agreed exactly with the calculations previ- ously made. It should also be mentioned that in some of the mills tested, such as those at Kockport, Newburyport, Gloucester, N". J., Hay- densville, Mass., and the Stark Mills at Manchester, K. H., much or all of the machinery was quite old, and the tests were made to ascertain the actual consumption of power, with a view to future improvements ; while in the tests previously referred to such im- provement had commenced, and the trials were for the purpose of demonstrating the prospective saving to be attained. Such as the records are they are correct, and any apparent dis- crepancies in them are usually explained at once by a full knowl- edge of the circumstances. It should also be remembered that neither very new nor very old machinery can be depended on for a fair average test of the power usually required. In the first case there is a loss of power from extra friction, in the last from extra gyration. Although the greater part of my tests have been confined to cotton machinery, there are a sufficient number of trials of woolen, worsted, and flax machines to give a fair idea of the usual amount of power required to operate them at the usual velocity, together with a short list of machine tools and miscellaneous machinery. Paper machinery has not been tested, for want of a dynamometer of sufficient capacity. To the separate tests of machines, I add in this edition the summaries of all the machines, with the power required by them, in a series of mills on different fabrics, and also tables for shaft- ing and belting; the former calculated from the tables of Mr. James B. Francis, the latter from various authorities, as well as from my own experiments, and at the request of several manu- facturers add the English tables of twist for yarn, and roving, and for the breaking strength of yarns, together with certain convenient rules for calculating drafts and numbers. I also add a corrected report of the turbine tests at the Cen- tennial Exposition, which contained a number of small errors in the official publication, though not enough to invalidate the general result. The work is completed for the present by a historical sketch of the growth and progress of the cotton manufacture in the United States, originally prepared for the American Society of Civil En- gineers, as part of a centennial record of various American indus- tries, but the publication of which has been so long delayed, from various causes, that the officers of the Society have consented to its publication in this form. MANCHESTER, N. H., January, 1879. PEEFAOE. THESE tests, undertaken without any view to publication, may be found deficient in some points ; but may be depended on as correct, as far as they go. They give a representation of the power required by cotton- machinery, as actually in use, under various circumstances, in a large number of mills: some of it new, and in the best run- ning order ; some of it very old, and tested with a view to ascertain how much power was lost by using it. Part of the tests have been made to ascertain the variations due to weather, oil, and banding; but the writer believes that the notes will explain sufficiently these different points, and trusts that the information contained, as to the average power actually used, will be of sufficient value to manufacturers to justify their publication. TABLE OF CONTENTS. PART I. PAGES EXPLANATORY PREFACE 3 Power Tests of Cotton Openers and Pickers 12, 66 " " Cards 16,59 " Railway Heads 18, 69 " Drawing Frames ,. 20, 69 " Roving Frames 22, 60 " " Throstle Spinning 28 " Ring Spinning, Common Spindle 30, 62 " " " Sawyer " 34, 66 " " " Pearl " 36, 68 " " < Rabbeth " 36,70 " " " Birkenhead 38, 70 " " " Excelsior " 38, 70 " " " Perry " 42,70 " " Pusey " 42 " " " Miscellaneous Spindles 70 " " MuleSpinning 44,72 " " Spoolers 48,73 " " Twisters 48,72 " " Warpers 48,73 " " Dressers 48, 73 " " Looms 46,74 " of Miscellaneous Machinery and Tools 49, 78 " of Flax Machinery 60, 72 of Wool " 50, 74 " of Worsted " 79 " of Shafting 62 of Mills in full 78 Rules and Tables for Shafting 88 " " Belting 95 Turbine Wheel Tests 101 Roving and Yarn Tables 115 XIV PART II. CHAPTER I. PAGE Commencement of Cotton Manufacture by Machinery Arkwright Paul Har- greaves Crompton Wyatt 1 CHAPTER II. First attempts in the United States Bridgewater Beverly Philadelphia Rhode Island, etc 1 CHAPTER III. Samuel Slater Almy and Brown Eli Whitney Pliny Earle Amos Whittemore. . 16 CHAPTER IV. 1800 to 1812 Rapid Growth Pawtucket Paterson Watertown New Ipswich, N. H. Samuel Batchelder Peterborough, N. H. Amoskeag Falls General Statistics 1 810 21 CHAPTER V. Nathan Appleton Power Looms Francis C. Lowell Patrick T. Jackson Paul Moody Waltham The New England System 28 CHAPTER VI. 1812 Beginning at Fall River Paterson Ludlow North Adams Matteawan William Gilmore Power Looms Ira Draper Rotary Temple Statistics 1820 34 CHAPTER VII. 1821 Origin of Lowell Kirk Boott Nathan Appleton Paul Moody Francis C. Lowell John D. Prince Samuel L. Dana Merrimac Manufacturing Company Hamilton Company Appleton Company Samuel Batchelder First Mill driven by main belts by Paul Moody Nashua Dover Chicopee Tariff of 1824 A. & A. Lawrence Aza Arnold Equation Box Saco Cohoes Tariff of 1828 Danforth's Cap-Spindle 39 CHAPTER VIII. Ring-Spinning John Thorpe William Mason Brewster's Speeder York Manu- facturing Company Samuel Batchelder Balance Dynamometer Cotton Crop of 1834 Boston & Lowell Railroad Patent Office established Newburyport Amoskeag Company Stark Mills E. B. Bigelow Counterpane Loom Sta- tistics 1840 47 CHAPTER IX. Self -Acting Mule Ira Gay Pitcher & Brown William Mason Richard Roberts William C. Davo Smith Mule Higgins Mule Potter Mule Parr & Curtis Platt Brothers Wanton Rouse English Roving Frames Higgins & Sons XV First Turbine Wheels Uriah A. Boyden Lawrence Essex Company Atlan- tic Mills E. B. Bigelow Gingham Loom Increase in size of Mills Produc- tion 1850 52 CHAPTER X. Iladley Falls Company Holyoke Lewiston Rapid Growth to 1857 Self-Stripping Card George Wellman Horace Woodman Bag Loom Cyrus W. Baldwin Picker Staff W. W. Dutcher Railway Evener D. W. Hayden George Dra- per Pembertou Mills Census of 1860 Progress of Ten Years 58 CHAPTER XI. The Great Rebellion of 1861 Prostration of Business Close of the War Revival of Manufactures, and enormous increase " Slasher" Dresser Introduced by A. D. Lockwood Improvements in Ring Spindles Oliver Pearl Jacob H. Saw- yer George Draper Richard Garsed Barton H. Jenks F. J. Rabbeth Open- ing and Picking Creighton Willow Richard Kitson Whitehead & Atherton Palmer & Jillson Great Increase at Fall River New Mills in New England and the Southern States 63 CHAPTER XII. Statistics of 1874 Calico Printing-Machines in 1876 Ginghams Cottouades Cot- ton Duck Spool-Cotton Small Wares Statistics of 1876" Lowell Lawrence Manchester Lewiston Fall River Comparative cost of Water and Steam- Power Water-Wheels at the Centennial Letter of Edward Atkinson to New York " Herald " 75 SUPPLEMENTARY CHAPTER. The Cotton Manufacture as illustrated at the Centennial Exhibition 89 APPENDICES. A. Paper by William A. Burke, Esq 95 B. Letter of Aza Arnold.. 102 12 TESTS OF POWER. COTTON-OPENERS, DATE. PLACE, MACHINE. No. Beaters. Rev. do. May, 1871 ( Amoskeag Mills, [ 1 Manches'r, N. K. f Double Creighton Willow, 2 946 " 1872 \ MasconometMill, } | Newburyport, f Single " " 1 820 " 1871 Amoskeag Mills, Van Winkle Opener, 1 520 u u u u u u a 1 532 Aug., 1871 Manchaag Mill, Mass. Kitson's " Old Pattern," 2 1,344 May, 1872 Eockport Mill, ' " a a u 2 1,400 u u u u u Kitson's Mixer, 1 750 Nov. 1873 Tremont Mills, f Whitehe'd & Atherton, ) 1 700 a u Lowell, Mass., \ New Mixer. \ 1 700 POWER OP COTTON-PICKERS. DATE. PLACE. MACHINE. No. Beaters. Revolution Beaters. May, 1871 Amoskeag Mills, ) 36 inch Amoskeag Pattern 3 1,507 j Manchester, N. H. > u u u 2 1,026 u " S Whitin's Pattern,* 3 1,617 June, 1871 Derry Mills, Manch'r Whitin's Lapper, 30 inch. 2 2,045 May, 1872 Rockport, Mass., u u 48 u 3 1,500 April, 1873 j "Social" Mill, } ( Woon socket, ) " " 30 " 3 1,500 a a " " 30 " 3 2,100 April, 1872 Salmon Falls, N. H., Platt's *' 36 " 2 1,100 May, 1872 j Masconomet, ) i Newburyport, ) u u ^g tt 2 1,016 u a It tt ^g U 2 1,066 Nov., 1873 Granite Mill, F.Riv'r " " 36 " 2 1,130 u u 36 <( 2 1,130 Aug., 1871 Mauchaug, Mass., Kitson's " 2 1,344 Jan., 1872 j Whittenton, ) 1 Tannton, Mass., j u a 2 1,530 Nov., 1872 j Essex Mill, Pat- ) ( erson, N. J., ) u u 2 1,066 Nov., 1873 Westville, Taunton, u a 2 1,500 May, 1873 Manchester Print Works, Kitson's Compound, 4 1,500 u Weetamoe Mill, Fall River, " Lapper, 2 1,500 Oct., 1873 Merrimac Manfg. ) Co., Lowell, f " Compound, 4 1,600 a u (i U 4 1,600 a u u a 3 1,600 NOTE. Ft. Ibs., in all cses in this book, refers to Ibs. lifted 1 ft. cer second. 550 of which = 1. H. P. * Built at Amoskeag Shop. 13 DELIVERING COTTON LOOSE ON FLOOR. No. Pans. Rev. do. Lbs. Cott'n per Day. Ft. Lbs. per sec. Horse- Power. REMARKS. 1 1,420 5,000 6,868 12.488 Counter-shaft included j g^^'p 1 1,183 3,000 2,971 5.402 u 1 1,155 2,000 891 1.620 1 1,360 3,000 1,149 2.090 a u 2 J 1,456 \ 1,620 3,200 3,298 5.996 Cotton blown through long dust-box. 2 1,600 3,000 3,151 5.730 " previously opened in mixer " 1 750 3,000 697 1.258 " delivered to last machine. 1 TOO 8,330 3,490 6.345 1 TOO 10,900 3,679 6.689 DELIVERING COTTON IN LAP. No. Fans. Revolution Fans. Lbs. Cott'n per Day. Wt. Lap per Yd. Ft. Lbs. per Sec. Horse- Power. REMARKS. 8 1 822 1 000 2,670 4.860 1st Picker. 2 Beat's & Fans=2,024=3.68 2 1,200 1,000 1,676 3.048 2d " without Feed-motion=2.487 1 1 560 1 000 1 622 2.950 2d " " " 2 252 1 2,000 600 1,387 2.395 1st " 1 870 1,500 2,769 5.034 2d " 9, 3,487 6.340 1st " & Hayden Trunk & Dust-box. 1 2,703 4.914 2d " 9, 1,600 2,486 4.520 1st " 9, 1,354 2,667 4.848 1st " without Feed =3.584 9, 1 421 2,511 4.566 2d " 2 1,507 10| oz. 3,237 5.886 1st " without Feed =3.885 9, 1 507 3,441 6.256 2d " 9, 1 456 1 200 2,080 3.776 1st " without Feed =2.976 9, 1,668 2,514 4.571 2d " 2 1,177 1,867 3.394 2d " with Evener. 2 1,500 2,000 11 OZ. 2,830 5.145 2d " 3 i 2. 1,500 1. 2,000 2,000 8 oz. 6,025 10.954 1st " 2 1,500 .... 12 oz. 3,045 5.536 2d " with Evener. 3 I 2. 1,600 1. 2,100 3,300 11 oz. 6,807 12.360 1st " on previously-opened Cotton. 8 u 5,795 10.530 1st " same Machine without Cotton. 2 i 1. 1,600 1. 2,100 3,897 7.086 1st " " 1 Beater and Fan stopped 14 COTTON OPENERS AND LAPPERS. DATE. PLACE. MACHINE. No. Beaters. Revolution Beaters. Oct., 1873 j Merrimac Mnfg. ) ( Co., Lowell, f Kitson's Compound, 4 1,600 . tt it tt tt 4 1,600 u tt tt tt 4 1,380 u u (t tt 4 1,380 (i u ( "Broken" Beaters, ) 4 1 1. 950 2. 1,380 u j Whittenton Mills,) j Kitson Compound, Old { 43 .... ( Taunton, f i Style, ? j 1,390 (t f Same Machine, 1st pair ' Beaters removed, and Mar., 1874 tt 1.24 in. Whipper Cyl- inder substituted by 1 1. 1,000 2. 1,390 Whitehead & Ather- ton, 1,000 rev. p. min. ( 1.24 inch " Broken " ) . 11 nnn M (C < Beater substituted for [ ( Whipper, by Kitson, ) M . 1,UUU 2. 1,390 15 COTTON LAPPERS (Continued). No. Fans. Revolution Fans. Lbs. Cott'n per Day. Wt.Lap per Yd. Ft. Lbs. per Sec. Horse- Power. REMABKS. ..{ 2. 1,600 1. 2,100 5,000 19^ OZ. 7,333 13.33 1st Trial, A. M., Heavy Lap. I 2. 1,600 1. 2,100 5,000 19|- OZ. 7,414 13.48 2d " P.M., | 3| 2. 1,380 1. 1,850 3,000 11 OZ. 4,815 8.75 Speed reduced. t H 2. 1,380 1. 1,850 .... 3,889 7.07 11 without Cotton passing. 1 '{ l! 1^850 4,500 18 oz. 5,864 10.66 Speed same, Lap increased. 1 2 1,700 2,250 8 oz. 3,744 6.80 " regular, following last machine. f 2 1,700 .... .... 2,615 4.755 " " without Cotton. E P< 2 1,550 2,300 10 oz. 2,923 5.315 " reduced. Lap heavier. 2 1,550 .... .... 2,141 3.891 " " without Cotton. ~ 2 1,400 1,750 8Joz. 2,410 4.382 " further reduced. 2 1,400 1,667 3.080 " " " without Cotton. . 3 1,380 4,200 12| oz. 8,871 16.128 2 Trials on Cotton from Bale. 3 1,500 3,540 llf oz. 8,518 15.487 1 Trial " 3 1,500 .... .... 7,106 12.92 1 Trial without Cotton " 3 1,300 3,260 13 oz. 4,482 8.15 Taken as running " 3 1,300 3,600 13 oz. 4,623 8.407 U '11 U 3 1,300 4,080 14| oz. 4,448 8.085 11 (1 U 3 1,300 .... .... 3,918 7.123 Without Cotton. 3 i 2. 1,500 1. 2,000 12 oz. 5,116 9.300 Opened Cotton, 1 Scratcher, 2 Beaters. 2 1,500 8 oz. 3,687 6.70 Following Jast Machine. 2 1,500 2,000 11 oz. 2,830 5.145 2d Picker. 3 1,380 3,930 16 oz. 4,383 7.969 1st Picker, working Cotton from Bale. 3 1,380 3,600 12 oz. 5,883 10.607 U It it 3 1,380 3,840 13 oz. 5,674 10.318 U 11 U 3 1,380 .... .... 4,590 8.346 " without Cotton. j 1. 1,730 4,800 14 oz. 4,525 8.228 " working Cotton from Bale. ( 2. 1,380 .... 3,282 5.950 " without Cotton. 1,390 3,300 15 oz. 8,142 14.805 Work'g Bl'k Cotton, dyed after Card'g. 6,047 9.177 Without Cotton. 1. 1,000 3,906 7.102 3 ( 2. 1,390 3',350 15 oz. 6,308 11.505 Work'g Black Cotton, as at above test 4,420 19^ oz. 5,000 9.091 Working White Cotton from Bale. < 1. 1,000 3,691 6.711 Without Cotton. 3 i 2. 1,390 3^300 15 oz. 6,588 11.978 Working Dyed Cotton, as before. 16 COTTON CARDS. DATE. PLACE. DESCRIPTION. S | Kevol'n Lb. Cot. per Day. June, 1871 j Derry MiUs, Man- { \ Chester, N. H., ) Hand-Stripper, 30 116 30 u j Amoskeag Mills, j. "j Manches'r, N. H., ) Self-Stripper, 36 110 36 Aug., 1871 Mauchaug, Mass., Saco W. P. Co. " Breaker, 36 128 40 it u u " " Finisher, 36 128 40 Jan., 1872 Whittenton, Taunton, Mason's Breaker, 30 127 . . 'a tt n " Self-Stripper, Finisher, 36 120 n It tt " " Breaker, 36 120 . . tt It it " " Single, 36 120 . . Mar., 1872 April, 1872 Haydensville, Mass., Salmon Falls, N. H., Whitin's Self-Stripper, Saco W. P. Co. " Breaker, 36 36 120 125 it it tt " " Finisher, 36 125 . . May, 1872 Rockport, Mass., Whitin's Breaker, 48 137 u u tt SacoW. P. Co. S. S. Finsh'r, 36 123 . . it Masconomet Mill, Mason's Breaker, 24 133 Newburyport, Mass., Saco W. P. Co. Finisher, 36 127 June, 1872 j Manchester Print [ 1 Works, N. H., y a a u 36 120 27 Nov., 1872 j Essex Mill, Pat- ) ( erson, N. J., f Howard & Bullough, 36 115 76 Apr., 1873 Clinton Mill, Mason's Cylinder, Wood, 30 130 Woonsocket, Mass., " " Iron, 30 132 May, 1873 Weetamoe, F. Kiver, J. Pettee, Single, 36 120 Nov., 1873 Granite, " Davol & Co., 36 136 June, 1873 j Ocean Mill, New- ) { buryport, ) Saco W. P. Co. Self-Strip'r, 36 125 u a u u 36 125 u n (( (C 36 125 Sept., 1873 Atlantic Mills, Lowell Ma. Shop, " 36 130 65 u Lawrence, Mass., u u 36 130 65 u u It it 36 130 65 u u tl tl 36 130 65 u u It tt 36 130 45 Nov., 1873 Westville, Taunton, Mason, 36 156 36 COTTON CARDS (Continued). Ft. Lbs. per Sec. Horse- Power. No. per Railw'y. H. P. of Railw'y- Total H. P. Cards per H.P. REMARKS. 44.85 .081 6 10 0.585 1.40 7.14 Single Carding for Hosiery, old. 78.92 .144 11 0.645 2.229 5. " Tickings. 46.92 .085 52 1.437 5.857 8.88 2 Tests, Double Carding for fine Cambrics. 70.77 .129 13 .530 2.207 5.89 98. .178 28 .806 5.790 4.83 Hand-Stripper, very old. 62. .112 10 .361 1.481 6.75 80. .145 22 1.016 4.206 5.23 80. .145 11 .380 1.975 5.57 YO. .126 9 .253 1.387 6.47 Single Carding. 50.58 .093 64 1.020 6.972 9.18 Double " 50.58 .093 16 .233 1.721 8.26 u u 201.36 .366 48 1.794 5.088 2.48 Hand-Stripper, old. 85. .155 12 .361 2.221 5.40 Self 105. .191 68 2.539 15.527 4.40 Hand-Stripper, Old. 147. .268 11 .512 3.460 3.18 Self 40. .073 12 .601 1.477 8.12 U U 280. .527 . . .... .... 1.90 Single Card, Coiler, 8 W'kers & Strip're , 158. .288 24 .247 7.159 3.35 Hand-Stripper, Breaker, old. 113.21 .206 12 .507 2.979 4.03 Self " , Finisher, " 120. .218 12 *.667 3.283 3.66 H tt 92. .167 15 .689 3.194 4.70 63.57 .116 10 .430 1.530 6.29 Single Carding. 66.07 .120 32 1.535 5.375 6. Breaker. 65. .118 8 .354 1.298 6.16 Finisher. 150. .273 60 2.267 18.647 3.28 Breaker. 143.75 .261 60 2.267 17.927 3.35 u 189.13 .253 9 .906 3.183 2.83 Finisher. 125.22 .228 9 .906 2.958 3.04 " 82.92 .151 9 .906 2.265 3.97 H 76.74 .139* 11 .803 2.337 4.71 Single Carding. * Estimated. 18 RAILWAY-HEADS FOR CARDS. DATE. PLACE. DESCRIPTION. June, 1871 Amoskeag Mills, K H., Breaker, Lap-Head, August, 1871 Manchaug Mills, Mass., U 11 January, 1872 Whittenton Mills, Mass., u u tt u ft u u It U May, " Salmon Falls, ST. H., u u u tt Eockport, Mass., u u a tt Masconomet, Newburyport, Mass., u u June, " Manchester Print Works, K H., a u April, 1873 Clinton Mill, Woonsocket, R. I., a a June, " Ocean Mill, Newburyport, Mass., u u September, " Atlantic Mill, Lawrence, Mass., U (( June, 1871 Berry Mill, Manchester, N. H., Finisher Railway, t( a Amoskeag Mills, Manchester, N". H., it tt u u a a tt a tt tt August, " Manchaug Mills, Mass., tt u January, 1872 Whittenton, Taunton, Mass., tt tt March, " Haydensville, Mass., tt U u u Salmon Falls, K H., tt 11 May, Rockport, Mass., tt u tt tt Masconomet, Newburyport, Mass., tt U June, " Manchester Print Works, N. H., tt (i April, 1873 Clinton Mill, Woonsocket, R. I., It U June, " Ocean Mill, Newburyport, Mass., tt U ft u a u u tt U September, " Atlantic, Lawrence, Mass., tt <( November, " Granite, Fall River, Mass., tt (( U U Westville, Taunton, " tt (( U U u u tt tt 19 RAILWAY-HEADS FOR CARDS. No. of Cards. Diameter of Roll Velocity of Boll. Ft. Ib. per Sec. Horse-Power. 32 9 inches. 10 yds. per min. 578. 1.051 52 u 9.42 " " 790. 1.437 28 u 10. " " 443. .806 22 u 10. " " 559. 1.016 64 u 7.33 " " 560. 1.020 48, 48in a 10. " " 987. 1.794 68, 24in a 11. " " 1396. 2.539 36 n 10. " " 519. .944 24 Can. 11.66 " " 135.76 .247 32 9 inches. 12. " " 844. 1.555 60 5 inches. 14:5 " " 1247. 2.267 10 1 inches. 320 revolutions. 321. .585 11 u 400 " 395. .716 11 u 378 " - 361. .656 13 u 290 " 291.46 .530 10 u 302 " 188. .361 9 it 220 " 139. .253 8 7. 40. " 714. 3.50 1.298 157. tt tt tt 7. 40. " 1190. 5.83 2.163 94.2 " Mill still very cold and damp. 7. 40. " 953. 4.67 1.733 118. tt tt tt tt 7. 40. ' 834. 4.09 1.517 134.5 tt it tt tt 7. 40. ' 733.33 3.59 1.333 153. tt tt tt ' .it 7. 40. ' 573.5 2.81 1.053 195. it tt tt tt 7. 40. ' 1283.33 6.28 2.333 87.5 " Warm day. WindS.W. 7. 40. ' 983.6 4.82 1.788 114. tt tt it 7. 40. ' 833.33 4.08 1.515 135. tt tt tt 7. 40. 743.33 3.64 1.351 151. tt it tt 7. 40. ' 643.33 3.15 1.190 175. tt n 7. 40. " 500. 2.45 .909 224. tt tt 4. 36. weft. 640. 3.14 1.165 175. Empty Bobbin. 4. 36. " 656.25 3.21 1.193 171. Pull 1. 1. 6.50 wp 6.50 " 607.43 4.60 700.33 5.21 1.104 1.274 lAv. {ill. Empty Bobbin j. Avera ge, 4.95 Ib, per Spindle. 1. 6.50 " 319. 2.42 .580 228. tt 42 RING-SPINNING. ( Continued.) DATE. PLACE. MAKER. !' ss No. Spin. Wt. Spin. Rev. Spindle. Rev. Roll. Draft June, 1872 Amosk'g Mills, Amoskeag Co., liin 128 .... 5,154 61 7.68 u (i u u 128 .... 6,187 68 7.68 u u u u 128 .... 3,506 74 9.35 Oct., 1872 u u u 128' ... 3,090 66 9.35 u a u u 128 .... 4,050 82 9.35 n u a u 128 .... 5,672 115 9.35 n u u a 144 .... 4,600 70 7.26 (( u a u 144 .... 5,250 77 7.26 u U <( 144 .... 6,127 90 7.26 u u u a 144 .... 7,355 107 7.26 Feb., 1874 a (I u 144 .... 5,004 66 7.26 a u u 144 .... 5,700 75 7.26 u a a u 144 .... 6,316 83 7.26 u a u 144 7,384 97 7.26 u tt u 144 .... 8,380 110 7.26 PUSEY SPINDLE. Jan., 1874 Clipper Mill, Pusey Bros., Wil- 2 Jin 132 .... 3,132 108 4. u Baltimore, Md., mington, Del., u 132 .... 3,132 108 4. u Wilmington, Del., If in 132 .... 6,026 84 8.86 u u u u 132 .... 6,026 84 8.86 u (( (i u 132 .... 7,030 98 8.86 u (t 11 11 132 7,030 98 8.86 43 PERRY SPINDLE (Dead). From To Ft. Lb. Frame. .0* j.2 & H. P. Frame. Spindl's H.P. KEMAEKS. 4.42 4.42 34 warp 34 " 493. 608. 3.85 4.75 .896 1.106 143. 116. Bobbin half full. Set on Whorl which revolves around Spindle, the latter free to move. Bobbin half full. 1.50 14 weft. 339. 2.65 .616 208. u u 1.50 14 " 811. 2.43 .565 226. u u 1.50 14 " 440. 3.44 .801 160. 1.50 14 " 669. 5.23 1.217 105. u u 3.30 24 warp 439. 3.05 .800 180. (t (i 3.30 24 " 518. 3.60 .941 153. " " 3.30 24 " 716. 4.97 1.202 110. 11 u 3.30 24 " 956. 6.64 1.738 83. it it 3.30 24 " 437.5 3.04 .795 181. it it 3.30 24 " 514. 3.57 .935 155. it tt 3.30 24 " 639. 4.44 1.162 124. it ii 3.30 24 " 804. 5.58 1.462 98. tt ii 3.SO 24 " 1000. 7. 1.818 78.5 ii 11 ^ (Dead.) 0.75 3 warp 1145.84 8.08 2.083-1 Av. ( Empty Bobbin. A 0.75 3 " 1218.75 9.23 2.216J 67. (Full " =8oz. Yam. 2.25 20 " 404.35 3.06 .735-1 Av. (Empty " 2.25 20 " 525.22 3.98 .955 J 156.25 (Full " =2oz. " 2.25 20 u 521.21 3.96 .949-1 Av. (Empty " 2.25 20 " 712.80 5.40 1.278J 123.5 (Full " = 2oz. " A Bobbin placed on a tube which revolves around Spindle. 44 MULE-SPINNING. DATE. PLACE. DESCRIPTION. No. Spin. Ac. Rev. Spindle. St'ch. Sec. St'ch, July, 1871 Amosk'g Mill, N.H. 1 pair Smith Mules, 896 4,500 65 in 19* u Langdon, " ( 1 Saco W. P. Co. Im- \ proved Sharpe & Eoberts 704 5,000 60 19. Aug., 1871 Manchaug, Mass., j 1 Saco W. P. Co. Cur- ( tis, Parr & Madely. 696 5,000 64 22. a u u u u 552 5,000 64 22. Sept., 1871 Wauregan, Conn., 1 Curtis, Parr & Madely, 696 4,860 62 21.66 a u u j 1 Marvel & Davol, 1 Sharpe & Eoberts, 516 4,560 61 21. Aug., 1871 Manchaug, Mass., 1 Wm. Mason & Co., old, 832 4,170 60 19.33 Sept., 1871 Durfee Mills, j 1 Win. Mason & Co., Warp T 5 T Gau., new. 768 4,600 60 18. 1 1 Wm. Mason & Co., 1^ u Fall Eiver, Mass., < Gauge, 5 months old, 768 4,600 60 18. ( 1 T V oz. warp, Jan., 1873 j Whittenton, ( Taunton, Mass., iWm. Mason, " " " 576 3,000 60 18. Mar., 1873 Haydensville, Mass. 1 u 1 Gauge, 468 4,200 60 17.5 Apr., 1873 Salmon Falls, K H. 1 Saco W. P. Co., S. & E., 560 3,850 60 17. a j Appleton Mills, Lowell, 1 Platt Bros. -If Gauge, 600 2,460 64 15.5 u u Same Mule, Twist ch'd, 600 3,220 64 17.5 May, 1873 Eockport, Mass., j 1 Franklin Foundery, ( Geared Mule, 600 3,470 60 23.33 u u u i 1 Saco W. P. Co., F. F. \ Pattern, 544 3,850 60 18. u Masconomet Mill, 1 Wm. Mason, 1 J Ga., old, 480 3,690 60 19.5 u Newburyp't, Mass., a u u 572 3,690 60 19.5 Nov., 1873 ( Essex, Paterson, i N. j., 1 Curtis, Parr & Co., If inch Gauge. 704 3,700 63 22. u u Marvel, Davol & Co., 1 inch Gauge, 600 3,550 60 18. Mar., 1873 Granite Mill, F. E., j 1 Platt Bros. & Co. If ga. 1 warp. 552 4,713 64 19. Nov., 1873 u u tt Same Mule, 552 5,300 64 17. Mar., 1873 Slade " " 1 Mason, 1^- Gau. warp, 556 4,480 60 18. May, 1873 Weetamoe, " 1 Parr & Curtis 1-^g- ga. wp. 544 5,106 63 17. u u a 1 i^. we f. 600 4,113 63 17. Nov., 1873 Westville, Taunton, 1 Wm. Mason 1 " " 480 3,100 60 18. 45 MULE-SPINNING. Draft. From To START. DRAFT & TWIST BACKING. Average Ft. Lb. Lb. per Spindle. Average H. P? Spindles perH.P. Sec. Ft. Lb. Sec. Ft. Lb. Sec. FtLb 8.99 3.33 30. weft. * * * * * * 1,472 1.64 2.677 335. 7.17 4.76 33. " 2. 1,604 12 1,185 5 349 1,146 1.63 2.084 338. 8.74 5.95 52. " 4. 2,912 14 1,912 4 912 1,912 2.75 3.476 200. JA 8.74 5.95 52. " 4. 2,772 14 1,772 4 772 1,772 3.21 3.222 173. ' A 8.71 7. 58. " 4. 2,701 13 66 1,701 4 701 1,701 2.59 3.093 225. 9.15 4.33 40. " 3. 2,220 13 1,660 5 600 1,660 3.22 3.019 171. B 8.40 4. 36. " 3. 2,579 13 1,592 5 605 1,592 1.91 2.895 287. 7.70 3.85 29. warp. 2. 2,918 -S 9 la 1,839 1,153 ' 5 388 1,486 1.93 2.702 284.1 7.70 3.85 29. " 2. 2,892 (2 1,842 . 1,114 5 383 1,473 1.92 2.678 u 287. j , 8.50 2. 17. weft. 12 1,050 6 478 859 1.46 1.562 370. 27. " II 6 1,235 6 374 941 2.00 1.710 8.56 3.62 31. " 2. 1,536 I 1 ? '627 f 4 400 955 1.70 1.736 322. 8. 1.65 13. " 2.5 2,512 9 2,078 4 813 1,700 2.83 3.091 194. ( Q o Knq ) - 7.95 1.65 12.50 wp 2.5 2,946 1 ta Zf.vUO f 1,742 f 4 813 2,031 3.38 3.693 163. 7. 3.80 26. weft. 4.33 1,647 14 1,314 5 368 1.173 1.9/6 2.133 281. 7.21 3.80 32. " 3- 1,694 10 1,254 5 444 1,102 2.03 2.004 272. 8.25 4.50 36. " 2. 1,560 12 5 1,357 5 372 1,124 2.34 2.045 235. ) c 8.25 4.50 36. " 2. 1,613 12 5 1,405 5 421 1,174 2.29 2.135 240. f 7.30 4. 30. warp. 2. 2.244 15 1,625 5 475 1,404 2. 2.533 275- 8.10 3.33 30. weft. 1. 1,207 12 873 5 367 734 1.225 1.335 450. 7.47 3.88 29. warp. 3. 3,104 11 2,195 5 695 1,944 3.525 3.535 156. D 7.47 3.88 29. " 3. 3,127 9 2,217 5 854 1,977 3.58 3.594 153.2 7.50 3.80 28. " 3. 1,967 8 1,517 7 363 1,099 1.976 1.998 279. 7.15 4.15 29.5 " 2. 2,620 10 2,046 5 517 1,664 3.06 3.025 180. 8.43 4.15 35. weft. 2. 2,093 10 1,512 5 465 1,257 2.10 2.287 262. 10.77 1.95 21. " 2. 1,009 10 855 6 309 690 1.46 1.255 382.5 * Mules balanced each other. t Companion Mules. A Mules rather new and stiff. B Mules old and not quite level. c Mules quite old. j> Belt new and slipped. Not up to proper speed. 46 COTTON-LOOMS. DATS. PLACE. DESCRIPTION. 1 ^ No. Warp No. Weft. Picks Clo'h per inch. Picks p.min. April, 1871 Stark Mills, Lowell M. S., Sheeting inches. 36 16. 16 56 X48 128 June, 1871 Amoskeag Mills, Amosk'g Co., Ticking, 28 10. .... 48 X 50 118 a u " Print Cloth, 28^ 30. 33 64 X 64 120 July, 1871 u " Fine Sheeting, 40 24. 30 64 x 80 125 a u U U 49 24. 30 it 120 a (( u u 60 24. 30 n 116 a 11 u u 100 24. 30 it 70 it tl " Fancy Gingham 28 13.5 16 56 x 56 82 <( u " " [Goods, 28 24. 28 a 94 a u "simple Check" 28 24. 28 a 94 Aug., 1871 Manchauff, SacoW.P.Co.Plain " 37 46. 52 140 a u n ct u 37 46. 52 138 Wood Boxes, ) 175 6260. 11.383 n n tt tt do. do. in Iron " 175 5263. 9.57 n u tt tt Stone in Eevolution alone, 175 2807. 5.103 t 1 Stone, 3 ft. 10 in. Diam., it n u ti < 11 in. Face, grinding in ( Wood Boxes. 229 4300. 7.810 U tl tt tt j 1 do., 2 ft. 8 in. Diam., 12 in. 229 3645. 6.627 \ Face, grind, in Wood Boxes, u tt n it j 1 Polishing Wh'l, 1 ft. Diam., 1,320 658. 1.200 \ 3 in. face, on Axes. 50 FLAX MACHINERY. DATE. PLACE. DESCRIPTION. SIZE. April, 1871 Stark Mills, Man- 1 1st Drawing-Frame, " Tow," 4 Deliveries, u it chester, N. H., 1 2d " " 6 " u 11 11 u 1 Eoving Frame, 1 Fairbairn's Spinning Fra. " 48 Spindles, 108 " u tt (4 1 Long Line Spreader, "Flax," 1 Delivery, u it " 1 " 1st Drawing, " 2 Deliveries, it tt *' 1 " 2d " u 6 " it tt U 1 " Koving Frame, " 48 Spindles, it tt " 1 Fairbairn's Wet Spinning-Frame 116 " tt tt " 116 " Nov., 1872 tt tt Arkwright Mills, Paterson, N. J., 1 Long Line Spreader, 1 2d Drawing-Frame, 1 Delivery, 3 Deliveries, tt n u 1 Roving-Frame, 40 Spindles, it tt a 1 Wet Spinning,. 96 " tt tt it 1 Twine-Polisher, Ordi'ry Pressure, n it u it Ex. Heavy " WOOL MACHINERY. WOOL-CARDS. DATE. PLACE. DESOKIPTION. Width. Diam. Eevolu. Ft. Lb. H.P. C 1 Davis & Fur- Jan., 1871 Derry Mills, -< ber 2d Breaker, 40 48 in. 96 500 .910 ( 6 Workers. Oct., 1871 Manchester P.W. j 1 Double Oylin. { Card, 10 Work., 40 48 " 130 700 1.273 - head Whipper put 3 { 1. 24 in. 2. 16 in. 1,000 1,390 in place, I Same Machine, Tooth- ) 1O 4 l-n u < j ed Beater substitut- > 3 . z4 in. 1,390 ( ed by Kitson, ) 2. 16 in. u ( Same Machine, 4 ) j Bladed Beater in J 3 \ 1. 24 in. 933 ( place of Tooth'd Btr., \ ] 2. 16 in. 1,390 April, 1874 ( Stark Mills, ) ( Manchester, J \ 1. Kitson Compound, ) ( Regular Pattern, J * \ 2. 12 in. 2. 16 in. 1,390 " u u 1,390 May, 1874 11 Same Machine, u u 1,400 u (( Similar, u u 1,150 Aug., 1874 Nashua Mfg. Co., i Whitehead & Ather- ) < ton Compound, 1 > ( Whipper, 1 Beater, ) * \ 1. 24 in. 1. 16 in. 1,130 1,500 Mar., 1875 China Mills, ) Suncook, J 1. Kitson Compound, 4 1 2. 12 in. 2. 16 in. 1,450 Webster Mills, ) Suncook, f j a a 3 16 in. 1,300 u July, 1875 j China Mills, j "j Suncook, J Appleton Mills, 1. Whitin Lapper, j Whitehead & Ather- ) ( ton Opener, j" 3 2 1 12 in. 1. 24 in. 1. 16 in. 1,700 1,080 1,380 fl. 620 Nov., 1875 Boott Mills, ( Kitson's Atmospheric ) 1 Opener, f j 2 Disks ( 2 Beaters 16 in. 16 in. J 1. 666 1 1.1,200 [1.1,480 Aug., 1876 Prescott Mill, Kitson's New Feed ) Motion, f .... 240 PICKERS AND LAPPERS. 57 No.of Fans. 3 Eev. per Minute. Wt. Lap per Yd. Lbs. per Day. Ft. Ib. Power. Horse- Power. REMARKS. 1,380 16 oz. 3,930 4,380.53 7.969 Opening from Bale. Without cotton, 5.812 H.P. 3 3 3 1,380 1,380 1. 1,730 2. 1,380 12 oz. 13 oz. 14 oz. 3,600 3,840 4,800 5,883.33 5,674.70 4,525.64 10.607 10.318 8.228 " " " " " 7.969 H.P. 3 1,390 15 oz. 15 oz. 3,300 3,350 8,142.86 6,308.31 14.805 11.505 Carded & Dyed Cotton." " 9.177 H.P. U tl 3 1. 1,000 2. 1,390 19^ oz. 4,420 5,000 9.091 Opening from Bale. " 7.102 H.P. 8 1. 1,000 2. 1,390 16$ oz. 3,350 6,588 11.978 Carded & Dyed Cotton. 4 * " 6.711 H.P. 3 933 1,390 15 oz. 3,320 7,521 13.678 " 8.082 H.P. 3 1,390 17 oz. 4,000 6,766 12.302 Cotton from Bale, " 10.752 H.P. 3 3 3 2 1,390 1,400 1,150 1. 1,700 1. 1,500 13 oz. 17 oz. 11 oz. 3,060 4,000 2,220 5,370 5,000 6,394 7,208 4,800 4,349 4,814 11.623 13.105 8.725 7.907 8.754 U It 41 " " " " 11.139 H.P. " " " " 7,027 H.P. PreVi Cot S ton OPened \ " " 5.793 H.P. Cotton from' Bale. 3 1,450 18 oz. 4,000 6,300 11.453 u t. it 2 1,300 8 oz. 2,700 3,361.61 6.112 " " * 6.442 H.P. 3 2 1,400 1,380 7 oz. 12 oz 14 oz. 1,600 3,000 3,400 2,844.44 3,219.51 3,463.42 5.172 5.864 6.3 As running. Cotton from Bale. " " 4.08 H.P. Fed heavier on Aprons. 3 1,500 1,480 1,440 16 oz. 4,000 4,000 4,200 193.85 7.636 .352 Cotton from Bale. " >! 6.886 H.P. Tested separate from Picker. 58 COTTON CARDS. DATE. PLACE. MAKES. Width. Eev. per Minute. March, 1875 China Mills, Suncook, Wm. Mason Breaker, 36 in. 127 <( it <( U " * Finisher, 36 in. 127 Pembroke Mills, " " Breaker, 36 in. 127 a u u " Finisher, 36 in. 127 ( u Webster Mills, " " ' Breaker, 36 in. 127 a tt u " ' Finisher, 36 in. 127 April, Newton, Mass., 0. Fetter " 36 in. 128 August, 1876 Mass. Mills, Lowell, Lowell Ma. Shop Finisher, . 36 in. 125 h nirVa A full J Hussey Banding. Bob. av ge t lull, -j B an a 8 tight. 8 2.25 18 " 968.75 4.32 1.761 127 " " " Bands adjusted. 8 2.25 18 " 1,159.42 5.176 2.18 106 " " Single Banding. 8 2.25 18 " 1,113.63 4.97 2.03 110.6 44 44 44 j Hussey Banding. J 6.25 in. Trav., 1.8 oz. Y'n. 7.84 1.62 12.33 " 643.23 5.025 1.179 110 it ti tt tt 28 it 7.84 1.62 12.33 " 698.6 5.48 1.275 100 + " " " Single Banding, " " 7.92 3.54 28 " 738.69 6.77 1.342 95.3 " " " " " Bands tight 7.92 3.54 28 " 762.5 6.96 1.386 92.3 it tt tt it tt it tt 8 2 16 " 718.39 4.99 1.306 110 " " " As running. 8 2 16 " 925.34 6.42 1.682 85.7 " " " " " Tight Belt. 8 1.54 12.30 " 732.1 5.72 1.296 96 tt tt u tt tt 8 1.54 12.30 " 757.5 5.91 1.377 93 tt u tt tt it 9 1.85 16.65 " 964.28 4.64 1.753 118.6 " " " Ordinary Banding. 9 1.85 16.65 " 865.7 4.26 1.61 129 " " "Hussey " 8.54 2.60 22 " 775.76 5.46 1.415 102 " " " As running. Bands tight. 8.54 2.50 22 " 804.35 5.58 1.462 98.5 U tt tt U it It tt 7 3 21 " 567.16 4.43 1.031 124 " " " " " Bands easy. 335.82 2.63 " empty. Spindle only. 7.50 3 22.5 " 431.25 3.37 .784 163 " av'ge i full. As running. 7.60 3 22.5 " 543.75 4.24 .988 130 tt t< tt tt tt 8.80 1.65 14 " 1,207.93 5.39 2.144 102 " " " M " 8.14 3.68 32 " 858.95 4.47 1.561 123 tt tt tt tt tt 556.72 2.9 Empty Bobbin. Spindle only. 7 4.35 30 " 980 5.57 1.792 99 Av'ge | full Bobbin. As running. 7 4.35 30 " 1,010 5.74 1.836 97 " " " Frame just leveled. 6.89 3.64 25 " 1,166.66 6.63 2.141 83 7 7 1.90 1.90 13.69 " 13.69 " 1,229.16 1,456.25 6.4 7.58 2.235 2.648 ) Av'ge J 78.7 Empty Bobbin. ) "Willimantic" Sawyer Full " J Spindle. 10 2dbl. 9 " 953.49 7.44 1.733 [ Av'ge I 72 2 Empty " I Eegular Sawyer Spin. Full " ) Bands very tight. 10 2 " 9 " 1,000 7.81 1.818 ) 9.5 2 19 weft 968.45 6.72 1.761 82 Bobbinf full. New Frame. Had run 6 weeks. 9.5 2 19 " 959.2 6.66 1.744 82.6 " } " Similar Frame. 9.6 2 19 " 849.5 6.9 1.545 93.2 " " " 1st Fr. repeated, slower sp'd. 8 2 16 " 989.58 6.87 1.8 80 " " " Sim. Fr. 4 weeks in opera'n. 7 2 14 " 908.16 6.3 1.651 87.3 tt tt tt 4 u 7.35 8.24 1.60 2.61 11 " 21.50 wp. 561.22 1,347.06 3.9 7.01 1.02 2.44 140 Empty Bobbin. 8.24 2.61 21.50 " 1,617.65 8.42 2.941 .... Full 8.24 2.61 21.50 " 1,482.35 7.717 2.695 71.3 Average " 23 weft 633.03 4.84 1.151 Empty " 23 " 633.03 4.84 1.151 113.6 Half full " 23 " 642.3 6.02 1.168 Full " 13 " 13 " 13 " 467.89 477.06 467.59 3.655 3.726 3.655 .851 .867 .851 [Av'ge I 140 S^Pl 7 !! 1 Speed irregular all Half full j- ^through trials. 68 RING SPINNING. (Continued.) DATE. PLACE. MAKER. Diam, of Ring. No. Spin. Weight Spindle. Rev. Spin. Eev. F. Koll. June, 1878 Lyman Mills, Holyoke, j Whitin, alt'd ) ( to Sawyer Sp. j l|in. 128 4foz. 6,383 121 (C u u 128 u 5,383 121 (( u M 128 u 5,383 121 Oct., Pacific Mills, ti If 160 *t 5,851 70.5 a (C 160 u 5,851 70.5 u M U 160 u 5,851 70.5 u {( 160 {( 5,893 71 (t t( u 160 (( 5,893 71 U (i 160 ( 5,893 71 a (( (( 160 M 5,893 71 u (t (( 160 (( 5,893 71 a (( (1 160 u 5,893 71 PEARL June, 1874 Lawrence Manu. Co., Lowell Ma. Shop If in. 224 6i 6,150 99 July, 1875 Pacific Mills, Lawrence j Davis & Fur- [ { ber, No. 3 Sp. } H 160 4^f 5,800 62 (( (i U u u 160 5,800 70 Aug., Stark Mills, j Davis & Fur- ) 1 ber, No. 1 Sp. C 2 144 6f 5,300 106 ( tt a u u 144 5,470 108 Oct., " Manchester Mills, j Saco W. P. ) 1 Co., No. 2 Sp. f If 192 6i 5,830 71 Dec., " Jackson Co., Lowell Shop, iA 208 6 4,340 107 Jan., 1876 Salmon Falls, Davis & Furber, if 144 H 5,500 63 Pearl Bobbin (i (( u Saco Spindle u 144 9 5,800 74 Cut-off Tip April, - York Co., Saco, SacoW.P.Co. Throstlealt'd u 128 H 6,140 K hf\f\ 80 128 5,700 82 (( U ( Lowell M.Sh. ) ( Throstlealt'd j" a 128 6i 5,515 82^ (( (I u a a 128 u 5,870 84 Nov., 1877 (( U Atlantic Mills, (( (4 ( Davis & Fur- ) ^ ber, Spind. in [ ( Lowell Fr'me ) Lowell Ma. Shop u 176 176 8f 4i 5,022 6,059 88 73 <( (( (t (( u <( 176 u 6,059 73 U (( Jackson Co., Nashua, u If 192 4f 5,564 115.5 (( (i a u u (( U 192 u 5,564 115.5 Sept., 1878 China Mill, j Whitin, alt'd ) } toP'lSp.No.2 [ If 128 7,400 77 u C( u <( 128 <( 7,400 77 <( (( (( u (( 128 7,400 77 Oct., " j Massachusetts Mill, ) 1 Lowell, f j Lowell M.Sh.) 1 P'rlSp.No.l f If 160 5 5,080 107 U (( u (( 160 5,080 107 U (( u u 160 5,080 107 (I (( ( Pacific Mills, Law- ) \ rence, J ( Davis &Furb. ) (P'rlSp.No.3 f H 160 H 6,006 66 iC (( u 160 6,006 66 ( (( <( 160 6,006 66 U (( (( u 160 6,006 66 ( <( u K 160 6,006 66 U s J Empty Bobbin, ] Eegular Pearl Bobbin, 8.14 4.40 38 " 762.07 4.76 1.385 Full " I 241 grams. Yarn on 8.14 4.40 38 " 749.14 4.68 1.362 117.75 Average " J Bobbin 421 gr. 8.14 8.14 4.40 4.40 38 " 38 " 736.21 753.45 4.60 4.70 1.339 1.370 Empty " 1 Lower Bush of Bobbin p^j 44 ! reamed out. 8.14 4.40 38 " 744.83 4.65 1.355 118.25 /"Bobbin, 240*6 grains. Average " J yarn on Bob. 421.1 grs. RING SPINNING. (Continued.) DATE. PLACE. MAKER. Diam. King. No. Spin. Wt. Spin. Kev. Spindle. Eev.F. Eoll. Draft. July, 1875 U ( Augusta, Me., Pacific Mills, Fales & Jenks, U U If in. 1| 128 160 7foz. 3f 5,200 6,200 63 58 6.98 4.6 Dec., 1877 Whittenton Mills, j Whitin, alt'd ) ( to Babbeth, j lit 160 128 4 6,200 5,135 58 130 4.6 10 BIRKENHEAD Aug., 1875 Stark Mills, C. Lamphear, 2 132 |6i 6,460 108 8 Dec., 1877 Whittenton Mills, Whitin, altered, n 128 4 4,800 128 10 EXCELSIOR April, 1875 j Stark Mills, ) 1 Man'r, N. H., C Bridesburg Co., 11 204 6 4,730 104 8 (i M I.A. 204 6 4,520 110 8.24 Aug., " Oct., " <( ( Bridesburg ) jCo.,Cuphold- I ( er on Spin. ) Excelsior Spin., 2 204 204 8i 6 4,785 4,446 100 110 8 8.3 u (( " 1-j. 204 6 4,660 104 7.84 Nov., " (( " repeat'd 2 204 6 4,660 105 7.84 o> gjj ft Eevolutions per Minute. 50 100 150 200 250 300 50 100 150 200 Horse-Power. Horse-Power. 1 .5 1 1.5 2 2.5 3 6 108 216 324 432 1.25 .975 1.95 2.92 3.9 4.87 5.85 6.25 122.07 244.14 366.21 488 1.5 1.68 3.37 5.04 6.74 8.4 10.11 6.5 137.31 274.62 411.93 549 1.75 2.68 5.36 8.04 10.72 13.4 16.08 6.75 153.72 307.55 461.16 615 2 4 8 12 16 20 24 7 171.5 343 514.5 686 2.25 5.69 11.39 17.07 22.78 28.45 34.17 7.25 190.54 381.08 571.62 762 2.5 7.81 15.62 23.43 31.24 39.05 46.86 7.5 210.93 421.87 632.79 843 2.75 10.4 20.8 31.2 41.6 52 62.4 7.75 232.74 465.48 698.22 931 3 13.5 27 40.5 54 67.5 81 8 256 512 768 1,024 3.25 17.16 34.33 51.5 68.66 85.8 103 8.25 280.76 561.52 842 1,123 3.5 21.43 42.87 64.29 85.74 107.15 128.61 8.5 307.06 614.12 921 1,228 3.75 26.36 52.73 79.08 105.46 131.8 158.19 8.75 334.96 669.92 ,005 1,340 4 32 64 96 128 160 192 9 364.5 729 ,093.5 1,458 4.25 38.38 76.77 115.15 153.54 191.9 230.31 9.25 395.72 791.45 ,187 1,583 4.5 45.56 91.12 136.68 182.24 227.8 273.36 9.5 428.68 857.37 ,286 1,715 4.75 53.58 107.17 160.75 214.34 267.9 321.54 9.75 463.43 926.86 ,390 1,854 5 62.5 125 187.5 250 312.5 375 10 500 1,000 1,500 2,000 5.25 72.35 144.7 [217.05 ,289.4 361.75 434.1 11 665.5 1,331 1,995 2,662 5.5 83.18 166.37 249.54 322.75 415.9 499.11 12 864 1,728 2,592 3,456 5.75 95.05 190.11 285.15 380.22 475.25 570.33 13 1,05'3.5 2,107 3,160.5 4,214 Table of Horse- Power for Shafting for Long Lines of Transmission, or 2d Movers, Factor of Safety being = 7.75. a ^Revolutions per Minute. l s Eevolutions per Minute. 9M 100 150 200 250 300 3s ! 1.9 100 150 200 250 300 Q Horse-Power. 5 Horse-Power. 1 2 3 4 5 6 Sf 77.88 116.83 155.76 194.7 233.64 H 2.88 4.32 5.76 7.2 8.64 H 85.74 128.61 171.48 214.35 257.22 I* 3.9 5.85 7.8 9.75 11.7 8f 95.25 142.86 190.5 238.1 285.75 if 5.2 7.8 10.4 13 15.6 sf 105.46 158.19 210.92 263.65 316.38 H 6.74 10.11 13.48 16.85 20.22 3* 116.37 174.54 232.74 290.9 349 if 8.58 12.87 17.16 21.45 25.74 4 128 192 256 320 384 if 10.72 16.08 21.44 26.8 32.16 4 140.38 210.57 280.76 351 421.14 i* 13.18 19.77 26.36 32.95 39.54 4 153.54 230.31 307 383.85 460.62 2 16 24 32 40 48 * 4f 167.48 251.22 335 418.7 502.48 2i 19.19 28.77 38.38 47.95 57.57 4* 182.24 273.36 364.48 455.6 546.72 2i 22,78 34.17 45.56 56.95 68.34 4f 197.86 296.79 395.72 494.65 593.58 2f 26.79 40.17 53.58 66.95 80.37 4f 214.34 321.54 428.68 535.85 643 21 31.24 46.86 62.48 78.1 93.72 4 231.71 347.55 463.42 579.25 695.73 2f 36.18 54.27 72.36 90.45 108.54 5 250 375 500 625 750 2f 41.6 62.4 83.2 104 124.8 5i 289.4 434.1 578.8 723.5 868.2 H 47.52 71.28 95 118.8 141.56 51 332.75 499 665.5 831.87 998.25 3 54 81 108 135 162 5f 380.22 570.33 760.44 950.55 1,140.66 8* 61.02 91.53 122 152.55 183 6 432 648 864 1,080 1,296 i 68.66 103 137.32 171.65 206 Table of Horse-Power for Shafting for Counter Shafts, well supported, or 3d Movers. Factor of Safety = 6.17. Diameter in Inches. Eevolutions per Minute. 100 160 200 250 300 350 400 Horse-Power. 1 3 4.5 6 7.5 9 10.5 12 l-i 1 * 3.59 6.37 7.18 9.95 10.77 12.53 14.36 H 4.27 6.54 8.54 10.9 12.81 15.26 17.08 ift 6.02 7.53 10.04 12.55 15.06 17.57 20.08 li 6.85 8.77 11.7 14.62 17.55 20.47 23.4 1-,% 6.78 10.17 13.56 16.95 20.24 23.73 27.12 If 7.79 11.67 15.58 19.45 23.37 27.23 31.16 4 8.91 13.35 17.82 22.25 26.73 31.15 35.64 H 10.11 15.16 20.22 25.27 30.33 35.38 40.44 l-& 11.44 17.16 22.88 28.6 34.32 40 45.76 lf 12.87 19.29 25.74 32.15 38.61 45 51.48 iU 14.41 21.6 28.82 36 43.23 60.4 57.64 if 16.08 24.12 32.16 40.2 48.24 66.28 64.32 IH 17.86 26.79 35.72 44.65 53.58 62.51 71.44 H 19.77 29.64 39.54 49.4 59.31 69.16 79.08 m 21.81 32.7 43.62 54.5 65.43 76.3 87.24 2 24 36 48 60 72 84 96 a* 26.32 39.48 52.64 65.8 79 92.12 105.28 4 28.78 43.17 67.56 71.95 86.34 100.73 115.12 2ft 31.4 47.1 62.8 78.5 94.2 109.9 125.6 4 34.17 51.25 68.34 85.42 102.51 119.6 136.68 2A 37.09 55.63 74.18 92.72 111.27 129.81 148.36 H 40.18 60.27 80.36 100.45 120.54 140.63 160.72 & 43.44 65.16 86.88 108.6 130.32 152.04 173.76 2* 46.87 70.8 93.74 117.17 140.61 164.04 187.48 2ft 50.46 75.69 100.92 126.15 151.38 176.61 201.84 a* 54.27 81.4 108.54 135.67 162.81 189.54 217,08 2^ 58.23 87.35 116.46 145.57 174.69 203.8 232.92 2f 62.4 93.6 124.8 156 187.2 218.4 249.6 2|| 66.74 100.11 133.48 166.85 200.22 233.59 266.96 H 71.28 106.92 141.56 176.95 213.84 249.49 285.12 2*f 76.04 114.96 152.08 190.1 228.12 266.14 304.16 3 81 120.5 162 202.5 243 283.5 324 The above tables are carried out to an extent beyond all probable need, but may possibly be useful in extreme cases ; and it should be remembered that the first length of shaft in a line, which carries the receiving pulley, and has to bear the vertical or lateral strain of the main belt, being also usually of considerable length, should generally be of the size given in the first table. BELTING. ANT general rule for the speed of belts to convey a given number of horse-powers will of course be somewhat varied by situation and cir- cumstances, but the writer believes that the following data and deduc- tions will be found reliable for well tanned leather belts under ordinary conditions : MoRLNr gives .551 Ib. per .00155 sq. in. section as a safe working strain, which is equal to 551 Ibs. per 1.55 sq. in.,-or 355 Ibs. per sq. in., and assumes the thickness of an ordinary single belt to be .16 in., which gives the safe strain on each inch of width to be equal to 56.8 Ibs. HASWELL, in his " Engineer's Pocket-Book," gives the safe strain in like manner at 350 Ibs. per sq. in., or equal to 56 Ibs. per inch width of ordinary belt. RANKINE gives 285 Ibs. per sq. in., or 45.6 per inch width, and copies from Towne's tables, in "The Journal of the Franklin Insti- tute," the following : Breaking strain per inch width in solid leather 675 lbs< " " " " at rivet holes of splice 362 " " " " " at lacing holes ..210" Safe working tension 45 " Mr. James S. Atwood, of Wauregan, Conn., has prepared a table for his own use, based on 330 Ibs. per sq. in. as a safe working tension. The very valuable collection of data and observations published by Mr. J. H. Cooper, of Philadelphia, gives a very wide range of opin- ions from various authorities, extending from 40 to 100 Ibs. per inch in width of ordinary belting, as consistent with safety. Mr. Cooper has also published in " The Journal of the Franklin Institute " for November, 1878, a paper containing a translation from the French of M. Laborde, originally published prior to 1833, and 96 based on a working tension of only 20 Ibs. per inch in width, but from which Mr. Cooper deduces the following simple rule for strength, viz. : " It is the stress in pounds which each inch of belt width will safely and continuously bear at any velocity" The tests made with Riehle's breaking machine at the Centennial Exhibition showed a breaking strain per sq. in. ranging from 3,000 to 5,000 Ibs., or from 500 to 833 Ibs. per 1 in. in width and in. in thick- ness, which I assume to be about the average of single belting. The writer's own experience has shown him that a rule given him many years since by an experienced mechanic, of " 600 ft. velocity per 1 inch of belt width per horse-power? was perfectly reliable ; and the reasons for it may be deduced from the above data as follows : Assuming as a basis a fair average from the various tests, of a safe working strain of 330 Ibs. per sq. in., or 55 Ibs. for \ in. in thickness, about one quarter of the strength shown by Mr. Towne's tests at the lacing holes, we may obtain a very simple formula for velocity : 33,000 Ibs. lifted 1 ft. per minute being the accepted unit of a horse- power, 1 sq. in. of belt must then move 100 ft. per minute to transmit the same, 330 X 100 being = 33,000 ; and -J- sq. in. or 1 in. width of ordinary belting must move 600 ft. per minute, equal to 50 sq. ft. of belt per minute, which I therefore adopt as my rule for single belts. Double belting will vary from J- to \ or in. in thickness, and of course require proportionately less velocity per horse-power ; and the following rules may be deduced for all dimensions, viz. : " Multiply the denominator of the fraction expressing the thick- ness of the belt in inches by 100, and divide by the numerator, for the necessary velocity in feet per minute for each inch in width ; " viz., to transmit 1 horse-power : \ in. = 6 x 100 = 600 ft. per minute. f in. = S -^^ = 266.66" 3 in. = 4 x 100 = 400 " The velocity and width being given, to get the horse-power : " Divide the actual velocity by the velocity per horse-power as above, and multiply by the width ; " viz., for a 12-in. belt, single, 2,400 ft. per minute : = 4x 12=48 H.P. 600 The velocity and horse-power being given, to get the inches in width : " Divide the velocity by the velocity per inch obtained as 97 above, and divide the horse-power by the product ; " viz., for a belt 3,000 ft. per minute to transmit 50 horse-power : 3,000 50 H. P. = 5. = 10 in. 600 5 These rules will, however, be varied by circumstances. Belts, when stopping and starting, or shifting from one pulley to another, as in the case of looms and mules are frequent, should, on account of the wear and tear, be made wider than the power only requires. Also any great difference in the size of pulleys, materially decreasing the angle of friction on the smaller pulley, will require an increase of width, to give the necessary holding surface. Belts should be used with the grain or hair side next the pulley ; they will hold better and wear longer. So far as the capacity of the belt itself to transmit power is con- cerned, independent of the frictional surface of the pulleys, the follow- ing table may prove convenient for reference for single belts of the average thickness of -J- in., and from it may be readily deduced the available power to be derived from double belts according to their thickness. There are, however, other points to be considered than the one of the actual strength of the belt, the most important one of which is its friction or " hold " upon the pulley. It is generally conceded that the friction of a belt passing half around a pulley is equal to one half the strain on the belt ; or that an inch belt at 600 ft. per minute, with a strain of 55 Ibs., would give a pressure of 27.5 Ibs., and require a pulley which would give 1,200 lineal feet per minute of surface contact, to obtain the 1 H. P. to which the belt would be equal. Morin, in his "Mechanics," gives as the result of actual trials with a loaded belt over a wooden drum an average friction of 50 per cent., which would be increased by using a pulley covered with leather ; and a polished iron pulley, with a smooth, flexible belt, may, I think, be depended on in actual use for 50 per cent. The most scientific writers commit gross errors in treating of this question. Professor Rankine says that the rough or flesh side of the belt should be next to the pulley to get friction ; whereas the friction of a belt is due to close contact and the consequent atmospheric pres- sure from outside, so that the best result is obtained by a smooth sur- face of leather, which, being moderately elastic, admits of the com- plete expulsion of the air between the surfaces and the consequent full effect of the external pressure. Considering this established in practice, that the available friction is 50 per cent, of the strain, I find in use the following rules (which 98 agree very closely with my previous conclusions) for getting at the proper width of a belt where the speed and amount of contact surface are determined by the necessities of the case. The Page Belting Co., of Concord, N. H., gives the following for- mula : No. H. P. x 36,000 Inches width = Velocity in ft. x -J contact length in inches In Cooper's admirable collection of " Belting Facts and Figures," I find the following : " Professor Thurston gives : No. H. P. x 7,000 Width in inches Velocity in ft. x contact length in ft. Mr. F. W. Bacon, C. E., says : No. H. P. x 6,000 Width in inches = Velocity in ft. x contact length in ft.' which is only a different way of expressing the rule given by the Page Belting Co. Messrs. Hoyt Bros., of New York, say : _ H. P. x 5,334 Velocity x contact in ft. Yan Riper, of Paterson, gives the same rule ; and some one, whose name is not given, says : H. P. x 26,000 Velocity x contact in ft. x 6 My own deductions would give, in the verms of the Page formula : No. H. P. x 33,000 Width in inches = - ; Velocity in ft. x contact in inches or, reduced to feet, as by Mr. Bacon, for a single belt : W= H. P. x 5,500 Velocity x contact in ft. or for a double belt : w= H- P. x 3,660 Velocity x contact in ft. In this rule for double belts I have assumed J in. in thickness and 82-J Ibs. strain ; but, if the belt be, as many are, f in. thick, it would of course bear from 110 to 120 Ibs., and 267 ft. per minute would give 99 1 H. P. per inch ; and the formula for contact with one half the sur- face, or 180, would be H. P. x 2,444 w = Velocity x contact length in ft. These formulae are based on my previous data of a velocity of 50 sq. ft. per minute, or a strain of 55 Ibs. per inch on a single belt, and on the belt being in contact with one half the circumference of the pulley. Now, the friction varies with the arc of the circle with which the belt is in contact, and is only half as great on one quarter of a pul- ley as on one half of one ; so that double the surface in square inches will be required to transmit the same power in the former case that would be needed in the latter, and the numerator of the formula for single belts would be H. P. X 11,000. This will be easily understood by those who know the enormous hold given by passing the rope from a pulley-block once around a post where the whole surface is in con- tact. If one third of the circumference is in contact, the coefficient in the numerator would be 8,250. Carrying out these rules, it will be easily seen that, where high speed is to be obtained by the use of small pulleys, a much greater width of belt is necessary to get the frictional surface than is called for by the strength of the leather ; and it will be found that for cir- cular saws, cotton pickers, spinning frames, etc., a wider belt is needed than is due to the actual power transmitted. Take, for instance, a spinning frame, with a 7-in. pulley, 900 revolutions per minute, or 1,650 ft. belt velocity, and requiring 1^ H. P. One inch of belt at that speed would transmit 2J H. P., but the contact surface of the pulley would not be over 10 in. in length, and by the above rules calls for a 3-in. belt, which is the standard size for that purpose. A good practical example of a main belt in actual use, under the writer's frequent observation, is that of a 24-in. double belt, at a ve- locity of 3,200 ft. per minute, transmitting 160 H. P. to a pulley 4 ft. 10 in. in diameter. Taking the first formula for double belts as above, the width should be W= ISO H-r-* 3,660 =24 .Uin. 3,200 x 7.58 (i circle) This belt has now run seven years without repair. According to the rules for the strength only, it would transmit 192 H. P., but the smaller pulley should then be 5 ft. 9.6 in. diameter, instead of 4 ft. 10 in. 100 Table of Power which may be transmitted by Single Belts of different Widths and Velocities, averaging one sixth of an inch in thickness. li 2 [* Velocity in Feet per Minute. 600 800 1,000 1 1,200 1,500 2,000 2,500 3,000 3,500 4,000 5,000 Horse- Power. 1 1 1.33 1.66 2 2.5 3.33 4.16 5 5.83 6.66 8.33 2 2 2.66 3.33 4 5 6.66 8.33 10 11.66 13.33 16.66 3 3 4 5 6 7.5 10 12.5 15 17.5 20 25 4 4 5.33 6.66 8 10 13.33 16.66 20 23.33 26.66 33.33 5 5 6.66 8.33 10 12.5 16.66 20.83 25 29.16 33.33 41.66 6 6 8 10 12 15 20 25 30 35 40 50 8 8 10.66 13.33 16 20 26.66 33.33 40 46.66 53.33 66.66 10 10 13.33 16.66 20 25 33.33 41.66 50 58.33 66.66 83.33 12 12 16 20 24 30 40 50 60 70 80 100 14 14 18.66 23.33 28 35 46.66 58.33 70 81.66 93.33 116.66 16 16 21.33 26.66 32 40 53.33 66.66 80 93.33 106.66 133.33 18 18 24 30 36 45 60 75 90 105 120 150 20 20 26.66 33.33 40 50 66.66 83.33 100 116.66 133.33 166.66 22 22 29.33 36.66 44 55 73.33 91.66 110 128.33 146.66 183.33 24 24 32 40 48 60 80 100 120 140 160 200 26 26 34.66 43.33 52 65 86.66 108.33 130 151.66 173.33 216.66 28 28 37.33 46.66 56 70 93.33 116.66 140 163.33 186.66 233.33 30 30 40 50 60 75 100 125 150 175 200 250 32 32 42.66 53.33 64 80 106.66 133.33 160 186.66 213.33 266.66 34 34 45.33 56.66 68 85 113.33 141.66 170 198.33 216.66 283.33 36 36 48 60 72 90 120 150 180 210 240 300 WATEB-WHEELS. THE following tables of the Turbine Wheel tests at the Centennial Exhibition in Philadelphia in 1876 will be explained by the annexed extract from the Official Report made by me to Captain John S. Albert, Chief of the Bureau of Machinery. The calculations as pub- lished in the report were revised by another person after leaving my hands, and published over my name without my knowledge. Some errors were corrected, and many more introduced, and I have there- fore recalculated the whole, with the aid of Vega's logarithmic tables ; so that the results as now shown may be regarded as substantially correct. In several instances they have been confirmed by tests since made by other persons, to whom the wheels had been taken by disap- pointed exhibitors for new trials. TESTS OF TURBINE WATER-WHEELS. "The water was furnished by a pair of powerful centrifugal pumps, exhibited by Messrs. W. L. Andrews & Co., of New York, and driven by oscillating engines, which raised from 1,800 to 1,900 cubic feet of water per minute to a tank placed at the end of the Hy- draulic Annex, the overflow of which was 33 feet above the level of the water in the large tank in the center of the building, from which it was pumped. " This water usually formed the ' cataract,' which was stopped par- tially or wholly while testing the Turbines. " From this tank a wrought-iron tube or ' penstock/ 4 feet in diam- eter, descended to the ' flume,' or case in which the wheels were set, and which was 8 feet in diameter by 6 feet in height, supported by a brick wall resting on a granite bedstone. From the wheels the water n- 102 was conducted by an ample passage to a rack or strainer 30 feet from the wheel, and stretching across a brick tail-race 14 feet wide by 8 deep, at the lower end of which, 15 feet below the rack, was the meas- uring weir, 9 feet long, formed of a heavy cast-iron plate planed to a true edge one eighth of an inch thick, and beveled from that on the lower side at an angle of 45. The upright ends of the weir were made of Georgia pine, cut and beveled to the same dimensions, and were carefully adjusted by Mr. Samuel S. Webber, and verified by myself. " The hook gauge, loaned for the experiments by Mr. T. H. Ris- don, was placed in a tight wooden box 6 feet up stream from the weir, and the water was admitted to this box, for the purpose of measurement of height, by a few f -inch holes bored in the bottom of the box, 3 feet below the surface of the water ; and an examination of the very thorough test of the Tait wheel shows the sensitiveness with which the weir measurement responded to the changes of load and variation in the number of revolutions of the wheel. " The apparatus for measuring the power consisted of a friction pulley fitted to the wheel shaft, 37.44 inches diameter and 18 inches face, which was clasped by a Prony brake, consisting of a pair of cast- iron shoes lined with wood, from one of which projected an oak arm 6 by 4 inches, through which a knife-edged eye-bolt was fastened at a distance from the center of the shaft of 10.5 feet, or the radius of a 66-feet circle. These portions of the apparatus, with the scale-pan and hydraulic regulator, 16 inches diameter, were also kindly loaned by Mr. Risdon. " To facilitate the handling of the weights, this lever was con- nected by an iron rod with the short arm of a bell-crank or scale-beam 2 feet in height, while the longer arms, which were attached to the scale-pan and regulator, were 4 feet each, thus giving a leverage of 132 to 1 for each pound placed in the scale. All the pivots or bear- ings of this scale-beam were of steel, knife-edged, and bearing in hardened iron sockets. " The weights used were United States standard, and were kindly loaned by Messrs. Fairbanks & Co. The pulley, weighing 1,000 pounds, rested on the shaft and step of the wheel, corresponding in some measure to the usual * crown-gear ' ; but the brake, which weighed 1,600 pounds, was suspended by a swivel from a beam di- rectly over the center of the wheels, so as to allow perfect freedom of motion in any direction. An examination of the records will also show the sensitiveness and accuracy of this part of the apparatus, every distance and dimension of which I carefully measured and ad- justed personally before commencing the tests. 103 " The head of water acting on the wheels was ascertained by a gauge-rod, having a hook at the lower end, which was carefully kept at the level of the tail-water in a box sunk in the floor and connected with the tail-race by a perforated pipe ; while a pipe led from the case to the level of the head- water, where a glass tube enabled the observer to read at once the acting head by the graduations on the upper end of the gauge-rod. " Experiments not strictly belonging to the wheel tests were made, showing that the same wheel, with the same load, at different times repeated the number of revolutions very accurately, and proved the correctness of the apparatus. The revolutions of the wheel were as- certained by a worm-gear clock, which was thrown in and out of con- nection with the shaft of the wheel, at signals given by a bell, which was struck at intervals of one or two minutes, according to the length of test desired. " The friction pulley was accurately balanced before commencing the tests, and, when the wheels themselves were truly set, ran with perfect steadiness and regularity. " In conducting these tests I have been assisted by the following gentlemen, our watches being all set to the same time before com- mencing the tests, and simultaneous observations being taken during their entire duration. These observations being noted down as taken, a comparison of the different note-books gave a record of all the points in the test at every half -minute of its duration." "Mr. Percy Sanguinetti read the hook gauge, giving the height of water on the weir ; Mr. Philip R. Voorhees read the gauge giving the head of water acting on the wheel ; Mr. Samuel S. Webber man- aged the counting clock and read the revolutions of the wheel, and also saw that the lubrication was perfect ; while Mr. John Cotter, Superintendent of the Hydraulic Annex, kept the records of the weight and revolutions, and assisted me generally in various ways. I personally kept an eye on all points, and gave the bell-signals by which the observations were taken'." " Each exhibitor was allowed free access and liberty of observa- tions during the tests of his own wheel ; and, whatever may be- the accuracy of the net results obtained, the comparative ones may be depended on, as the tests were all made under similar circumstances, and the different points watched and the notes taken throughout by the same observers, none of them having any interest whatever in the result, or any opportunity at the time of knowing what the observa- tions were at other stations than their own." " It is worthy of notice that the best results have been attained by wheels taken just as they came from the shop, without any especial 104 finish or preparation, and the thoroughly exhaustive test of the Tait wheel is worth studying, as showing the accurate working of the apparatus." " The Geyelin wheel, entered by R. D. Wood & Co., was so tightly fitted in the shop that I do not think we got a fair record of its power ; and the Cope wheel used so much water that we could not carry the test out in full, but the percentage was gaining regularly up to the last trial, when we exhausted the supply of water, having reached over 1,860 cubic feet, or 14,000 gallons per minute. " The Hunt wheel also taxed the supply of water to the utmost, and the third wheel from the York Company was only tested to prove or disprove what was believed to be an unsound principle, viz., that of shallow buckets and central discharge ; and the result is confirmed by those obtained from some of the other wheels. " The leakage of the flume was large during the first six trials, but by calking and tamping with lead was very much reduced at the test of the Tyler wheel, after which test the allowance was uniform of 14.352 cubic feet per minute waste to each wheel. In the first six tests it was taken as noted in the tables, and the amount is in all cases deducted from the water consumed per minute." The temperature of the water until November 1 was 75 Fahr., giving a weight of 62.234 pounds per cubic foot. After that date it was taken at 70, or 62.3 pounds per cubic foot. TESTS OP WATER-WHEELS-INTERNATIONAL EXHIBITION, 1876. September 18. Barker & Harris, Turbine. 20 Inches Diameter. No. of Test. * Time of Stop. WeightLiffd. Eevolutions per Min. Head on Wheels. l| Cubic Feet Discharged per Min. & > _! ^ "a) O Q IP Jj'o 5 11 |P 1* Percentage of Effect. Waste on Weir. EEMABKS. P.M. P.M. Lbs. 1 5.05 5.07 23 354 31.25 .62 812.43 32.57 47.88 .6802 .096 Full Gate. 2 5.08 5.10 26 348.5 31.22 .623 818.66 36.244 48.2 .7519 .096 u 3 5.13 5.15 27 341.5 31.18 .63 833.28 36.882 49 .7527 .096 4 5.18 5.19 28 330.5 31.18 .626 824.88 37.02 48.5 .7631 .096 u 5 5.21 5.23 22 380.5 31.27 .6 771.22 33.484 45.48 .7362 .096 | Gate. 6 5.27 5.29 22 287.5 31.4 .514 601.72 25.3 35.63 .71 .096 t " 7 5.30 5.32 20 299 31.45 .495 566 23.92 33.57 .7125 .096 f " 8 5.40 5.42 16 271.5 31.62 .405 405.97 17.376 24.21 .7177 .096 1 U 9 5.47 5.49 13 327.5 31.66 .405 405.97 17.03 24.24 .7026 .096 i " Waste, .096 = 53.34 cu. ft. per minute, deducted from cu. ft. per minute gross, to give amount in table. 1.07 1.10 1.13 1.18 1.21 1.26 1.31 1.38 1.41 1.44 105 September 21. Risdon Wheel. 30 Inches Diameter. 1.09 1.12 1.15 1.20 1.23 1.28 1.33 1.40 1.43 1.46 t3 5 Jo *> P Jjla 1* ll if a H-i |3 li S ''* S^ ^ PH ca Gstt & JH "3 *i o> & II Time of Stop. WeightLift'd. 1 Revolutions per Min. Head on Wheejs. .fa 1^ '3 fi* Cubic Feet Discharged per Min. Horse-Power of Wheel. Horse-Power of Water. M || 13 J5* Waste on Weir. REMARKS. P.M. P.M. Lbs. 1 12.40 12.42 44 310 30.47 .855 1,380.27 54.56 79.31 .6879 .04 Full Gate. 2 12.43 12.45 48 292.5 30.44 .858 1,367.5 56.16 79.65 .7051 .04 u 3 12.46 12.48 46 300 30.3 .865 ,380 55.2 78.86 .7 .04 u 4 12.50 12.52 44 300 30 .852 ,373 52.8 77.68 .6797 .04 a 5 12.55 12.57 44 290 30.46 .818 ,291.8 51.04 74.2 .6878 .04 | Gate. 6 12.58 1 42 300 30.46 .816 ,287 50.4 73.93 .6817 .04 * " 7 1.07 1.09 36 290 30.62 .738 ,107 41.76 63.92 .6533 .04 * " 8 .10 1.12 34 300 30.61 .737 ,104.74 40.8 63.77 .6398 .04 4 " 9 .13 1.14 32 306 30.62 .735 ,100.24 39.27 63.53 .6181 .04 4 " 10 .21 1.23 30 274.5 30.8 .663 942 32.94 64.72 .602 .04 i " ! 11 .24 1.26 28 290 30.81 .66 935.68 32.48 54.37 .5974 .04 i ;; 12 .34 1.36 24 263 31 .584 777.81 25.25 45.47 .5553 .04 13 .37 1.39 20 291 31.1 .58 769.51 23.28 45.13 .5158 .04 " Waste = 14.352 cu. ft. per minute, deducted from discharge. October 12. Second Bollinger Wheel, York Manufacturing Co. 27 Inches Diam. ? go s 1 l 11,q N ij It? ll 3 "o - ll ll? & nft HI Ijjg fl II ll REMARKS. ^ EH S Jjy ^ fii tt fe ft S -2 2 O **H o *S S> ^5 t^ fc S M oft W w PL, P.M. P.M. Lbs. 1 12.35 12.37 34 312 30.59 .759 1,154.6 43.43 66.61 .637 .04 Full Gate. 2 12.38 12.40 36 306 30.55 .763 ,163.8 44.06 66.74 .6576 .04 u 3 12.41 12.43 38 296 30.63 .766 ,170.1 44.99 67.06 .6678 .04 u 4 12.44 12.46 40 287 30.54 .772 ,184.46 45.92 68.22 .6731 .04 ii 5 12.47 12.49 42 282.5 30.55 .778 ,198.29 47.46 69.08 .687 .04 u 6 12.50 12.51 44 275 30.63 .782 ,207.54 48.4 69.51 .6963 .04 ii 7 12.52 12.53 46 273 30.5 .79 ,226.1 50.23 70.52 .7122 .04 ' 8 12.54 12.56 48 270 30.5 .794 ,235.43 51.84 71.05 .7296 .04 ' 9 12.57 12.58 50 260 30.48 .798 ,244.76 52 71.55 .7268 .04 t 10 1.01 .03 52 252.5 30.44 .803 ,256.5 52.52 72.13 .7281 .04 i 11 1.04 .06 54 246.5 30.42 .804 ,258.84 53.24 72.22 .7372 .04 i 12 1.08 .09 56 232 30.42 .805 ,261.2 51.97 72.35 .7183 .04 ii 13 1.12 .14 32 318 30.6 .735 ,100.22 40.7 63.49 .641 .04 | Gate. 14 1.15 .17 36 300 30.6 .742 ,116 43.2 64.4 .6708 .04 7 ll 15 1.19 .21 36 280 30.7 .703 ,029 40.32 59.7 .6768 .04 t " 16 1.23 .24 34 290 30.72 .7 1,022.3 39.44 59.23 .6659 .04 4 " 17 1.27 .29 34 268 30.85 .656 927.14 36.45 53.94 .6758 .04 i " 18 1.30 .32 32 277 30.85 .654 922.87 35.45 63.69 .6602 .04 i ( 19 1.40 .41 24 300 31.03 .6 810.23 28.8 47.41 .6074 .04 " 20 1.42 .44 26 285 31 .603 816.36 29.64 47.73 .621 .04 a Waste deducted from discharge as before. 8 110 October 13. York Mfg. Co., Center Vent Wheel. 27 Inches Diam. (Experimental.) 1 ^ 1 d 3 la 533 Sj ^ ||, II II s< 1 6 P 1 1 f .3^ Is &* II 1* IS* 35* i ^ s 1* g i* w SH 1* F. REMAKES. P.M. P.M. Lbs. i 12.32 12.34 36 265.5 30 .83 1,320.3 38.23 74.7 .5118 .04 Full Gate. 2 12.44 12.46 38 264.5 30.1 .832 1,325.2 40.2 75 .536 .04 M 3 12.47 12.49 40 260.5 30.05 .839 1,341.8 41.68 76.04 .5481 .04 " 4 12.50 12.52 44 255 30.02 .845 1,356.2 44.88 76.79 .5845 .04 " 5 12.53 12.55 46 249 30 .85 1,368 45.81 77.4 .5919 .04 u 6 12.56 12.58 48 244 29.95 .853 1,375.4 46.84 77.61 .6035 .04 *7 12.59 1 52 240 29.92 .851 1,370.6 49.92 77.19 .6467 .04 II 8 1.01 1.02 56 225 29.86 .86 1,392.87 50.4 78.41 .6426 .04 u 9 1.03 1.05 60 212 29.85 .863 1,399.64 50.88 78.79 .6458 .04 u 10 1.09 1.11 32 264 30.25 .765 1,168.11 33.79 66.64 .5071 .04 | Gate. 11 1.15 1.16 30 251 30.48 .667 950.65 30.12 54.61 .5515 .04 f " 12 1.19 1.21 34 242 30.49 .67 957.11 32.91 55.03 .5982 .04 *. " 13 1.22 1.23 36 233 30.46 .672 961.43 33.55 55.23 .6075 .04 f " Waste = 14.352 cu. ft. per minute, deducted from discharge. October 18. National Wheel, Bristol, Conn. 25 Inches Diameter. & o OB g g 1 13 3 00 1 j| H !| 111 ll 9K II tc+j g . EEMAKKS. "bo g |H 03 S- a>K 2 o i? I 5 ' 03 ^ d EH* 32 a || a^ HT II 1 o'S O o 'o ^^" * EH f H u w w * P.M. P.M. Lbs. i 3.28 3.30 40 330.5 30.3 .787 1,219.15 52.88 69.66 .759 .04 Full Gate. 2 3.31 3.33 46 312 30.25 .804 1,258.84 57.41 72.05 .7968 .04 " 3 3.34 3.36 50 299 30.24 .814 1,282.38 59.8 73.13 .8177 .04 u 4 3.37 3.39 52 290 30.22 .818 1,291.8 60.32 73.62 .8191 .04 u 5 3.40 3.42 54 287.5 30.2 .825 1,308.4 62.1 74.52 .8334 .04 u 6 3.43 3.45 56 279 30.17 .826 1,310.81 62.49 74.58 .8379 .04 u 7 3.46 3.48 58 265 30.14 .832 1,325.1 61.48 75.32 .8163 .04 u 8 3.49 3.51 60 257.5 30.13 .837 1,337 61.8 75.97 .8135 .04 u 9 3.52 3.54 62 249 30.12 .84 1,344.2 61.75 76.34 .8089 .04 u 10 3.56 3.58 64 241.5 30.11 .844 1,353.77 61.82 76.87 .8042 .04 u 11 4 4.02 66 226.5 30.17 .848 1,363.2 59.8 77.56 .771 .04 u 12 4.11 4.12 32 312 30.67 .7 1,022.4 39.94 59.13 .6754 .04 f Gate. 13 4.13 4.14 36 292 30.7 .702 1,026.8 42.04 59.45 .7072 .04 f " Waste = 14.352 cu. ft. per minute, deducted from discharge. 111 October 19. E. T. Cope & Sons, West Chester, Pa. 30 Inches Diameter. d d S3 S3 1 o^ 11 TiraeofSto WeightLift' J Head on Wheels. a It ||| Horse-Pow of Wheel. Hcrse-Pow of Water. >. f| I* Waste on Weir. REMABKS. P.M. P.M. Lbs. 1 3.59 4 64 226 30.5 .903 1,497.68 57.86 86.14 .6716 .04 Full Gate. 2 4.03 4.04 60 240 30.55 .894 1,475.44 57.6 84.9 .6784 .04 a 3 4.05 4.06 60 245 30.54 .91 1,515.1 58.8 87.15 .6747 .04 u 4 4.08 4.09 56 272 30.3 .942 1,595.26 60.93 91.91 .6629 .04 u 5 4.10 4.11 58 266 30.26 .943 1,597.8 61.71 92.02 .6706 .04 U 6 4.12 4.13 60 255 30.2 .945 |l,602.88 61.2 91.59 .6682 .04 " 7 4.14 4.15 63 254 30 .954 1,625.69 64.01 91.98 .6959 .04 8 4.16 4.17 67 240 29.8 .958 1,635.8 64.32 91.93 .6996 .04 M 9 4.19 4.20 70 223 28.5 .954 1,625.69 62.44 87.38 .7146 .04 U 10* 4.37 4.38 64 274 30.15 1.032 1,827.6 70.14 103.92 .675 .04 it 11 4.41 4.42 76 267 29.65 1.035 1,835.3 78.13 102.62 .7613 .04 u 12 4.43 4.44 78 251 29.2 1.04 1,848.74 80.5 101.81 .7907 .04 11 13 4.45 4.46 80 241 28.8 1.04 1,848.74 77.12 100.41 .768 .04 Waste = 14.352, deducted from discharge as before. October 23. Thomas Tail, Rochester, N. Y., " Centennial Wheel." 25 Inches Diam. o 1 g to ~ S3 S3 I ^ 1 O q I&S i" U 11 g ri | No. of 1 ] IB CC Time of i P 1| W^ p SJa 2S5 5 * f ws i o ^3 o go (2^ 4S-S p REMARKS. P.M. P.M. Lbs. 1 12.42 12.44 30 331 31.12 .651 916.5 39.72 53.79 .7384 .04 Full Gate. 2 12.37 12.39 32 321.5 31.06 .655 925.01 41.15 54.18 .7595 .04 " 3 12.40 12.41 34 315 31.05 .661 937.82 42.84 54.91 .7801 .04 " 4 12.34 12.36 36 300 31.03 .664 944.24 43.2 55.25 .7818 .04 5 12.46 12.48 38 295 31.06 .668 952.84 44.84 55.81 .8033 .04 u 6 12.31 12.33 40 288.5 31 .672 961.43 46.16 56.21 .8212 .04 U 7 12.49 12.51 42 274 31.02 .677 972.24 46.03 56.87 .8093 .04 u 8 12.53 12.54 44 265 31.01 .68 978.75 46.64 57.24 .8148 .04 u 9 12.55 12.56 46 254 31.01 .683 985.25 46.74 57.62 .8112 .04 (( 10 12.57 12.58 48 243 31.02 .685 989.59 46.66 57.89 .806 .04 a 11 1.08 1.10 22 322.5 31.32 .539 688.7 28.38 40.68 .6977 .04 Gate. 12 1.04 1.06 24 302.5 31.32 .544 698.42 29.04 41.25 .7039 .04 f " 13 1.12 1.13 26 292 31.32 .548 706.25 30.37 41.71 .7282 .04 " 14 .18 1.20 20 277.5 31.45 .478 573.6 22.2 34.02 .6525 .04 i " 15 .21 1.22 21 265 31.44 .479 575.43 22.26 34.12 .6524 .04 i " 16 .24 1.25 22 258 31.44 .48 577.27 22.7 34.23 .6632 .04 i t( 17 .32 1.34 11 268.5 31.57 .37 387.03 11.81 23.04 .5125 .04 i " 18 .30 1.31 12 265 31.47 .373 391.89 12.72 23.26' .5469 .04 i " 19 .35 1.36 13 245 31.57 .377 398.41 12.74 23.72 .5571 .04 i " 20 1.43 1.44 7 255 31,6 .305 286.49 7.14 17.07 .4182 .04 1 " 21 1.39 1.41 8 235 31.59 .309 292.4 7.52 17.42 .4317 .04 1 " 5 22 1.47 1.48 5 277 31.61- .301 280.62 5.54 16.73 .3312 .04 1 (( 23 1.45 1.46 6 266 31.61 .303 283.58 6.38 16.9 .3767 .04 i " Waste of 14.352 cu. ft. deducted from discharge as before. The times of making the tests of this wheel are transposed in order to show the increase of weight in regular succession, with the corresponding increase in discharge. * Stopped for want of steam. These tests were not completed, the steam pumps being unable to sup* ply the necessary water, and the wheel consequently ran very unevenly. 112 October 31. GeyeUn>s Duplex Jonval Turbine. 36 Inches Diameter. R. D. Wood Co., Philadelphia. Outer Row of buckets only tested. i f jf . . ^3 E | - i " OQ 3 II |-i o!^ o il -3 QJ .{3 REMARKS. 1 | 1 I 1* wS ** IP E r | |f* A.M. A.M. Lbs. i 9.17 9.18 34 260 30.1 .7 1,022.38 35.36 58.1 .6086 .04 Full Gate. 2 9.19 9.20 36 255 30.1 .7 1,022.38 36.72 58.1 .632 .04 3 9.06 9.08 38 250 30.12 .702 1,026.8 38 58.39 .6508 .04 4 9.04 9.05. 40 240 30.1 .7 1,022.38 38.4 58.1 .661 .04 5 9.23 9.24 42 235 30.3 .703 1,029 39.48 58.86 .6707 .04 6 9.25 9.26 44 227 30.3 .703 1,029 39.95 58.86 .6787 .04 7 9.27 -9.28 46 220 30.3 .703 1,029 40.48 58.86 .6877 .04 8 9.29 9.30 48 215 30.3 .705 1 1,033.4 41.28 59.11 .6983 .04 9 9.31 9.32 50 208 30.3 .705 1,033.4 41.6 59.11 .7038 .04 10 9.34 9.35 52 200 30.3 .708 1,040.04 41.6 59.49 .6992 .04 11 9.37 9.38 54 19,6 30.28 .708 1,040.04 42.33 59.45 .712 .04 12 9.39 9.40 56 190 30.28 .708 1,040.04 42.56 59.45 .716 .04 u 13 9.41 9.42 58 181 30.28 .708 1,040.04 41.99 59.45 .7063 .04 u 14 9.44 9.45 60 170 30.28 .708 1,040.04 40.8 59.45 .6863 .04 tt Wheel bound in case ; taken out and eased and repeated trial November 1. Leak- age deducted as previously. P.M. P.M. Lbs. . 15 12.52 12.54 54 205 29.95 .716 1,057.76 44.28 59.81 .7405 .04 Full Gate. 16 12.55 12.56 56 199 29.96 .715 1,055.56 44.57 59.7 .7465 .04 c< 17 12.57 1258 58 191 29.96 .715 1,055.56 44.31 59.7 .7422 .04 <( 18 12.59 1 60 186 29.95 .717 1,059.99 44.64 59.98 .7442 .04 Wheel still too tight ; test stopped. November 2. Oeyelin Duplex Turbine. Both Rows of Buckets. P, o S S 1 1 s 1 *! |I Time of Sto WeightLift' Revolution per Min. Head on Wheels. il Cubic Feel Dischargee per Min. Horse-Pow of Wheel. Horse-Pow of Water. Percentag< of Effect. Waste on Weir. REMARKS. A.M. A.M. Lbs. 1 9.30 9.32 76 223.5 29.53 .942 ,595.28 67.94 88.93 .7639 .04 Full Gate. 2 9.36 9.38 80 217.5 29.55 .942 ,595.28 69.6 88.99 .7821 .04 M 3 9.39 9.41 84 204 29.58 .942 ,595.28 68.54 89.08 .7694 .04 " 4 9.42 9.44 88 195.5 29.58 .94 ,590.23 68.82 88.8 .775 .04 a 5 9.45 9.47 92 185.5 29.52 .938 ,585.2 68.264 88.33 .7711 .04 M 6 9.48 9.49 90 190 29.52 .938 ,585.2 68.4 88.33 .7739 .04 II 7 9.52 9.54 86 197 29.52 .94 ,590.2 67.77 88.62 .7647 .04 U 8 9.55 9.56 82 206 29.56 .943 1,597.8 67.57 89.17.7581 .04 U 9 10.04 10.06 89 189 29.56 .938 1,585.2 67.284 88.46 .7606 .04 Waste = 14.352 cu. ft. per minute, deducted from discharge. This wheel was now withdrawn, the step having worn down one quarter of an inch for want of lubrication, and from the fact that the testing flume was not solid enough to stand the pressure of the water without springing so as to cause the wheel, which was very closely fitted, to bind and wear in its case. 113 November 3. Geyelin Single Jonval Turbine. 36 Inches Diameter. JR. D. Wood & Co., Philadelphia. 0. w 1 *g 2 fe R . o * a "S^ - i-rf 1 : fcc+J H 'o O^j o s- 02 3 3 S ll |3 || S^? 1 Is cj li l| ill Pkjjj 11 P fl REMARKS. 1 I 0"^ w W oS^ IP 1 1* * P.M. P.M. Lbs. 1 4.42 4.44 64 245.5 30.05 .965 1,653.33 62.848 93.79 .6701 .04 Full Gate. 2 4.45 4.47 66 236.5 29.7 .965 1,653.33 62.436 92.66 .6738 .04 1 3 5.05 5.07 68 236 29.7 .975 1,679.33 64.19 94.09 .6822 .04 1 4 5.08 5.10 70 231 29.55 .98 1,692.38 64.68 94.42 .685 .04 i 5 5.12 5.13 72 223 29.45 .983 1,699.88 64.224 94.51 .6795 .04 i 6 5.19 5.20 74 210 29.05 .973 1,674.2 62.16 91.81 .677 .04 t 7 5.23 6.24 76 201 28.75 .978 1,687 61.1 91.56 .6673 .04 u 8 5.28 5.29 46 259 29.8 .84 1,344.2 47.656 75.62 .6296 .04 i Gate. 9 5.41 5.42 60 252 29.7 .845 1,356.2 60.4 76.04 .6628 .04 ^ l 10 5.43 5.44 54 242 29.48 .854 1,377.85 52.272 78.47 .6661 .04 i ' 11 5.45 5.46 68 230 29.38 .859 1,389.93 53.36 77.09 .6921 .04 i i 12 6 6.01 34 180 30.95 .548 706.24 24.752 41.26 .5998 .04 i ' 13 6.02 6.03 34 181 30.95 .547 704.28 24.616 41.15 .5982 .04 i ' 14 6.04 6.05 28 204 30.95 .535 680.96 22.848 39.79 .5742 .04 Gear on Gate- 15 6.06 6.07 24 229 30.97 .527 665.65 21.984 38.91 5649 .04 Shaft loose,& Gate closed 16 6.08 6.09 24 224 30.98 .525 661.69 21.5 38.7 5556 .04 itself grad'ly. Waste, 14.352 cu. ft. per minute, deducted from discharge. This test was completed by lamplight, at the close of the Exhibition, and some of the latter observations may not be exactly correct, but their general correspondence is evidence that they are not far out of the way. KOYING- AND YAKN TABLES. TABLE FOR NUMBERING ROVING BY GRAINS, TROY WEIGHT. *t I* si gw i! 1 ih ji II 11 ll ^ II ! tf ^M 11 ** *& ** *& a n *3 5 I n &$ | l .1 83.83 70,000 1.3 6.41 5,384 3* 2.38 2,000 6f .234 1,037 .15 55.56 46,666 1.4 5.95 5,000 3f 2.22 1,866 7 .19 1,000 .2 41.66 35,000 1.5 5.55 4,666 4 2.08 ,750 7 .149 965.5 .3 27.77 23,333 1.6 5.2 4,375 4J- 1.96 ,647 71 .111 933.3 .4 20.83 17,500 1.7 4.9 4,117 4.| 1.85 ,555 .075 903.2 .5 16.66 14,000 1.8 4.62 3,888 4f 1.75 ,473 8 .041 875 .6 13.88 11,666 1.9 4.38 3,684 5 1.66 ,400 8i 1.01 848.4 .7 11.9 10,000 2 4.16 3,500 5J 1.58 ,333 8* .98 823.5 .8 10.41 8,750 2i 3.7 3,111 5^ 1.51 ,272 8f .952 800 .9 9.25 7,777 2* 3.33 2,800 5f 1.44 1,217 9 .925 777.77 1 8.33 7,000 2| 3.03 2,545 6 1.38 1,166 1.1 7.57 6,363 4: 3 2.77 2.333 64- 1.33 1,120 1.2 6.94 5,833 2.56 2153 "* 64- 1.28 1,076 jj4W U 1T TABLE FOR NUMBERING YARN BY GRAINS, TROY WEIGHT. No. of Yarn. Grains per Hank. No. of Yarn. Grains per Hank. No. of Yarn. Grains per Hank. No. of Yarn. Grains per Hank. No. of Yarn. Grains per Hank. 9 777.77 Ht 622.22 13| 518.51 15* 444.44 18 388.88 9 756.75 11* 608.69 13f 509.09 16 437.5 18t 383.56 *i 736.84 HI 595.74 14 500 lt 430.76 18| 378.37 9f 720.51 12 583.33 Mt 491.22 16i 424.24 18f 373.33 10 700 12i 571.42 14| 482.75 16f 417.91 19 368.42 lot 682.92 m 560 14f 474.57 17 411.76 191 363.63 10* 666.66 12f 649.01 15 466.66 17i 405.79 19i 358.97 lOf 651.16 13 546.15 li 459.01 m 400 19| 354.43 11 636.36 13 526.11 15* 451.61 17| 394.36 20 ' 350 116 TABLE FOR NUMBERING YARN BY GRAINS. (Continued.) No. of Yarn. Grains per Hank. No. of Yarn. Grains per Hank. No. of Yarn. Grains per Hank. No. of Yarn. Grains per Hank. No. of Yarn. Grains H^nk. 20J 344.44 H 222.22 42f 163.74 54 129.62 81 86.4 20 341.46 31f 220.47 43 162.79 64i 129.03 82 85.4 20f 337.34 32 218.75 43 161.84 54i 128.44 83 84.3 21 333.33 32- 217.05 43i 160.91 54f 127.85 84 83.3 21* 329.41 324 215.38 43f 160 55 127.27 85 82.4 21* 325.58 82| 213.74 44 159.69 55J 126.69 86 81.4 21f 321.83 33 212.12 44i 158.19 55 126.12 87 80.4 22 318.18 33J 210.52 44i 157.41 55f 125.56 88 79.5 22J 314.6 334 208.95 44f 156.42 56 125 89 78.6 224 311.11 33f 207.4 45 155.55 56i 124.49 90 77.8 22f 307.69 34 205.88 45J 154.69 56| 123.89 91 76.9 23 304.34 34^ 204.3 45| 153.84 66f 123.34 92 76.1 23J 301.07 344 202.89 45f 152.95 67 122.8 93 75.3 234 297.87 34f 201.43 46 152.17 57i 122.27 94 74.5 23f 294.73 35 200 46J 151.3 57 121.73 95 73.7 24 291.66 85J 198.58 46| 140.53 67f 121.21 96 72.9 24 288.65 354 197.32 46f 149.73 68 120.68 97 72.3 244 285.71 35| 195.8 ' 47 148.93 58 120.17 98 71.4 24f 282.82 36 194.44 47i 148.14 58^ 119.65 99 70.7 25 280 36 i 193.1 47i 147.34 58f 119.14 100 70 25J 277.22 364 191.78 47f 146.59 59 118.47 105 66.7 254 274.5 36 190.47 48 145.83 59^ 118.14 110 63.6 25| 271.84 37 189.18 48i 145.07 694 117.64 115 60.9 26 269.23 37i 187.91 48i 144.32 59f 117.15 120 58.3 26J 266.66 374 186.66 48| 143.58 60 116.66 125 56 264 264.15 37f 185.42 49 142.85 61 114.8 130 53.8 26f 261.68 38 184.21 49i 142.13 62 112.9 135 51.8 27 259.25 38i 183 49i 141.41 63 111.1 140 50 27J 256.88 384 181.81 49f 140.7 64 109.3 145 48.3 274 254.54 38f 180.63 60 140 65 107.7 150 46.7 27f 252.52 39 179.48 50i 139.3 66 106.1 155 45.2 28 250 39 178.34 60^ 138.61 67 104.4 160 43.8 28 247.78 394 177.21 50f 137.93 68 102.9 165 42.4 284 245.61 39| 176.1 51 137.29 69 101.4 170 41.2 28f 243.46 40 176 Bl* 136.58 70 100 175 40 29 241.37 40i 173.91 6H 135.92 71 98.6 180 38.9 29J 239.31 40| 172.83 51f 135.26 72 97.2 185 37.8 294 237.28 40f 171.77 52 134.61 73 95.9 190 36.8 29| 235.29 41 170.73 52 133.97 74 94.6 195 35.9 30 233.33 41* 169.69 62^ 133.33 75 93.3 200 35 30i 231.4 41| 168.67 52f 132.7 76 92.1 . . . 304 229 .5 41f 167.66 63 132.07 77 90.9 . . . .... 30f 227.64 42 166.66 53 131.45 78 89.7 .... 81 225.8 42i 165.68 53| 130.84 79 88.6 . . . .... 31i 224.08 42| 164.7 63f 130.23 80 87.5 .... 117 ENGLISH TABLE Showing the quality of Warp Yarn, by the weight, that one semnth of a hank, or eighty turns of a yard-and-a-half reel from one bobbin, will bear before breaking, given in pounds and ounces. ORDINARY QUALITY. FAIR QUALITY. GOOD QUALITY. EXTRA QUALITY. SUPER-EXTRA QUALITY. No. Tarn. Breaking Weight. No. Yarn. Breaking Weight. No. Yarn. Breaking Weight. No. Yarn. Breaking Weight. No. Yarn. Breaking Weight. 10 Lbs. Oz. 115 10 10 Lbs. Oz. 120 8 10 Lbs. Oz. 125 6 10 Lbs. Oz. 130 4 10 Lbs. Oz. 135 3 11 102 4 11 104 7 11 106 10 11 108 14 11 111 2 12 96 15 12 99 2 12 100 5 12 103 8 12 105 12 13 91 14 13 93 15 13 96 13 98 2 13 100 4 14 89 12 14 91 12 14 93 13 14 95 14 14 97 15 15 83 12 15 85 10 15 87 8 15 89 7 15 91 6 16 81 11 16 83 8 16 85 6 16 87 4 16 89 2 17 76 14 17 78 10 17 80 6 17 82 2 17 83 14 18 72 10 18 74 4 18 75 14 18 77 8 18 79 3 20 67 14 20 69 6 20 70 14 20 72 7 20 74 22 61 11 22 63 1 22 64 7 22 65 14 22 67 5 24 58 10 24 59 15 24 61 4 24 62 9 24 63 15 26 54 10 26 55 13 26 57 1 26 58 5 26 59 9 28 50 4 28 51 6 28 52 8 28 53 10 28 54 13 30 48 11 30 49 12 30 50 13 30 51 14 30 53 32 45 9 32 46 7 32 47 5 32 48 3 32 49 2 34 44 6 34 45 6 34 46 6 34 '47 6 34 48 6 36 41 14 36 42 13 36 43 12 36 44 11 36 45 11 38 39 11 38 40 9 38 41 7 38 42 6 38 43 5 40 38 15 40 39 13 40 40 11 40 41 9 40 42 8 42 37 13 42 38 10 42 39 8 42 40 6 42 41 4 44 35 7 44 36 3 44 37 44 37 13 44 38 10 46 33 13 46 34 9 46 35 6 46 36 1 46 36 14 48 32 3 48 32 14 48 34 9 48 34 5 48 35 1 60 32 2 50 32 13 50 33 8 50 34 4 50 35 55 30 8 55 31 3 55 31 14 55 32 9 55 33 5 60 27 10 60 28 4 60 28 14 60 29 8 60 30 2 65 25 8 65 26 1 65 26 10 65 27 3 65 27 13 70 24 6 70 24 15 70 25 8 70 26 1 70 26 10 75 22 12 75 23 4 75 23 12 75 24 4 75 24 13 80 22 80 22 8 80 23 80 23 18 80 24 85 20 4 85 20 13 85 21 6 85 21 15 85 22 8 90 19 8 90 19 3 90 19 14 90 20 9 90 21 5 95 18 8 95 18 14 95 19 5 95 19 12 95 20 3 100 18 4 100 18 10 100 19 100 19 6 100 19 12 110 15 10 110 16 110 16 5 110 16 11 110 17 120 15 8 120 15 13 120 16 2 120 16 7 120 16 13 130 14 4 130 14 9 130 14 14 130 15 3 130 15 9 140 13 10 140 13 15 140 14 4 140 14 9 140 14 14 150 12 7 150 12 11 150 12 15 150 13 4 150 13 9 160 12 4 160 ]2 8 160 12 12 160 13 160 13 5 170 11 9 170 11 13 170 12 1 170 12 5 170 12 9 180 10 10 180 10 13 180 11 1 180 11 5 180 11 9 190 10 9 190 10 12 190 11 190 11 4 190 11 8 200 10 4 200 10 7 200 10 11 200 10 15 200 11 3 210 9 13 210 10 210 10 3 210 10 7 210 10 11 220 9 13 220 9 15 220 10 1 220 10 4 220 10 7 118 ENGLISH TABLE. (Continued.) OBDINABY QUALITY. - FAIB QUALITY. GOOD QUALITY. EXTBA QUALITY. SUPEB-EXTBA QUALITY. No. Yarn. Breaking Weight. No. Yarn. Breaking Weight. No. Yarn. Breaking Weight. No. Yarn. Breaking Weight. No. Yarn. Breaking Weight. Lbs. Oz. Lbs. Oz. Lbs. Oz. Lba. Oz. Lbs. Oz. 230 9 3 230 9 6 230 9 9 230 9 12 230 10 240 8 14 240 9 1 240 9 4 240 9 7 240 9 11 250 8 10 250 8 13 250 9 250 9 3 250 9 7 260 8 8 260 8 11 260 8 14 260 9 1 260 9 4 270 8 3 270 8 6 270 8 9 270 8 12 270 8 15 280 8 1 280 8 4 280 8 7 280 8 10 280 8 13 290 7 12 290 7 15 290 8 2 290 8 5 290 8 8 300 7 11 300 7 13 300 8 8 300 8 3 300 8 6 310 7 7 310 7 9 310 7 12 310 7 15 310 8 2 320 7 6 320 7 8 320 7 10 320 7 13 320 8 330 7 2 330 7 4 330 7 17 330 7 10 330 7 13 340 6 15 340 7 1 340 7 3 340 7 6 340 7 9 350 6 14 350 7 350 7 2 350 7 5 350 7 8 ENGLISH TWIST TABLE. Showing the square root of the numbers or counts from I to 100 hanks in the pound, with the twists per inch for different kinds of yarn. Counts or Numbers. Square Boot. Frame Warp Twist. Extra Mule Twist. Mule Twist. Filling Twist. Twist for Doubling. Hosiery Yarn. 1 1 4.75 4 3.76 3.26 2.75 2.5 2 1.4142 6.71 5.65 6.3 4.6 3.88 3.53 3 1.732 8.22 6.92 6.49 5.62 4.76 4.33 4 2 9.6 8 7.6 6.6 5.5 5 5 2.236 10.62 8.94 8.37 7.25 6.14 6.59 6 2.4494 11.63 9.79 9.18 7.96 6.73 6.12 7 2.6457 12.56 10.58 9.92 8.59 7.27 6.61 8 2.8284 13.43 11.31 10.5 9.19 7.77 7.07 9 3 14.25 12 11.25 9.75 8.25 7.5 10 3.1622 15.02 12.64 11.85 10.27 8.79 7.9 11 3.3166 15.75 13.26 12.43 10.77 9.12 8.29 12 3.4641 16.46 13.85 12.99 11.25 9.52 8.66 13 3.6055 17.12 14.42 13.55 11.71 9.91 9.01 14 3.7416 17.77 14.96 14.03 12.16 10.28 9.35 16 3.8729 18.39 15.49 14.52 12.48 10.65 9.68 16 4 19 16 15 13 11 10 17 4.1231 19.58 16.49 15.46 13.4 11.33 10.3 18 4.2426 20.15 16.97 15.9 13.78 11.66 10.6 19 4.3588 20.7 17.43 16.34 14.16 11.98 10.8 20 4.4721 21.14 17.88 16.77 14.53 12.29 11.18 21 4.5825 21.76 18.33 17.18 14.8 12.6 22 4.6904 22.27 18.76 17.58 15.24 12.8 119 ENGLISH TWIST TABLE. ( Continued) Counts or Numbers. Square Koot. Frame "Warp Twist. Extra Mule Twist. Mule Twist. Filling Twist. Twist for Doubling. Hosiery Yarn. 23 4.7958 22 78 19 18 1798 15 58 13 18 24 4.8089 23.26 19 59 18.37 1592 13.47 25 5 23.75 20 18.75 16.25 13.75 26 5.099 24.22 2039 19 11 16 57 1402 27 5.1961 24.63 2078 19.48 16 88 14.28 28 6.2915 25 13 21 16 19 84 17 19 14 65 29 6.3861 25.57 21 54 20 19 1749 148 30 6.4772 2601 21 9 20.58 178 15.06 31 32 6.5677 6.6568 26.44 26.86 22.27 22 62 19.77 21 21 18 1838 15.31 15 55 33 6.7745 27.42 23.09 22.64 18.75 15.87 34 35 6.8309 5.916 27.69 28.1 23.32 23 66 21.86 22 18 18.95 19 22 16.03 16 27 36 6 28.5 24 22 5 19 5 16.5 37 38 39 6.0827 6.1644 6.2449 28.89 29.28 29.66 24.33 24.65 2498 22.81 23.11 2341 19.76 20.03 2029 16.72 16.95 17.17 40 63245 3004 25 29 23 71 20 55 1739 41 6.4031 30.42 25 61 2401 2081 17 6 42 43 6.4807 6 5574 30.78 31 14 25.92 26 22 24.3 24 59 21.05 21 31 17.82 18 03 44 45 6.6332 6 7082 31.5 31 86 26.53 26 83 24.87 25 15 21.55 21 8 18.24 18 44 46 6 7823 32 21 27 12 25 43 22 04 18 65 47 6.8556 32 56 2742 267 2228 1885 48 6 9282 32 9 27 71 25 98 22 51 18 95 49 50 51 7 7.071 7 1414 33.25 33.58 33 92 28 28.28 28 56 26.25 26.51 26 78 22.75 22.98 23 2 19.25 19.44 19 63 52 72111 3425 28 84 2704 23 43 19 83 53 7 2807 34 58 29 12 27 3 23 66 20 02 54 73484 34 9 29 39 27 55 23 88 202 65 7.4161 35.22 29 66 2781 24 1 2039 56 7 4833 .35 54 29 93 28 06 24 32 20 67 67 7 5498 35 86 30 2 28 31 24 53 2076 58 7.6157 36.17 3046 28 65 2475 2094 69 7 6811 36 53 30 72 28 8 24 96 21 14 60 7.7459 36 79 3098 2904 25 17 21 3 61 7 8102 37 09 31 24 29 28 55 38 21 47 62 63 64 65 7.874 7.9372 8 8.0622 37.4 37.7 38 38 29 31.49 31.74 32 32 24 29.52 29.76 30 3023 25.59 25.79 26 26 2 21.65 21.82 22 22 17 66 67 68 69 70 71 72 73 74 75 8.124 8.1853 8.2462 8.3066 8.3666 8.4261 8.4852 8.544 8.6023 8.6602 38.58 38.88 39.16 39.45 39.74 40.02 40.3 40.58 40.86 41.13 32.49 32.74 32.98 33.22 33.46 33.7 33.94 34.17 34.4 34.64 30.46 30.69 30.92 31.14 31.37 31.59 31.81 32.03 32.25 32.47 26.4 26.6 26.8 26.99 27.17 27.38 27.57 27.76 27.95 28.14 22.34 22.5 22.67 22.84 23 23.17 23.33 23.48 23.65 23.81 120 ENGLISH TWIST TABLE. (Continued.) Counts or Numbers. Square Boot. Frame Warp Twist. Extra Mule Twist. Mule Twist. Filling Twist. Twist for Doubling. Hosiery Yarn. 76 8.7177 41.4 34.87 32.69 28.33 23.97 77 8.7749 41.68 35.09 32.9 28.51 24.13 78 8.8317 41.95 35.82 33.17 28.6 24.28 79 8.8881 42.21 35.55 33.33 28.88 24.44 80 81 8.9442 9 42.48 42.75 35.77 36 33.54 33.75 29.06 29.25 24.59 24.75 82 9.0553 43.01 36.22 33.95 29.42 24.9 83 9.1104 43.26 36.44 34.16 29.6 25.05 84 9.1651 43.53 36.66 34.36 29.78 25.2 85 86 87 9.2195 9.2736 9.3273 43.79 44.04 44.3 36.87 37.09 37.28 34.57 34.77 34.97 29.96 30.13 30.31 25.35 25.5 25.65 88 89 90 91 9.3808 9.4339 9.4868 9.5393 44.55 44.81 45.06 45.31 37.52 37.73 37.94 38.15 35.17 35.37 35.47 35.77 30.48 30.66 30.83 31 25.79 25.94 26.08 26.23 92 9.6916 45.56 38.36 35.96 31.17 26.37 93 9.6436 45.8 38.57 36.16 31.34 2651 94 9.6953 46.05 38.78 36.35 31.5 26.66 95 9.7457 46.19 38.98 36.55 31.67 26 8 96 9.7979 46.54 39.19 36.74 31.84 26.94 97 98 9.8488 9.8994 46.78 47.02 39.39 3959 36.93 37.11 32 32.17 27.08 27 22 99 9.9498 47.26 39.79 37.31 32.36 27.36 100 10 47.5 40 37.5 32.5 27.5 ROVING TWIST TABLE. Showing twists per inch and the laps per inch on the bobbins, according to the size of the roving. , Hank Boving. Square Boot. Twist per Inch. Coils per Inch on Bobbin. Hank Boving. Square Boot. Twist per Inch. Coils per Inch on Bobbin. i .7071 .848 6.576 2 1.4142 1.697 13.152 1 .791 .949 7.358 H 1.4577 1.749 13.556 1 .866 1.039 8.052 2i 1.6 .8 13.95 I .9354 1.122 8.699 2 1.5411 .849 14.331 1 1 1.2 9.3 2i 1.5811 .897 14.704 H 1.0606 1.272 9.863 2f 1.6201 .944 15.067 1* 1.118 1.341 10.397 2f 1.6583 .989 15.422 if 1.1726 1.407 10.805 21 1.6956 2.034 15.768 H .2247 1.469 11.389 3 1.732 2.078 16.107 H .2747 1.529 11.849 i 1.7677 2.121 16.439 l .3228 1.587 12.302 3 L 1.8027 2.163 16.765 i* .3688 1.643 12.734 *! 1.8371 2.204 17.086 121 ROVING TWIST TABLE. (Continued.) Hank Boving. Square Boot. Twist per Inch. Coils per Inch on Bobbin. Hank Roving. Square Boot. Twist per Inch. Coils per Inch on Bobbin. 8* 1.8708 2.244 17.391 8* 2.9154 3.498 27.113 H 1.9034 2.284 17.701 2.9368 3.524 27.312 3f 1.9364 2.323 18.202 8f 2.958 3.549 27.509 1.9685 2.362 17.313 2.979 3.574 27.705 4 2 2.4 18.6 9 3 3.6 27.9 H 2.031 2.437 18.886 H 3.0201 3.624 28.092 4* 2.0615 2.473 19.165 H 3.0413 3.649 28.284 4 2.0918 2.509 19.444 9f 3.0618 3.674 28.475 2.1213 2.545 19.723 3.0824 3.698 28.664 4 2.1505 2.58 20 9f 3.1024 3.722 28.852 4f 2.1794 2.615 20.268 91 3.1224 3.746 29.039 44 2.2078 2.649 20.533 94 3.1424 3.77 29.224 5 2.236 2.683 20.793 10 3.1622 3.794 29.409 6* 2.2638 2.716 21.053 10* 3.1815 3.817 29.582 6* 2.2912 2.749 21.308 10* 3.2015 3.841 29.774 5f 2.3184 2.782 21.561 10f 3.221 3.865 29.945 * 2.3452 2.814 21.81 10* 3.2403 3.888 30.135 2.3717 2.846 22.057 iot 3.2596 3.911 30.314 5f 2.3979 2.877 22.3 lOf 3.2788 3.934 30.492 2.4238 2.908 22.541 104 3.2975 3.957 30.663 6 2.4494 2.939 22.78 11 3.3166 3.979 80.834 6* 2.4748 2.969 23.009 11* 3.3354 4.002 31.016 6i 2.5 3 23.25 ni 3.3541 4.024 31.193 8f 2.5248 3.029 23.48 ill 3.3726 4.047 31.365 H 2.5495 3.059 23.71 tl* 3.3911 4.069 31.537 2.5739 3.088 23.938 3.4095 4.091 31.706 6f 2.598 3.117 24.161 nf 3.4278 4.113 31.878 64 2.622 3.146 24.384 3.446 4.135 32.047 7 2.6457 3.174 24.605 12 3.4641 4.156 32.216 7* 2.6692 3.203 24.823 12* 3.482 4.178 32.382 7* 2.6925 3.231 25.04 18* 3.5 4.2 32.55 Vf 2.7156 3.258 25.255 3.5176 4.221 32.716 2.7386 3.286 25.468 18* 3.5355 4.242 32.885 7f 2.7613 3.313 25.679 12f 3.5531 4.263 33.043 7f 2.7838 3.34 25.89 12f 3.5707 4.284 33.208 2.8062 3.367 26.107 3.5881 4.305 33.369 8 2.8284 3.394 26.304 13 3.6055 4.326 33.536 8* 2.8504 3.42 26.519 14 3.7416 4.489 34.797 8* 2.8722 3.446 26.712 15 3.8728 4.647 36.017 8* 2.8939 3.472 26.913 8 122 RULE BY WHICH TO FIND THE DRAFT OF ANY SPINNING MACHINE. Write down the number of teeth in all the driving wheels and multiply them together. Then write down the number of teeth in all the wheels that are driven, and multiply them together in like man- ner. If there is any difference in the diameter of the rollers, multiply the least, or driver's product, by the diameter of the back roller, which is also a driver, and the largest product, or that of the driven wheels, by the diameter of the front roller, which is also driven. Divide the sum of the driven wheels by that of the drivers, and the quotient will be the draft of the machine. EXAMPLE. Drivers. Driven 20 64 18 30 160 1920 20_ 8 360 2520 ) 15360 ( 6.1 draft of frame, nearly. 7 15120 2520 240 remainder = .1, nearly. To FIND THE DRAFT ON A MULE. Suppose the driving pinion on the front roller is 20 ; stud carrier, 74 ; change pinion attached to the carrier, 32 ; this drives the back roller by a wheel of 68. The diameter of the front roller is one inch, and that of the back roller seven eighths of an inch. RULE. Multiply the change pinion, 32, by the front-roller pinion, 20, and that product by 7, the diameter of the back roller being seven eighths of an inch. Multiply the number of teeth in the stud carrier, 74, by the number in the roller wheel, 68, and that product by 8, the diam- eter of the front roller being eight eighths of an inch. Divide the greater number by the less, and the quotient will be the draft of the mule. EXAMPLE. Drivers. Driven. 32 74 20_ _68 640 . 592 __7 diam. back roller. ' 444 4480 6032 8 diam. front roller. 4480 ) 40256 ( 9, Ans. The draft is nearly 1 into 9. 40320 123 RULE BY WHICH TO FIND THE NUMBER OF TWISTS PER INCH IN THE YARN. Multiply the number of revolutions of the front roller by its cir- cumference, and divide the number of revolutions of the spindle per minute by that product. EXAMPLE. 91 revolutions of front roller per minute 3f inches circumference of roller. 273 13 Inches per minute, 286 ) 6000 ( 21 twists to 1 inch, nearly. 672 280 ' 286 To number the yarn produced from a given drawing or sliver : Measure off a convenient number of yards of sliver ; multiply this number by extent of drawing on roving and spinning heads ; then multiply by 8-j- and divide by the weight, which will give the number of yarn produced from the given sliver. EXAMPLE. Take 2 yards of sliver weighing 20 grains ; 2 x 5, the draw on roving, =10 x 10, 833 3 the draw on spinning ; 100 x 8 = grains = the number, 41.6 To determine the number of hanks or decimal parts of hanks to the pound, for carding ', drawing, stubbing, roving, and yarn, according to a given number of yards reeled or measured : Multiply the number of yards by 8-J and divide by their weight ; the quotient will be the hanks or decimal parts of hanks required. To determine what weight a given length of drawing, slubbing, roving, or yarn should be to equal a given number of hanks or deci- mal parts of hanks required: Multiply the given number of yards in length by &J and divide by the number of hanks or decimal parts of hanks required ; the quotient will be the weight of the given length of drawing, roving, or yarn required. To number the yarn produced by roving : Reel or measure off a convenient number of yards of roving ; multiply this number by ex- tent of drawing or spinning heads. This product multiplied by 8-J and divided by its weight will give the number of yarn which would be made from the roving. 124 EXAMPLE. Suppose 5 yards of roving weigh 20 grains, then 6 x 10 drawing = 60 x 8 = grains = 20.8, the number. 20 To change from one number to another on a mule or spinning frame when the draft and roving have both to be altered: Multiply the number of yarn, the yarn being spun, by the hank roving desired, and that product by the number of teeth in the change pinion being used ; divide the product thus obtained by the number of yarn de- sired, multiplied by the hank roving being used. The quotient will show the change pinion required. To change from one number to another without changing the rov- ing : Multiply the number of teeth in the change pinion in use by the number of yarn being spun. The product, divided by the desired number of yarn, will give the change pinion required. For the above tables the writer is indebted to Messrs. George Draper & Sons, of Hopedale, Mass. HISTORICAL SKETCH OP THE COMMENCEMENT AND PEOGKESS OP THE COTTON MANUFACTURE IN THE UNITED STATES UP TO 1876. HISTOEIOAL 'SKETCH. CHAPTER I. THE history of cotton manufacturing in the United States is so in- separably interwoven with that of its progress in Europe, its growth has been so rapid, and its results have exercised such an enormous in- fluence on our national welfare, that it is necessary and advisable, be- fore attempting to describe it, to examine its history in England, where machinery was first applied to this purpose, and note its prog- ress up to the time when the first spindles were set in motion on this side of the Atlantic ; and to do this I shall have occasion to quote from the various works of Dr. Andrew Ure on the subject and from Baines's " History of the Cotton Manufacture in Great Britain." The words " calico," " muslin," and " nankeen " bear testimony to the Asiatic origin of the cotton fabrics bearing those names, which had been imported into Europe long before any attempt was made there to spin the fiber of which they were composed ; and any inquiry into the origin or date of the cotton plant' and the fabrics produced from it previous to the invention of machinery for the purpose may be dismissed with a short notice as foreign to our subject. The first record of the introduction of the cotton fiber into Eng- land is in the year 1641, in a little treatise on trade, called " Treasure of Train" c," by Lewis Roberts, in which he says : " The town of Man- chester buys the linen yarn of the Irish in great quantity, and, weaving it, returns the same again in linen into Ireland to sell. Neither does her industry rest here, for they buy cotton wool in London that comes from Cyprus and Smyrna, and work the same into fustians, vermil- lions, and dimities, which they return to London, where they are sold ; and from thence not seldom are sent into foreign parts, where the first materials may be more easily had for that manufacture." Were it not for the distinct reference to Cyprus and Smyrna, it would be somewhat doubtful even here if cotton was really the article spun, as the word " cotton " seems to have been indifferently " used for * coating ' in the English works of that day, and denoted a species of woolen stuff made for that purpose." (Ure, " Origin and Progress of Cotton Manufacture," vol. i., p. 30.) Be this as it may, the amount of cotton used in England was com- paratively trifling until the invention of Arkwright in 1768, and it was only in 1774 that it was made lawful by act of Parliament to wear fabrics composed wholly of cotton. Ure says that " the imports of cotton wool from the end of the seventeenth century till the middle of the eighteenth seem, however, to have remained in a stationary condi- tion. In fact, the quantity was only 24,000 or 25,000 Ibs. less than 2,000,000 in each of the years 1697, 1701, and 1720. But in 1730 it had fallen to a little more than 1,500,000, and in 1740 it was only 1,660,000. In 1750 it rose to about 3,000,000, and in 1764 it amounted to nearly 4,000,000, betokening the auspicious noonday of the cotton trade of England. The importation of cotton wool was greatly kept in check by the large importation of East Indian cotton goods, which continued with fluctuations during the whole of the eighteenth cen- tury, with the exception of a short period toward its close, after the application of the machinery of Arkwright to spin warp, and that of Crompton to spin weft for muslin in general." Ure also says that " almost all the cotton consumed in the British manufactures was ob- tained from the West Indies and British Guiana prior to the year 1794, with the exception of a little from India and the Levant for the fustian trades, and a still smaller quantity from the Brazils and the Isle of Bourbon for the finer muslin yarns " ; and the supply for 1787 is given by him as follows : British West Indian 6,800,000 Ibs. French and Spanish Colonies 6,000,000 Dutch " 1,700,000 Portuguese " 2,500,000 Isle of Bourbon 100,000 Smyrna and Turkey 5,700,000 22,800,000 " And 26,000,000 Ibs. may be considered as the extreme till the appear- ance in England of cotton from America, which happened, according to Baines, in 1784, when " eight bags of cotton arrived at Liverpool in a vessel from Savannah, and were seized by the customs authorities on the ground that they could not possibly have been the produce of the country whence they were exported." Leaving this matter of the supply of cotton for a while, let us return to the history of its manu- facture by machinery. The first successful patent for drawing cotton by means of rollers revolving at different speeds, which is the whole basis of cotton spin- ning, was granted to Richard Arkwright in 1769 ; and in 1771, in con- nection with Samuel Need, a considerable manufacturing hosier of Not- tingham, and Jedediah Strutt, of Derby, the inventor of the frame for making ribbed stockings, he erected the first water spinning mill at Cromford, on the Derwent River in Derbyshire, and in 1775 obtained his second patent, which covered the whole train of operations in a spinning factory. After Arkwright had at great expense got his mills into successful operation, there arose a number of claimants to different parts of his invention, and it seems probable that crude attempts had been made by other parties at various times, but unsuccessfully, to do that which he succeeded in accomplishing. At nearly the same time with Arkwright's invention of the "water- frame," as it was called, the spinning jenny was patented by James Hargreaves, differing in principle from Arkwright's process of rollers by having a reciprocating motion and drawing out and twisting the yarn at the same time by the motions of the carriage and spindles, which were, however, separate in the jenny ; the spindles being sta- tionary, and the carriage or draw-bar operated with the left hand, regulating the delivery of the roving. From the " water-twist-frame " of Arkwright and the " jenny " of Hargreaves, in 1770, Samuel Crompton, of Bolton, constructed the "mule" in 1776, which, however, did not come into general use until about 1786, on the abrogation of Arkwright's patent, taking its name of " mule " from its joint parentage. About the same time an ingenious mechanic of Stockport con- structed the " slubbing-billy," a combination of the jenny and the mule, which was used for drawing out the loose " slab " or " slubbing " of wool as delivered from the card, and giving it a partial twist, form- ing a soft " roving," which was afterward spun into yarn. In giving Arkwright the credit for the first successful patents for machinery for cotton carding and spinning, it is not my intention to ignore the claims of other parties who had previously made attempts to accomplish the same object by very similar means, and I will there- fore briefly mention them. According to Dr. Ure, a patent was granted in 1738 to Lewis Paul, of Birmingham, for " spinning wool and cotton by rollers," but evidence shows the real inventor to have been John Wyatt, of the same town. I quote from Ure as follows : "An interesting notice of Mr. Wy- att's contrivances for spinning cotton was published by his son, Mr. Charles Wyatt, in the * Repertory of Arts, Manufactures, and Agricul- ture ' for January, 1818, of which his brother, Mr. John Wyatt, was then editor. The following extracts contain the substance of the communication : 'In the year 1730 or thereabouts, living then at a vil- lage near Litchfield, our respected father first conceived the project and carried it into effect ; and in the year 1733, by a model of about two feet square, in a small building near Sutton Coldfield, without a single witness to the performance, was spun the first thread of cotton ever produced without the intervention of the human fingers, he, the inventor, to use his own words, " being all the time in a pleasing but trembling suspense." The wool had been carded in the common way, and was passed between two cylinders, whence the bobbins drew it by means of the twist?" This certainly is not Arkwright's invention, where the " sliver " of cotton is drawn between " pairs of rollers," de- scribed by him in this manner in his patent, viz., " Four pairs of roll- ers, the forms of which are drawn in the margin, which act by tooth and pinion made of brass and steel nuts fixed in two iron plates. That part of the roller which the cotton runs through is covered with wood, the top roller with leather, and the bottom one fluted, which lets the cotton, etc., through it ; by one pair of rollers moving quicker than the other draws it finer for twisting, which is performed by the spindles." The patent as granted to Paul also claims " a succession of other rollers, cylinders, or cones, mpving proportionably faster than the first r " but unfortunately adds a claim of such manifest absurdity i. e., " Sometimes these successive rowlers, cylinders, or cones (but not the first) have another rotation besides that which diminishes the thread, viz., that they give it a small degree of twist betwixt each pair, by means of the thread itself passing through the axis and center of that rotation " as to utterly upset the whole claim. The last para- graph of Paul's patent covers what Wyatt actually did, and what was probably the whole of the invention, viz., " In some other cases only the first pair of rowlers, cillinders, or cones are used, and then the bobbyn, spole, or quill upon which the thread, yarn, or worsted is spun is so contrived as to draw faster than the first rowlers, cillinders, or cones give, and in such proportion as the first mass, rope, or sliver is proposed to be diminished." In 1748 a patent for carding machinery, in which is described the cylinder card as first used by hand, was granted to Lewis Paul, and consisted of a cylinder clothed with sheets or fillets, substantially as at the present day. A concave card clothed in the same manner was ap- plied to the under side, and after the cotton was sufficiently carded, by turning the cylinder by hand, the casing was let down, and the cylin- der stripped by hand, the rolls obtained in this manner from each sheet being pieced together at the ends to form a continuous roving. In 1758 a second patent was issued to Paul, from which I quote : " The several rowls or filaments so taken off (the flat cards) must be connected into one entire roll, which being put between a pair of rollers or cylinders, is by their turning round delivered to the nose of a spindle, in such proportion to the thread made as is proper for the particular occasion. From hence it is delivered to a bobbin, spole, or quill which turns upon the spindle, and which gathers up the thread or yarn as it is spun. The spindle is so contrived as to draw faster than the rollers or cylinders give, in proportion to the length of thread or yarn into which the matter to be spun is proposed to be drawn." This covers the principal claims to priority of invention in carding and spinning, although the invention of the feeder was claimed by John Lees in 1772, and James Hargreaves, the inventor of the " jenny," claimed the crank and comb fpr taking the cotton from the card. Thomas Wood also in 1774 claimed to have obtained a perpetual or endless carding by nailing the card fillet on spirally instead of longi- tudinally ; but all these points are covered in Arkwright's patents of 1775. The machinery of Paul and Wyatt proved a failure, and the mill at Northampton, where it was erected, was dismantled and sold in 1764. Arkwright's final success led to continual infringements on his pat- ents, and in 1781 a law-suit was the consequence, in which he was beaten on the score of obscurity and def ectiveness in his specifications, and a second trial in 1785 confirmed the former decision, and threw his inventions open to the public. Although Arkwright's first machinery was moved by water power, the invention of the steam engine by Watt in 1769 the same year of Arkwright's first patent proved of incalculable value to the new manufacture, and in 1785 Messrs. Boulton and Watt erected the first engine for cotton spinning at Papplewick in Nottinghamshire. In 1787 they erected one at Warrington, and three at Nottingham all for hosiery yarns and in 1789 one was built for the calico trade of Manchester. This brings us properly to the end of this chapter and the date of the introduction of the cotton manufacture into America, and it can not better be closed than by the following quotation from Mr. Samuel Batchelder, of Cambridge, to whom the writer is greatly indebted for permission to copy from his valuable little history of the " Introduc- tion of the Cotton Manufacture in the United States," as well as for other information derived from his great experience in manufac- turing : " It is not always easy to decide to whom we ought to award the merit of many inventions, which may have been the study of various 6 ingenious mechanics for years without success ; and it happens in re- lation to cotton machinery, as in other mechanical inventions, that there are conflicting claims to all the most important improvements after they are put in operation. Many may have been engaged for a long time in unsuccessful attempts to accomplish the object, and among them some who have been partially successful, but not so far as to make their schemes of any practical utility. At length some one with better advantages, or better workmanship, or by the applica- tion of the same principles with more skill and better judgment, builds a machine which goes into successful operation. In such a case all the unsuccessful schemers rise up and say, * I tried that principle,' or, ' I put that wheel in operation years ago ' ; and thus all those who condemn themselves by having made the attempt without success, come before the public and contend for the merit of the more fortu- nate or more skillful mechanic who has brought the plans to perfec- tion. Something of this kind probably occurred in relation to the invention of Arkwright's spinning machinery. According to the evi- dence on the trial in relation to his patent in 1785, it would appear that Highs, who " (claimed to have) " invented the spinning jenny in 1763 or 1764, afterward made some experiments or attempts at spin- ning with rollers, but without succeeding so far as to make it of any practical use. It seems probable that Arkwright became acquainted with the experiments of Highs, and was able, by combination with his own plans, to mature the invention, and put it in successful operation. This, as well as most other important improvements, is the result of successive experiments and failures, until some one who becomes ac- quainted with the unsuccessful schemes, and has the skill and good judgment to remedy the defects, succeeds in perfecting the invention. " In 1780 there were twenty water-frame factories, the property of Mr. Arkwright, or of parties who had paid him for permission to use his machinery ; and after his patent was made public in 1785, the number increased so rapidly that in 1790 there were one hundred and fifty cotton factories in England and Wales." CHAPTER II. IN commencing the account of the progress of the cotton manufac- ture in the United States, the writer must again acknowledge his in- debtedness to Mr. Samuel Batchelder, of Cambridge, probably the oldest living cotton manufacturer in the country ; * and to White's " Memoirs of Samuel Slater," published in Philadelphia in 1836, for the greater part of his material relating to the introduction of cotton ma- chinery and the history of its manufacture previous to the foundation of Waltham in 1813. The reader must bear in mind that the factories spoken of so far in England, and which will be mentioned in this coun- try up to the above-mentioned date, bear no comparison to the gigan- tic structures which strike his eye in all our manufacturing cities and villages to-day: no "Arctic" or "Baltic," "Atlantic "or "Pacific," " Social " or " Harmony " Mills, taking in the cotton at one end, and discharging some completed and beautiful fabric at the other, but small mills of a few hundred or even one or two thousand spindles, simply producing yarn, which was afterward woven by hand in the country farm-houses for miles around into a great variety of coarse " domestic " fabrics ; whence the name applied to the ordinary coarse sheetings and shirtings made by machinery at the present day. The first record to be found of any action in this country toward introducing machinery for the manufacture of cotton is in the journals of the Legislature of Massachusetts in 1786. I quote from Mr. Batchelder : " On the 25th of October, 1786, Richard Cranch, of the Senate, and Mr. Clarke and Mr. Bowdoin, of the House, were ap- pointed * to view any new invented machines that are making within this Commonwealth for the purpose of manufacturing sheep's and cot- ton wool, and report what measures are proper for the Legislature to take to encourage the same.' This committee reported that ( they had examined those very curious and useful machines made by Robert and Alexander Barr for the purpose of carding and spinning cotton.' And * Since these pages were written, the death of Mr. Batchelder, at Cambridge, Mass., in February, 1879, has closed a long, useful, and valuable life, at the advanced age of over ninety-six years. 8 in accordance with the further report of the committee, a resolve was passed on the 16th of November, 1786, granting the sum of 200, 'to enable . them to complete the said three machines, and also a roping machine, and to construct such other machines as are necessary for the purpose of carding, roping, and spinning of sheep's wool as well as of cotton wool.' " On the 8th of March, 1787, Messrs. Cranch, of the Senate, and Clarke and Howard, of the House, were appointed a committee to ex- amine the machines now nearly completed by Robert and Alexander Barr, and also to examine and allow their account for the expense of making them, and also to report to the next General Court what gra- tuity should be allowed them " as a reward for their ingenuity, and an encouragement for their public spirit in making them known to this Commonwealth. " " The report of this committee allowed their account to the sum of 189 12s., including the expense of transporting the machines to and from Boston," from which it is to be inferred that they were exhibited to the Legislature, and on May 2, 1787, a further resolve was passed, discharging the Messrs. Barr from the advance of the 200 aforesaid, and granting them six tickets in the land lottery established by an act passed the 14th of November, 1786, as a proper reward. " And it is further resolved, that the said machines be left under 'the care of the Hon. Hugh Orr, Esq., until the further order of the General Court, and that public notice be given for three weeks successively in Adams and Nourse's Newspaper, that the said machines may be seen and examined at the house of the Hon. Hugh Orr, Esq., in Bridge- water, and that the manner of working them will be there explained to those who may wish to be more particularly informed of their great use and advantage in carrying on the woolen and cotton manufactures. And the said Hon. Hugh Orr, Esq., is hereby requested to explain to such citizens as may apply for the same the principles on which said machines are constructed, and the advantages arising from their use, both by verbal explanations and by letting them see the machines at work. And it is further resolved, that the said Hon. Hugh Orr, Esq., be, and he hereby is, permitted and allowed to make use of the said machines during the whole time of his having the care of them, as some recompense for his own time and trouble in shewing them and explaining their use to the citizens of this commonwealth at large." Mr. Batchelder quotes from Judge Mitchell's " History of Bridge- water " the following notice of the above-mentioned Hugh Orr, Esq. : " Hugh Orr was born at Lochwinnoch, in Scotland, January 2, 1715, and came to America June 17, 1740, and settled at Bridgewater, where he died December 6, 1798. He was engaged there before the 9 Revolution in the manufacture of fire-arms, and at the commencement of that war made the first cannon that were made in this country by boring from the solid casting. He is said to have invited Robert and Alexander Barr, both Scotchmen, brothers, in order to construct at his works in East Bridgewater machinery for carding, roving, and spin- ning cotton." In the " Memoirs of Samuel Slater " is given in full the petition of Thomas Somers, said to have been a midshipman in the English Navy, which was presented to the Legislature of Massachusetts about the same time, and set forth " That in the fall of the year 1785, the tradesmen and manufacturers of Baltimore in Maryland, having formed themselves into an association, in order to apply to the Legislature in behalf of American manufactures, being stimulated thereto by a cir- cular letter received from a committee of the tradesmen and manufac- turers of the town of Boston : your petitioner, then residing at Balti- more (having been formerly brought up to the cotton manufactory, and willing to contribute what lay in his power to introduce said manufacture in America), did at his own risk and expense go to Eng- land in order to procure the machines for carding and spinning cotton. That, after much difficulty, your petitioner found that he could only take descriptions and models of said engines ; with which he returned to Baltimore last summer. Soon after his arrival he found that they were very dilatory about encouraging the matter, and with the advice of some friends he resolved to try what might be done in Boston. That, on his way to Boston, the sloop was driven ashore by the late storms on Cape Cod, by which misfortune your petitioner lost almost one half the small property he had to subsist on till he could get into business. Your petitioner therefore humbly prays for such assistance to begin the manufactory as shall seem most agreeable to your hon- ors," etc., etc. "N. B. Your petitioner is perfect master of the weav- ing in the speediest manner, and of adapting to advantage the different kinds of yarn for Marseilles quilting, dimity, muslins plain, striped, or checked, calico, cotton and linen jeans, jeanettes, handkerchiefs, checks, drabs, and many other kinds in that line, and understands the management of cotton, and how the spinning should be performed." On the 8th of March, 1787, the Legislature of Massachusetts passed a resolution appropriating 20 for the purpose of giving Somers " an opportunity to give specimens of his ability to perfect the manufac- tures, as set forth in his petition " ; to be deposited in the " hands of Hon. Hugh Orr, who shall be a committee to superintend the applica- tion of the same." The same Somers afterward appears in connection with the factory at Beverly, Mass., which was also projected in 1787 by Messrs. John 10 Cabot and others, and which appears, according to Mr. Batchelder, to have been the first one to produce yarn by machinery in the United States, as it was undoubtedly in operation some time before 1789. There seems to be no doubt that the machinery built at Bridgewater was the first on the Arkwright plans, but it does not seem to have been put in practical operation ; and the probability is that the spin- ning at Beverly was done on the Hargreaves " Jenny." Finding the construction of the machinery very difficult and ex- pensive and the prospects discouraging, the proprietors applied to the Legislature for aid, which was granted by the following resolve, February 17, 1789 : " Be it resolved, That there be granted, and there is hereby granted accordingly, and conveyed to John Cabot, Joshua Fisher, Henry Higginson, Moses Brown, George Cabot, Andrew Cabot, Israel Thorndike, Isaac Chapman, and Deborah Cabot, they being members of the said corporation, the value of five hundred pounds, lawful money in specie, to be paid in the eastern lands, the property of this commonwealth," etc., the lands being assigned in dif- ferent proportions, from one fortieth part to ten fortieths parts, to the above named proprietors ; conditional, however, on the manufacture within the next seven years of "a quantity of not less than 50,000 yards of cotton and linen piece goods, of a quality usually imported into this commonwealth," of which a true record was to be kept and a fair copy lodged in the office of the Secretary of State, verified by the oath of at least two of the proprietors ; and failing which the lands were to revert to the commonwealth, unless the said corporation should pay to the Treasurer of the Commonwealth 500 in gold or silver within eight years from the passage of the resolve. At the same ses- sion of the Legislature an act was passed incorporating the aforesaid parties, including Thomas Somers, as the "Beverly Manufacturing Company," and authorizing them to hold personal property to the amount of 80,000 and real estate to the amount of 10,000. In June, 1790, the same parties presented another petition, signed by John Cabot and Joshua Fisher, managers, representing " that they had expended about 4,000, and that the present value of their stock was not equal to 2,000, and that a further very considerable advance- ment is absolutely necessary ; that the intended aid by a grant of land made by a former Legislature has not in any degree answered the purpose of it ; and pray that in lieu of that grant some real and ready assistance may be afforded them." " The petitioners state, as one of the public advantages to be de- rived from the manufacture of cotton, that the raw material is pro- cured from the West Indies, in exchange for fish, ' the most valuable export in possession of the State.' They also mention the extraordi- 11 nary cost of machines, intricate and difficult in their construction, without any model in the country, and instance a carding machine that cost $1,100." The Legislature voted them " a grant of 1,000, to be raised in a lottery, on condition that they give bonds that the money be actually appropriated in such a way as will most effectually promote the manufacturing of cotton piece goods in this common- wealth." Mr. Batchelder then quotes from Washington's diary as follows : " Friday, October 30, 1789. After passing Beverly two miles, we came to a cotton manufactory, which seems to be carrying on with spirit by the Cabots (principally). In this manufactory they have the new invented carding and spinning machines. One of the first sup- plies the work, and four of the latter, one of which spins 84 threads at a time by one person. The cotton is prepared for these machines by being first (lightly) drawn to a thread on the common wheel. There is also another machine for doubling and twisting the thread for par- ticular cloths ; this also does many at a time. For winding the cot- ton from the spindles and preparing it for the warp there is a reel, which expedites the work greatly." " A number of looms (15 or 16) were at work with spring shuttles, which do more than double work. In short, the whole seemed perfect and the cotton stuffs which they turn out excellent of their kind warp and filling both of cotton." This factory was built of brick, and continued in operation for sev- eral years, and was driven by horse-power, and appears to have been, by the above extract, indisputably the earliest enterprise carried into execution in this country. A great deal of interest was also manifested in Philadelphia at the same period on the subject of manufactures, and Tench Coxe, who was Assistant Secretary of the Treasury under Hamilton, delivered an address August 9, 1787, to an assembly of the friends of American manufactures, convened for the purpose of establishing a " Society for the Encouragement of the Useful Arts" Mr. Samuel Wetherill, Jr., as chairman, signed a report of the managers of the society in August, 1788, by which it appears that the amount of cash received from the contributors on the 23d of August was 1,327 10s. Qd. ; that they had purchased a quantity of flax, and employed between two and three hundred women in spinning linen yarn, and also engaged workmen to make a carding engine, and four jennies, of 40, 44, 60, and 80 spindles, for spinning cotton ; that as soon as the season would permit the house to be fitted up, they were set to work, but, owing to various delays and obstructions thrown in their way by foreign agents, it was the 12th of April, 1788, before they 12 began to weave, and on the 23d of August, 1788, they had made 11,367 yards of various kinds of cotton and linen goods. Mr. Wetherill had been engaged in manufacturing for some years, as appears by his advertisement in the " Pennsylvania Gazette " of April 3, 1782, of : " Philadelphia Manufactures, suitable for every season of the year, viz.: Jeans, Fustians, Everlastings, Coatings, etc., to be sold by the subscriber at his dwelling-house and manufactory, in South Alley, be- tween Market Street and Arch Street, and between Fifth and Sixth Streets, on Hudson's Square. SAMUEL WETHERILL." The manufacturers of Rhode Island were also turning their atten- tion to the new machinery at this time, as will be seen by the follow- ing account, furnished by William Anthony, which I copy from the memoir of Slater : " About the year 1788 Daniel Anthony, Andrew Dexter, and Lewis Peck, all of Providence, entered into an agreement to make what was then called ' homespun cloth.' The idea at first was to spin by hand, and make jeans with linen warp and cotton filling, but, hearing that Mr. Orr, of Bridge water, Mass., had imported some models of machin- ery from England for the purpose of spinning cotton, it was agreed that Daniel Anthony should go to Bridgewater and get a draught of the model of said machine ; he, in company with John Reynolds, of East Greenwich, who had been doing something in the manufacturing of wool, went to Bridgewater and found the model of the machine spoken of in possession of Mr. Orr, but not in operation. It was not the intention of Mr. Orr to operate it, but he only kept it for the in- spection of those who might have an inclination to take draughts. The model of the machine was very imperfect, and was said to be taken from one of the first built in England. A draught of the ma- chine was accordingly taken, and laid aside after a while. They then proceeded to build a machine of a different construction called a jenny ; I understood that a model of this machine was brought from England into Beverly, Mass., by a man of the name of Somers. This jenny had 28 spindles ; the woodwork was built by Richard Anthony ; the spindles and brasswork were made by Daniel Jackson, an ingenious coppersmith of Providence. This jenny was finished in 1789. It was first set up in a private house, and afterward removed to the market- house chamber in Providence, and operated there. Joshua Lindly, of Providence, was then engaged to build a carding machine, for carding the cotton agreeably to the draught presented, also obtained from Beverly. This machine was something similar to the one now used 13 for carding wool, the cotton being taken off the machine in rolls, and roped by hand ; after some delay this machine was finished. They then proceeded to build a spinning frame after the draught obtained at Bridgewater. This machine was something similar to the water frame now in use, but very imperfect ; it consisted of 8 heads of 4 spindles each, being 32 spindles in all, and was operated by a crank turned by hand. The first head was made by John Baily, an inge- nious clock-maker of Pembroke, Mass. ; the other seven heads were made by Daniel Jackson, of Providence. The woodwork was made by Joshua Lindly. In 1788 Joseph Alexander and James McKennis, natives of Scotland, arrived in Providence, both being weavers and understanding the use of the fly-shuttle ; they were engaged to weave corduroy, Mr. Alexander to weave a piece in Providence, and Mr. McKennis went to East Greenwich to work there. A loom was ac- cordingly built after the direction of Mr. Alexander, and put in opera- tion in the market-house chamber ; this was the first fly-shuttle ever used in Rhode Island. A piece of corduroy was then woven, the warp being linen and the filling cotton, but, as there was no person to be found who could cut the corduroy and raise the pile which makes the ribs on the face of the cloth, and give it the finish, it was thought best to abandon that kind of cloth. Mr. Alexander 'went to Philadelphia. Mr. McKennis continued to work in Greenwich for some years. This appears to be the beginning of the jenny-spinning in Rhode Island, and undoubtedly originated with the above company. " The spinning frame (the one attempted from the State's model), after being tried some time in Providence, was carried to Pawtucket and attached to a wheel propelled by water. The work of the ma- chine was too laborious to be done by hand, and the machine was too imperfect to be turned by water. Soon after this the machine was sold to Mr. Moses Brown, of Providence, but, as all the carding and roping was done by hand, it was very imperfect, and but little could be done. This was the situation of cotton manufacturing in Rhode Island when Mr. Samuel Slater arrived in this country ,- then all this imperfect machinery was thrown aside, and machinery more perfect built under his direction." This statement is confirmed by Joseph Anthony, the son of the Daniel Anthony above mentioned. The Mr. Moses Brown to whom the water frame was sold was a partner of the firm of Almy & Brown, who were about commencing the business of what was strictly cotton manufacturing r , the yarn being spun and the cloth woven by manual labor. A statement of their production from the commencement, June 11, 1789, to January 1, 1791, shows : 14 Corduroy 45 pieces, 1,090 yards, sold from 3s. 6d. to 4s. per yard. Denims, royal ribs, etc 25 " 558 " " 3s. to 4s. " Cottonets 13 " 825 " " 2s. &d. to 3s. " Jeans 79 " 1,897 " " 2s. to 2s. 6c7. " Fustians 26 " 687 " " Is. 8d. to 2s. Total 189 4,556 With this summary of the progress of the cotton manufacture and its condition in 1789, I will close this chapter, and in the next will introduce Samuel Slater, whose arrival in the United States with the necessary information marks the era of positive and decided progress. 15 CHAPTER III. THE following brief account of himself, found among Mr. Slater's papers, forms a fitting opening to this chapter : " Samuel Slater was born in the town of Belper, in the county of Derby, June 19, 1768. On June 28, 1782, being about fourteen years of age, he went to live with Jedediah Strutt, Esq., in Milford, near Belper (the inventor of the Derby ribbed stocking machine and several years a partner of Sir Richard Arkwright in the spinning business), as a clerk, who was then building a large factory at Milford, where said Slater continued until August, 1789. During four or five of the last years his time was solely devoted to the factory as general overseer, both as respected making machinery and the manufacturing depart- ment. On the first day of September, 1789, he took his departure from Derbyshire for London, and on the 13th he sailed for New York, where he arrived in November, after a passage of sixty-six days. He left New York in January, 1790, for Providence, and there made an arrangement with Messrs. Almy & Brown to commence preparation for spinning cotton at Pawtucket. " On the 18th day of the same month the venerable Moses Brown took him out to Pawtucket, where he commenced making the machin- ery, principally with his own hands, and on the 20th day of December following he started three cards, drawing and roving, and 72 spindles, which were worked by an old fulling-mill water-wheel in a clothier's building, in which they continued spinning about twenty months ; at the expiration of which time they had several thousand pounds of yarn on hand, notwithstanding every exertion was made to weave it up and sell it. Early in the year 1793 Almy, Brown & Slater built a small factory in that village (known and called to this day the old factory), in which they set in motion July 12 the preparation and 72 spindles, and slowly added to that number as the sales of the yarn appeared more promising, which induced said Slater to be concerned in erecting a new mill, and to increase the machinery in the old mill." Slater's motive for leaving England is said to have been his observ- ing in a Philadelphia paper an advertisement of a reward offered by a 10 16 society for a machine to make cotton rollers, etc. This convinced him that there was an opportunity to turn his knowledge to account in this country, and, fearing that the cotton business " would be overdone " in England, he resolved to emigrate. As the laws of England prohib- iting the exportation of machinery were very severe, he took no pat- terns or drawings of any kind with him, trusting solely to his excel- lent memory, and relying for an introduction on his indenture as an apprentice to Jedediah Strutt. Landing in New York, he was intro- duced to the " New York Manufacturing Company," and entered their employment ; but, not liking the prospects which were opened to him, and hearing through the captain of one of the Providence packets of Moses Brown, he wrote to him, with the result above stated. The old machinery, which, as has been related, Mr. Brown had purchased, was first shown him, but condemned by him at once as unsatisfactory, and he immediately commenced building a new set. With the introduction of the improved machinery by Slater, the manufacture of cotton in the United States may be said to have fairly commenced, and some of the first yarn, said to have been as fine as No. 40, with some of the first cloth made from the same warp, was sent to the Secretary of the Treasury October 15, 1791. He, however, found great difficulty in procuring proper mechanical assistance to build the machinery from his instructions, and his great- est perplexity was in making the cards, for which purpose he em- ployed Pliny Earle, of Worcester, who had never before made machine cards, but finally succeeded in accomplishing the desired result ; and the demand for cards which was created by the success of the new manufacture resulted in the invention of the card -setting machine by Amos Whittemore, of Cambridge, in 1797, and its subsequent intro- duction in England in 1799. This, however, must be considered as only the second great American invention relating to the manufacture of cotton, the first having been the cotton gin, which was the inven- tion of Eli Whitney in 1793. This leads us to the consideration of another branch of the subject, viz., the adequate supply of the raw material in proper condition for manufacture. The First Provincial Congress in South Carolina, held in January, 1775, recommended to the inhabitants " to raise cotton," yet very little practical attention was paid to their recommendation. A small quan- tity only, was raised for domestic manufactures. Georgia took the lead in this culture, and the introduction of the new machines and the consequent demand greatly promoted it. We find in " Baines's History of Cotton Manufacture " the export from the United States in 1791 given as 189,316 Ibs.; and in 1792 as 138,328 Ibs.; in 1793, 487,600 : 17 and in 1794, after the invention of the gin, it rose to 1,601,700 Ibs., and thenceforward the increase was constant and rapid. Cotton had been produced for a long time in small quantities in several of the Southern States, and the following extract from a pam- phlet by Dr. G. Emerson, of Philadelphia, entitled " Cotton in the Middle States," published in 1862, which I copy from Mr. Batchelder, is worthy of introduction in this place : "Long before the Southern States took up its regular culture, cot- ton was raised on the eastern shore of Maryland, lower counties of Delaware, and other places in the Middle States. As early as 1736, and for some time after, it was chiefly regarded as an ornamental plant, and confined to gardens ; but it soon became appreciated for its useful qualities, and was brought under regular cultivation. This cul- ture, though comparatively limited in those places, has never been entirely abandoned up to the present day. I have myself seen many families who came from Sussex County, Delaware, to reside in the adjoining county of Kent, wearing clothes made of cotton of their own raising, spinning, and weaving. The culture of cotton in this section of our country gradually diminished, in consequence of the vast area over which the plant was extended in more southern States. In com- petition with these, our more northern farmers found they possessed superior advantages for raising other field-crops, from which they derived greater profits." " Limited as has been the culture of cotton on the peninsula be- tween the Delaware and Chesapeake Bays, it has furnished a demon- stration of the highest importance to our country. In proof of this it may be stated that at the close of the Revolution a convention was held at Annapolis, in 1786, to consider what means could be best re- sorted to for the purpose of remedying the embarrassment of the coun- try, then so much exhausted in its finances. "The late President Madison, a member of this convention from Virginia, there expressed it as his opinion, 'that, from the results of cotton raising in Talbot County, Maryland, and numerous other proofs furnished in Virginia, there was no reason to doubt that the United States would one day become a great cotton-producing coun- try ! ' It would hence appear that the first culture of cotton in the United States worthy of notice was made in the peninsula between the Delaware and Chesapeake Bays, from whence it crossed into Western Maryland and Virginia, and so went southward." It would, however, appear, as shown by the following letter, that the first cotton received by Messrs. Slater & Brown was so imperfectly cleaned as to be of small comparative value, and we find that, when they first began to spin, they used Cayenne and Surinam cotton, but 18 after a few years they began to mix about one third of Southern cot- ton, and this yarn was designated as second quality and sold at a price accordingly. On the 19th of April, 1791, Moses Brown writes to the proprietors of the Beverly factory as follows : " I have for some time thought of addressing the Beverly manu- facturers on the subject of an application to Congress for some encour- agement to the cotton manufacture by an additional duty on the cot- ton goods imported, and the applying such duty as a bounty, partly for raising and saving cotton in the Southern States, of a quality and cleanness suitable to be wrought by machines, and partly as a bounty on cotton goods of the kind manufactured in the United States." On the 15th of November, 1791, Mr. Brown writes to J. S. Dexter on the same subject as follows : "PROVIDENCE, November 15, 1791. "When it is considered that cotton, the raw material, may be raised in the United States, it shows that legislative attention should be paid to this subject. The cotton raised at present in the Southern States is as imperfect as our manufactured goods. This, I presume, is owing to the promiscuous gathering and saving of the article from the pods in which it grows, some of which, like fruit on a tree, are fair and full grown, while others are not. In the picking of these, and in taking the cotton out of the pods, care should be taken that it be kept separate, and the thin membrane which lines the pod, and sometimes conies off with the cotton, should be separated, and the clean, full grown preserved to work on the machines ; the other will answer to work by hand. But, as the cotton must be clean before it works well on the card, the present production, in the mixed manner in which it is brought to market, does not answer a good purpose. The unripe, short, and dirty part, being enveloped with that which would be good if separated properly at first, so spoils the whole as to discourage the use of it in the machines, and obliges the manufacturer to have his supply from the West Indies, under the charge of the im- post, rather than work our own production a circumstance truly mor- tifying to those who, from motives of promoting the produce and manufactures of our own country, as well as from interest, have been at much expense and trouble to promote so desirable an object. I therefore beg leave to suggest the idea of some encouragement to the raising and saving of cotton, clean and fit for the manufacturers." The relief from these difficulties was soon provided by the ingenu- ity of Eli Whitney. 19 Born at Westboro, Worcester County, Mass., December 8, 1763, he developed indications of mechanical genius at a very early age. When twelve years old he "made a fiddle," in his sister's words, and after that he was often employed to repair violins. By his own personal exertions he prepared himself for Yale College, which he entered in May, 1780, and through which he passed with little expense to his fa- ther. On one occasion he repaired the philosophical apparatus belong- ing to the college, to the great satisfaction of the Faculty. Soon after taking his degree in the autumn of 1792, he formed an engagement with a gentleman of Georgia to reside in his family as a tutor, and on his way thither was so fortunate as to fall into the com- pany of the widow of General Greene, who with her family was re- turning to Savannah after spending a summer at the North. On arriving in Georgia, he found that the gentleman who had engaged him had employed another tutor, leaving him entirely without re- sources or friends, except those he had made in the family of General Greene. The interest he had excited in them, however, led to a kind invitation from Mrs. Greene to make her house his home, and there pursue his studies, which he accepted, and commenced the study of law under* her hospitable roof. Turning his mechanical ingenuity to account, he soon made for Mrs. Greene a tambour frame ; and not long after this incident a party of gentlemen, principally officers who had served under General Greene in the Revolutionary war, came from Augusta and the upper country on a visit to the family. The conversation turned one day on the state of agriculture among them, and great regret was expressed that there were no means of cleaning the green-seed cotton or separating it from its seed, since all the lands which were unsuitable for the culture of rice would yield large crops of cotton. During this conversation Mrs. Greene said, " Gentlemen, apply to my young friend Mr. Whitney ; he can make anything." She then led the company to another room, and showed them the tambour frame which he had made, and also a number of toys which he had made or repaired for the children, and then introduced them to Mr. Whitney himself. Mr. Whitney disclaimed all pretension to mechanical genius, and said that he had never seen either cotton or cotton seed in his life ; but a new turn was given to his views, and he went to Savannah, and searched the warehouses and boats till he found a small parcel of cot- ton in the seed. This he took home with him, and commenced his experiments with such rude tools as he could find, even drawing his own wire, of which the teeth of the first gins were composed. 20 The ensuing winter saw the new machine completed, and Mrs. Greene invited to her house a number of gentlemen from different parts of the State to witness the new invention. They saw. with astonishment and delight that more cotton could be separated from the seed with it in one day, by the labor of a single hand, than could be done in the former manner in many months. Phineas Miller, Esq., a native of Connecticut and a graduate of Yale College, who married the widow of General Greene, contributed much to the success of the undertaking. He provided the funds to carry out the enterprise, and the parties agreed to share the profits and emoluments resulting by an instrument bearing date May 27, 1793. Immediately after this they commenced business under the name of Miller & Whitney. On the 25th of June, 1793, Whitney presented his petition for a patent to Thomas Jefferson, then Secretary of State, and on the 20th of October in the same year he made oath to his invention before the Notary Public of the city of New Haven. Of his long and tedious struggles with the horde who grasped at his invention, without any remuneration to him, of the almost endless litigations and disappointments which followed, I have neither the time nor the space to speak here ; it is sufficient for our present pur- pose that the invention was made, the supply of the raw material to the Northern manufacturers assured, to say nothing of the wants of Europe, and the destiny of the Southern States of the Union fixed for a century at least. Next on the roll of inventors to Arkwright, in point of time as well as importance in the history of the cotton manu- facture, stands Eli Whitney, the first American who is distinguished in that connection. Next in order to Whitney comes Whittemore, already mentioned, whose machine for setting card clothing is often selected as an example of the perfection of mechanical automa- tism. This was soon adopted by Pliny Earle, whose nephews still carry on the business of making card clothing in Worcester, under the firm name of Timothy K. Earle & Co. This closes the period of distinct invention for the century, and, although many small modifica- tions and improvements may have been made, we shall find little to note except the growth of the now established business of " cotton spinning " until the War of 1812, the introduction of the power loom, and the building of the first mill at Waltham for combining all the processes of making cloth under one roof. Meanwhile we will devote another chapter to notices of the extension of the business, which was very rapid, and which spread to various parts of the country during the intervening period. 21 CHAPTER IV. IN 1798 Samuel Slater entered into partnership with Oziel Wilkin- son, Timothy Green, and William Wilkinson, the two latter as well as himself having married daughters of Oziel Wilkinson. He built the second mill on the east side of Pawtucket River, called the "White Mill," in what was then the town of Rehoboth, within the limits of Massachusetts, and an act was passed by the Massachusetts Legisla- ture in 1799 exempting the said mill, together with the materials and stock, from taxation for seven years from April 1, 1800. The firm was known as Samuel Slater & Co., he holding one half the stock. " Until this time " (according to Mr. Batchelder) " the business had been confined to Slater and his associates, but soon after this it is stated that several of his men who had become acquainted with the construc- tion of his machinery left his employment, and commenced the erection of mills for themselves or other parties. Mr. Benjamin S. Wolcott was employed by Mr. Slater in the construction of his first mill. After acquiring sufficient knowledge of the business, he united with Rufus and Elisha Waterman for the purpose of erecting a cotton factory in Cumberland about 1801. The machinery was afterward removed to Central Falls, a short distance above Pawtucket, and a new company formed, with the addition of Mr. Stephen Jenks. Another of his workmen, by the name of Robbins, commenced a mill in New Ipswich, which was put in operation in 1804 ; being the first cotton mill built in New Hampshire. B. S. Wolcott, Jr., was employed in one of the early mills at Paw- tucket ; a second one, known as the " Yellow Mill," having been built in 1805, under an act exempting it from all taxes for five years ; and with the assistance of his father, in 1807 or 1808, built the first cotton mill in Oneida County, New York, four miles west of Utica. Some years later Mr. Wolcott, associated with Benjamin and Jo- seph Marshall, formerly English merchants in New York, built the "New York Mills." Meanwhile the attention of other parts of the country was being drawn to the subject, and the Society for the Establishment of Useful 22 Manufactures in New Jersey was organized at New Brunswick, No- vember 22, 1791. In May, 1792, the society selected the falls of the Passaic as the site of their operations, and named their town Paterson after the governor who signed their charter. At a meeting of the di- rectors at the Godwin Hotel July 4th, they made appropriations for building factories, machine-shops, and print-works, and a raceway was directed to be made for bringing the water from above the falls to the proposed mills. Unfortunately the direction of their water-power was given to Major L'Enfant, a French engineer, and the same one who laid out the city of Washington, and his gigantic schemes, reaching from above the falls to tide- water, proved far beyond the means of the company, so that in 1793 the business was put in charge of Peter Colt, then Comptroller of the State of Connecticut, who completed the raceways, abandoning the outlet to tidewater, and built a factory in which they commenced spinning cotton yarn in 1794 ; and during the years 1795 and '96 much yarn was spun, and several species of cotton fabrics were made. But not succeeding financially, they resolved in July, 1796, to discontinue the manufacture, and discharged the work- men. This result was produced by a variety of causes. Nearly 50,000 had been lost by the failure of parties to certain bills of ex- change purchased by the company to buy in England plain cloths for printing ; large sums had been wasted by the engineers ; and the ma- chinists and manufacturers imported were presumptuous, and ignorant of many branches of the business they engaged to conduct. The cot- ton mill of the company was subsequently leased to individuals, who continued to spin candle-wicks and coarse yarn until 1807, when it was accidentally burned, and was never rebuilt. Between 1801 and 1814 several mill-seats were leased to other par- ties, and in 1814 Mr. Roswell L. Colt purchased at a low price a large proportion of the shares, and reanimated the association, since when the growth of Paterson has been steady, though largely in other direc- tions than that of cotton manufacturing. Still, much cotton t ma- chinery and many valuable inventions have been produced there, and we shall probably have occasion to refer to it again in due order. At present Paterson is distinguished as the chief seat of the silk manufac- ture of the United States, and contains several large and important locomotive and machine works, as well as the different flax mills of the Messrs. Barbour & Brothers. William Pollard, of Philadelphia, obtained a patent for cotton spinning December 30th, 1791, which was the first water-frame put in motion in Pennsylvania. But whether he obtained his patterns direct from England, or by the way of Pawtucket, is not certain ; and it is doubtful if the machinery was capable of successful operation. At 23 any rate, the enterprise failed, while Slater was making his greatest profits, and its want of success is said to have retarded the progress of cotton-spinning in Philadelphia. In 1808 the Globe Factory, with a capital of $80,000, was estab- lished in the " Northern Liberties " of Philadelphia by Dr. Redman Coxe. The Arkwright machinery was also introduced very early at Copps Creek, Delaware, by Goodfellow, and also at Kirk Mill, near Wil- mington. In 1790 a person who had been engaged in the Beverly Factory was employed to go to Norwich, Conn., to put in operation some cot- ton machinery which was understood to be similar to that used at Beverly. This machinery is supposed to have been imported by some means from England. In 1794 another mill was built in the west part of New Haven by John R. Livingston and David Dickson, of New York. In 1807 this was converted into a woolen mill, and since into a paper mill. In 1806 General Humphrey built a mill at Derby, Conn., both for cotton and woolen ; and the same year a company was formed, consisting of James, Christie, and William Rhodes, brothers, of Pawtucket, Oziel Wilkinson and his five sons, viz., Abraham, Isaac, David, Daniel, and Smith Wilkinson, and his two sons-in-law, Timo- thy Green and William Wilkinson, with a capital of $60,000, five twelfths of which was invested in real estate then known as Congers Mills, on the Quinebaug River, and included about one thousand acres of lands lying in the adjoining towns of Pomfret, Thompson, and Killingly, in Connecticut. In this year also (1806) Samuel Slater sent for his younger .brother John, who came from England, bringing all the latest improvements in the business, and joined with his brother and his partners in build- ing a new establishment in Smithfield, R. I., now known as the village of Slatersville. In June, 1806, John Slater took charge of the business at this place, under the firm of Almy, Brown & Slaters, and com- menced spinning in 1807, managing the business successfully for up- ward of fifty years. Samuel Slater's business was now becoming very profitable, and he was evidently accumulating property, although his salary as superintendent of the two mills at Pawtucket was only $1.50 per diem from each mill. The second cotton mill in Massachusetts was built on Bass River, in Beverly, in 1801, with six water-frames of seventy-two spindles each. This machinery was built a,t Paterson, N. J., by a man named Clark, who came to Beverly to put it in operation. This mill was un- successful, from insufficient water-power and other causes, and contin- ued in operation but two or three years. 24 In 1805 the first factory established at Beverly, having sunk half its capital, suspended operation. The return of exports for this year shows of Sea Island cotton 8,787,659 Ibs., and of other kinds 29,602,428 Ibs., and the quantity manufactured in the United States is said to have been 1,000 bales, or 300,000 Ibs., as bales then averaged. The prices of yarn at Pawtucket were as follows : No. 12, 99 cents per lb.; No. 16, $1.15 per lb.; No. 20, $1.31 per lb. About this time the first regular cotton factory in the State of New York was erected in Union Village, Washington County, by William Mowry, who had learned the business at Paw- tucket. February 27, 1807, an exemption from taxes for five years was granted by act of the Legislature of Massachusetts for a cotton mill erected at Watertown by Seth Bemis and Jeduthan Faller, and June 20 of the same year a factory was incorporated at Fitchburg, Mass. ; and March 12, 1808, the Norfolk Cotton Factory at Dedham was incorporated. A small cotton factory was also established at Pitts- burg, Pa., in 1807 ; and Mr. Zachariah Allen estimates the whole number of cotton spindles in the United States to have been about 4,000. The second cotton mill in New Hampshire was commenced upon the same stream with the first one, the Souhegan River, at New Ips- wich, in 1807, and put in operation in 1808 by Seth Nason, Isaac Holton, and Samuel Batchelder, containing, like the first mill, about 500 spindles. In 1805 the Legislature of New Hampshire granted to the proprietors of the first mill an exemption from taxes for five years, and in 1808 the same to the proprietors of the second mill. I here extract from u The Textile " the following from a letter from Mr. Batchelder to the editor : " Six or seven years before the commencement of weaving by the power loom at Waltham, I was the owner, with two or three others, of the second cotton mill that was built in New Hampshire, and in order to dispose of my part of the product of the mill I undertook to manufacture yarn by the hand loom into shirting, gingham, checks, and ticking. At that time al- most every farmhouse in the country was furnished with a loom and spinning wheels, for manufacturing the ordinary clothing of the fam- ily, and most of the females were weavers or spinners, and were very willing to undertake to weave such articles as I proposed, in order to purchase calicoes and such other goods as they could not manufacture themselves. " Before the War of 1812 I made a contract with the other owners of the mill to purchase the whole of the yarn produced by the mill for several years, and extended the business of weaving so that at 25 times I had about a hundred weavers in my employ not constantly at work, but as they had leisure from other household employment. They came from the neighboring towns for the distance of six or eight miles for the yarn and to return the webs. The price for weaving the different articles was from three to seven cents per yard. On the power loom at the present time the cost would average about one cent. I also at this time made an experiment of weaving on the hand loom pillow-cases without seams, in the manner which was patented many years afterward for weaving bags for grain, which has now be- come an extensive business. I continued the business for several years after the introduction of the power loom at Waltham, which was confined to weaving plain sheetings and shirtings, while most of the goods which I made were twilled or checks, such as were not woven on the power loom, and consisted in part of dyed yarn of blue and other colors. I paid at that time fifty cents per Ib. for dyeing a fast indigo blue, such as would now cost only seven or eight cents. " On looking back at my account books I find that I manufactured more than fifty tons of cloth of various kinds by hand looms, which I continued till 1825, when I went to Lowell to build the Hamilton Mills, where I adopted the power looms for the purpose of weaving twilled goods, such as I had formerly made on 'the hand loom. My goods were mostly sold in Boston, after commission houses were established for the sale of American goods. Mr. Nathan Appleton states, in his ( Account of the Introduction of the Power Loom,' that on his first bringing the Waltham sheetings to market (1815) there was but one place in Boston where domestic goods were sold ; and when, before the War of 1812, I first offered my hand-loom goods for sale in Boston, and proposed to consign them to some dry-goods merchants, I was told that it would be discreditable for them to under- take the sale of American goods, and I had to consign them to retail shops in Salem and other places at a limited price, paying a commis- sion of ten per cent. At one time such was the demand for goods that speculators came from Boston and cleared my shelves of goods at the retail price. Ticking, such as would now be worth fifteen to twenty cents, then sold for seventy-five cents a yard, and a better arti- cle sold regularly for a dollar." In December, 1808, the State of New Hampshire, by a general law, granted exemption from taxation for five years to those who should erect works for the manufacture of cotton, wool, salt, or glass, and incorporated a cotton manufactory at Peterborough, and one at Exeter. In 1809 were incorporated the second Peterborough cotton factory and one in Chesterfield. In 1810 one was incorporated at Milford, one at Swanzey, one at Pembroke, and one at Amoskeag 26 Falls, being the nucleus from which has grown the present Amoskeag Company ; in 1801, one at Walpole, one at Hillsborough, one at Mere- dith, and a third at Peterborough. Most of these mills went into oper- ation within about a year of the time of incorporation, so that at the commencement of the War of 1812 there were probably fifteen cot- ton mills in operation in New Hampshire, averaging not more than five hundred spindles in each, or not more than six or seven thousand in all. The first cotton mill in the State of Maine was built at Bruns- wick in 1809, and soon after another was erected at Gardiner. Tench Coxe, in his report of the census of 1810, gives the number of cotton factories as follows : New Hampshire 12 Massachusetts 64 Rhode Island 28 Connecticut 14 Vermont . . 1 New York 26 New Jersey 4 Pennsylvania 64 Delaware. . . 3 Maryland 11 Ohio 2 Kentucky 15 Tennessee ... 4 This, however, does not agree with other authorities. Dr. Bishop, in his "History of American Manufactures," gives eighty-seven mills, which he locates as follows : Maine 1 New Hampshire 6 Massachusetts 15 Rhode Island... 25 Connecticut 6 Kentucky. 6 Vermont 4 New York 6 New Jersey 2 Pennsylvania 4 Delaware 2 Tennessee. . . 1 Maryland 5 Virginia South Carolina. Georgia Ohio. . And of these, fourteen were horse mills. "These eighty-seven mills were expected to employ a capital of $4,800,000, and use 3,600,000 Ibs. of cotton, worth $720,000. They would spin in 1811 2,880,000 Ibs. of yarn, worth $3,240,000, and em- ploy 500 men and 3,500 women and children." Mr. Batchelder says : " All the factories built before the war of 1812 were built after the plan first introduced by Slater, with very lit- tle modification. His spinning was what was usually denominated the water-frame, built in separate sections of eight spindles each ; but be- fore 1808, when the second mill was built in New Hampshire, the spinning-frame, called the < throstle,' had been introduced, and was adopted in this mill." The spread of manufactures, due to the restrictions on the importa- tions of goods, and the consequent advance of prices, was now very rapid, and in 1812 there were said to be nearly forty cotton mills in Rhode Island, with about 30,000 spindles, and about thirty mills in 27 Massachusetts, within thirty miles of Providence, with about 18,000 spindles, amounting in the whole to 48,000 spindles. " The war with Great Britain in 1812 raised the price of goods to such extravagant rates, and stimulated the building of cotton factories to such a degree, that a list of the mills in and near Providence, in- cluding a number in Massachusetts at the close of the war, makes the number of mills ninety-six, and of spindles 65,264 ; being an average of 680 spindles to a mill, eighteen of the whole number having less than 300 spindles each, and the largest, that of Almy, Brown & Slater, 5,170 spindles." This brings us to a new era, that of the power loom, and the intro- duction of what was known as the " Waltham system," where all the processes of manufacturing cloth were carried on under the same roof and by the same management. With the growth of the cotton manufacture there had as a neces- sary consequence sprung up shops for building the machinery, and skillful mechanics had been trained. Calico printed with engraved rollers, and by machinery driven by water-power, was produced by 'Thorp, Siddall & Co., about six miles from Philadelphia, in October, 1810, and in the same year Alfred Jenks, a pupil and co-laborer with Slater, commenced the manufacture of cotton machinery of every de- scription at Holmesburg, near Philadelphia, afterward removing to Bridesburg, where he engaged extensively in the construction of looms. The era of weaving by power now demands a new chapter, and will bring a new set of inventors on the stage. 28 CHAPTER V. IN the following pages I shall have occasion to quote frequently from a pamphlet written by the Hon. Nathan Appleton, of Boston, and printed in 1858 in Lowell by the " Proprietors of the Locks and Canals on Merrimac River," as well as from the authorities previously mentioned, commencing with the following summary of the most reli- able facts in the history of the power loom as given by Mr. Batchel- der : " The first attempt to weave by machinery was made by M. de Gennes. His loom is described in the * Philosophical Transactions ' in the year 1700. About 1765 a weaving factory driven by water was built by Mr. Garside, of Manchester. It was furnished with l swivel looms,' probably those invented by M. Vaucanson, and described in the ' Encyclopedic Methodique.' It was worked for a considerable time, but with no advantage, one man being required for each loom." The prototype of the present loom, however, was the loom invented by the Rev. Edmond Cartwright, an English clergyman, for which he secured his first patent April, 1785. In his own words, " This being done, I then condescended to see how other people wove, and you will guess my astonishment when I compared their easy modes of operation with mine. Availing myself, however, of what I then saw, I made a loom, in its general principles, nearly as they are now made, but it was not until the year 1787 that I completed my invention, when I took out my last weaving patent, in August of that year." A weaving factory was built at Doncaster, under Arkwright's li- cense, by some of his friends, but was unsuccessful, and another estab- lishment at Manchester, containing 500 looms, was built by Mr. Grim- shaw in 1790, but was destroyed by a mob. The invention, however, overcame all opposition, and at the time of Cartwright's death it was estimated that power looms were performing the labor of 200,000 men. Another loom was invented by a Mr. Austin, of Glasgow, in 1789, and put in operation in 1798, but with what success is not known. Patents were obtained for power looms by Robert Miller in 1796, and by Toad, of Bolton, in 1803. Mr. Horrocks, of Stockport, took patents for a power loom in 1803 and 1805, and for further improve- 29 ments in 1815. This seems to have been the first really successful loom, and has now become of general use, as the crank or " Scotch " loom. Great difficulty was, however, experienced in preparing the yarn so as to produce a warp which could be woven by power ; but the desired result was attained by William Radcliffe, of Stockport, and Thomas Johnson, of Bredbury, who in 1804 patented the " dressing- machine," and also took out patents for improvements in the loom, taking up the cloth as woven by the motion of the lathe. Horrocks and Radcliffe, like nearly all inventors, failed financially, which re- tarded the adoption of their inventions, so that in 1813 it was supposed that not more than 100 dressing-machines and 2,400 looms were in operation in Great Britain. Still these were enough to alarm the hand- loom weavers, who, attributing to machinery the distress arising from the American war and the " Orders in Council," broke all the looms set up at Middleton, West Houghton, and other places. (Baines's " His- tory of the Cotton Manufacture," etc.) Mr. Batchelder says that a loom was built at Exeter, N". H., by T. M. Murphy in 1806, and experimented with for three years, and ex- periments were also made at Dorchester and Dedham, Mass., between 1806 and 1809, but were not sufficiently successful to take the place of hand-weaving. "In the year 1811," says Mr. Appleton, "I met my friend, Mr, Francis C. Lowell, at Edinburgh, where he had been passing some time with his family. We had frequent conversations on the subject of the cotton manufacture, and he informed me that he had determined before his return to America to visit Manchester for the purpose of obtaining all possible information on the subject, with a view to the introduction of the improved manufacture in the United States. I urged him to do so, and promised him my cooperation. He returned home, and in 1813 came to me on the Boston Exchange one day, with Mr. Patrick T. Jackson, and stated that they had purchased a water- power in Waltham (Bemis's paper-mill), and that they had obtained an act of incorporation, and Mr. Jackson had agreed to give up all other business, and take the management of the concern." Mr. Jack- son was the brother-in-law of Mr. Lowell, and from a memoir of him published in 1858 in Hunt's " Merchant's Magazine," by John A. Low- ell, Esq., of Boston, I extract the following : " Mr. Lowell had just returned to this country in 1812, after a long visit to England and Scotland. While abroad he had conceived the idea that the cotton manufacture, then almost monopolized by Great Britain, might be advantageously prosecuted here. The use of ma- chinery was daily superseding the former manual operations, and it was known that power looms had recently been introduced, though the 30 mode of constructing them had been kept secret. The cheapness of labor and abundance of capital were advantages in favor of the Eng- lish manufacturers ; they had skill and reputation. On the other hand, they were burdened with the taxes of a prolonged war. We could obtain the raw material cheaper, and had a great superiority in the abundant water-power, then unemployed, in every part of New England." " So confident was he in his calculations that he thought he could in no way so effectually assist the fortunes of his relative, Mr. Jackson, as by offering him a share in the enterprise." Mr. Jack- son had been engaged in the Calcutta trade, which was prostrated by the war, and gladly took hold of the new enterprise. The difficulties were very great. The war precluded all communi- cation with England. Neither books, designs, nor models could be procured ; everything had, as it were, to be reinvented ; and the pow- er loom was the first thing to be accomplished. " In England it had been invented by a clergyman : why not here by a merchant ? " After numerous trials, they succeeded in the autumn of 1812 in producing a model which was so satisfactory that they engaged the services of Mr. Paul Moody, of Amesbury, a well-known and skillful mechanic, to aid in the construction of a mill for weaving cotton cloth. The first project was for a weaving-mill exclusively, but it was found that it would be more economical to spin the yarn than to buy it, and they put up a mill with about 1,700 spindles, which was com- pleted late in 1813. This was probably the first mill in the world that combined all the operations for converting the raw cotton into finished cloth. Great difficulty was at first experienced at Waltham for the want of a proper machine for preparing the warps. They procured from England a drawing of Horrocks's dressing machine, which they altered and very much improved, producing the " dresser," which has till re- cently been of general use in this country. No plan, however, was shown in this drawing for putting the yarn on the section beams, and to supply this deficiency Mr. Moody invented the warper. The " stop motion," to indicate the breaking of any of the threads on the warper > was also invented at Waltham by Jacob Perkins, the inventor of the present system of bank-note engraving on steel, and other ingenious inventions. Other great improvements were made. Mr. Appleton says : " The greatest improvement was in the ' double- speeder.' The original fly frame or roving frame introduced from England was without any fixed principle for regulating the changing movements necessary in the process of filling a spool. Mr. Lowell undertook to make the numerous mathematical calculations necessary to give accuracy to these complicated movements, which occupied him 31 constantly for more than a week. Mr. Moody carried them into effect by constructing the machinery in conformity. Several trials at law were afterward had about this patent, involving, among other ques- tions, one whether a mathematical calculation could be the subject of a patent." The last great improvements consisted in giving a more slack twist to the yarn spun for filling on the throstle, and in spinning it directly on the shuttle "quill" without the process of winding. Mr. Lowell and Mr. Moody went to Taunton to purchase a filling- winder, the patent of which was owned by Mr. Shepherd, of that place, having previously tried one made by Mr. Stowell, of Worcester. Mr. Lowell tried to get a reduction in price from Mr. Shepherd, which he refused, telling them that " they must have the machines, as they could not do without them," when Mr. Moody remarked that " he was just thinking that he could spin the filling direct upon the bobbin." Mr. Lowell, who perceived the practicability of doing this, dropped the subject, and after some further conversation they took leave. On their return, Mr. Lowell told Mr. Moody that he must accomplish the plan he had suggested, and the invention of the " filling frame " was the result. This has been of late years superseded to a great extent by the mule ; but, since the recent improvements in ring-spinning, the motions have been applied to the ring-frame, and it has been proved that the coarser numbers of yarn, say below No. 20, can be spun cheaper in this way than on the mule. A similar jesting remark also led to the adoption of soapstone for the rollers in the dressing-frame, instead of wood, which swelled and warped so much with the moisture of the size that they would not work properly. Mr. Moody's brother suggested to him the use of a " soapstone " mold in which to cast some " pewter " rollers. Mr. Moody took the hint in a manner different from what was intended, and made the roll- ers themselves of soapstone. Mr. Lowell's loom was different in several particulars from the English loom, the principal one being that the lathe was driven by an eccentric cam instead of a crank, which has now been generally substi- tuted for the cam motion, and some other improvements have been in- troduced. With the success of the new machinery, there was no difficulty in raising the capital of $400,000 required to carry out the scheme at Waltham. A charter, under the name of the Boston Manufac- turing Company, was obtained, and the full water-power utilized, and $200,000 additional were afterward raised for the purchase of the adjoining property in Watertown. With the mechanical success of Waltham, and the adoption of the 11 32 new system, which long went by its name, came other great changes, which were equally the result of the foresight and sagacity as well as the philanthropy of Mr. Lowell ; and I can not better express them than by the following quotation from the memoir of Mr. Jackson, above referred to. " It is not surprising that Mr. Lowell should have felt great satis- faction at the result of his labors. In the establishment of the cotton manufacture in its present form, he and his early colleagues have done a service not only to New England, but to the whole country, which perhaps will never be fully appreciated : not by the 'successful estab- lishment of this branch of industry that would sooner or later have been accomplished ; not by any of the present material results which have flowed from it, great as they unquestionably are ; but by the in- troduction of a system which has rendered our present manufacturing population the wonder of the world. Elsewhere vice and poverty have followed in the train of manufactures ; an indissoluble bond of union seemed to exist between them. Philanthropists have prophesied the like result here, and demagogues have reechoed the prediction. These wise and patriotic men, the founders of Waltham, foresaw and guarded against the evil. By the erection of boarding-houses at the expense and under the control of the factory, putting at the head ma- trons of tried character, and allowing no boarders to be received except the female operatives of the mill; by stringent regulations for the government of these houses by all these precautions they gained the confidence of the rural population, who were now no longer afraid to trust their daughters in a maunfacturing town. A supply was thus obtained of respectable girls ; and these, from pride of character as well as principle, have taken especial care to exclude all others. It was soon found that an apprenticeship in a factory entailed no degra- dation of character, and was no impediment to a reputable connection in marriage. " A factory-girl was no longer condemned to pursue that vocation for life, and it soon came to be considered that a few years in a mill were an honorable mode of securing a dower. The business could thus be conducted without any permanent manufacturing population. The operatives no longer form a separate caste, pursuing a sedentary employment, from father to child, in the heated rooms of a factory, but are recruited in a circulating current from the healthy and virtu- ous population of the country. By these means, and a careful selec- tion of men of principle and purity of life as agents and overseers, a great moral good has been obtained. Another result has followed, which, if foreseen, as no doubt it was, does great credit to the sagacity of these remarkable men. The class of operatives employed in our 33 mills has proved to be as superior in intelligence and efficiency to the population elsewhere employed in manufactures as they are in morals. They are selected from a more educated class, from among persons in more easy circumstances, where the mental and physical powers have met with fuller development. This connection between morals and in- tellectual efficiency has never been sufficiently studied. The result is certain, and may be destined in its consequences to decide the ques- tion of our rivalry with England in the manufacture of cotton." I have quoted thus at length from this memoir, written nearly thirty years ago, because the ideas expressed in it seem to me to be yet worthy of careful study ; although the special manufacturing pop- ulation, which the founders of Waltham so much deprecated, is grow- ing up among us, under the influence of competition, combined with an enormous foreign immigration, and the growth of our manufactur- ing towns, which have increased so as to form the homes of a perma- nent population. Under the circumstances, the policy pursued by Mr. Lowell and his associates was not only wise, but necessary. The wa- ter-powers which it was proposed to use in developing the new indus- try on a grand scale were literally "in the woods." Dwellings for the operatives were to be constructed in these solitudes, and the operatives to be procured. The latter were readily found in the surplus female population scattered all over New England, many of whom had learned to spin and weave on the hand-wheel or loom ; and philanthropy and economy went hand in hand in the organization of the new system. The church and factory were built together, and the school-house soon followed. From Waltham this mode of organization spread rapidly to the northern district of New England Lowell, Saco, Dover, etc. which will be noticed in due course ; but chronological order compels us to return to Rhode Island and its vicinity ; and in this connection it is but proper to say that Slater and his associates also established Sun- day-schools, and took great interest in the moral welfare of their em- ployees, though the permanent or family system was adopted by them in the small way in which their mills were commenced as compared with the scale of operations at Waltham and afterward at Lowell. There were also other great points of difference between what we may call the " Waltham " and the " Rhode Island " systems. At Waltham the wages were paid in cash, no children were employed, and the oper- atives were free to make their purchases at their discretion. In Rhode Island the owners of the mills established a sort of " factory store" from which the families were supplied with all that they needed on credit, and but little cash was used in the daily transactions, and the employees were kept in a sort of dependence on their employers. 34 CHAPTER VI IN 1812 the first cotton mill in Fall River, then called Troy, was erected at what was known as Globe Village by Colonel Joseph Dur- fee and others, and was afterward converted into the Globe Print Works in 1829, and was burned in December, 1838. In 1813 the Troy Manufacturing Company was organized and built their first mill. From that time until 1840 the growth of the place was slow, and in the latter year there were 32,864 spindles where there are now over 1,200,000. I merely note its commencement here in due order. In 1814 manufacturing was again revived at Paterson, as noted by Mr. Roswell L. Colt, the son of Mr. Peter Colt ; and it was estimated that Essex County, N. J., contained in September of this year 32,500 spin- dles. The second steam-engine in Providence, of 24 horse-power, was erected in this year by Oliver Evans, for the Providence Dyeing, Bleaching, and Calendering Company. The Bellingham Cotton and Woolen Factory, on Charles River, and the H^mpden Cotton Manufacturing Company, on Chicopee River, at Ludlow, were incorporated by Massachusetts. The first cotton mill in North Adams, Mass., was erected in 1811 and started in 1812. The cotton was received here as it was picked in the cotton- field. It was put out in families and picked and whipped, then sent back to the mill and carded and spun into yarn. This yarn was put out in the families by the company, and woven on hand looms into blue and white striped cloth for pants, also another style for women's dresses. The name of this company was "The Adams North Village Cotton Factory Company." The Eagle Mill was started in 1814, near the Eagle Mill of the Freeman Manufacturing Company, and in 1819 the first power loom was started in that mill. The first power loom on satinet was started by S. Burlingame in 1823. The first cotton mill at Fishkill, N. Y., the commencement of the Matteawan Manufacturing Company, was built by Messrs. Schenck & Dowling, and the Lancaster Manufacturing Company, of Lancaster, Penn., commenced operations, but failed in 1818. 35 In 1815 William Gilmore came from Scotland to this country, arriving in Boston in September. He was met in Boston by Mr. Robert Rogerson, who knew that he had been employed in power- loom weaving, and understood the construction of the looms and dress- ing machinery, and who took him to Smithfield and introduced him to John Slater. He proposed to Mr. Slater to build the machinery for power-loom weaving, receiving nothing for his labor unless he suc- ceeded in putting the looms in operation. But the prospects of busi- ness were at that time so discouraging that parties were not willing to enter into engagements, and he went to work as a machinist at Smith- field, where he commenced paying rent October 21, 1815. Previous to this time a machinist by the name of Blydenburg had been em- ployed at the Lyman Mills, in North Providence, in the attempt to build a power loom, but so far without success. Gilmore was em- ployed, in the early part of 1816, to build twelve looms, and also machinery for warping and dressing, from the plans and drawings which he had brought with him, which he accomplished to the satis- faction of his employer, and they were put in operation early in 1817. For the compensation of ten dollars he allowed Messrs. David Wilkinson & Co. the use of his patterns for building twelve other looms ; and they got their looms in operation nearly as soon as those built by Gilmore. This was the first introduction of the crank loom in this country ; and, to manifest their gratitude for the services ren- dered by Mr. Gilmore, the manufacturers subscribed to raise a fund of $1,500, and one of the subscribers to this fund refers to his receipt for payment of his subscription, which he has preserved, dated May 31, 1817, thus showing the time when the crank loom was put in opera- tion in this country. Mule spinning having been introduced in Rhode Island, the build- ing of the power loom, as noted, completed the manufacturing system of that State within about three years after the power loom was built at Waltham. In order to avoid the use of the patented machinery used at Wal- tham, the Rhode Island mills adopted the crank loom, and introduced various roving frames copied from English models, among them, at a later date, the tube speeder, invented by George Danforth, of Massa- chusetts, and otherwise known as the " Taunton speeder." This was also introduced to a considerable extent in Great Britain in 1825. Another form of roving frame was known as the " Brown " speeder, patented in 1821 by John Brown, of Providence. But the two sys- tems differed essentially in the fact that the Rhode Island district adopted the " live " spindle, the Waltham and Northern district the 36 " dead " one ; the first, the mule, Scotch dresser, and crank loom ; the other, the filling frame, Waltham dresser, and cam loom. An important addition to the loom was made in 1816 by the inven- tion of the " rotary temple " by Ira Draper, of Weston, which was introduced in this country many years before it was adopted in Eng- land, where they clung for a long time to the use of the old hand " temple," for keeping the cloth extended after leaving the reed. This temple was afterward improved by his son, George Draper, who car- ries on the only manufactory of temples in the United States, and to whom we shall again have occasion to refer in connection with other valuable inventions. Cotton machinery as perfect as any in existence was now fairly introduced into America, and during the war the number of spindles in New England had increased to over 120,000. A statement com- piled by Samuel Green, of Woonsocket, which I copy from Mr. Batch- elder, and which was made for " The Rhode Island Society for the Encouragement of Domestic Industry," gives the statistics as follows in 1815 : Rhode Island 99 mills, 68,142 spindles. Massachusetts 52 " 34,468 Connecticut.. 14 " 11,700 165 119,310 This says nothing about Maine or New Hampshire. I also copy the following table from a report of the Committee on Manufactures to Congress in 1815 : Capital $40,000,000 Males employed, of the age of seventeen and upward 10,000 Boys under seventeen 25,000 Women and female children 66,000 Wages of 100,000, average $1.50 per week $7,800,000 Cotton manufactured, 90,000 bales, or Ibs = 27,000,000 No. yards cloth 81,000,000 Cost, averaging 30 cents per yard $24,300,000 The close of the war in 1815, and the consequent enormous increase of importations, threatened ruin to this newly born and imperfectly developed interest, and in 1816, after a long struggle, the tariff act of that year was passed, recognizing the principle of "protection to American industry." A duty of 25 per cent, ad valorem was levied on all cotton cloths, and the minimum valuation at the port of expor- 37 tation was fixed at 25 cents per square yard, thus amounting to a spe- cific duty of 6J cents per square yard. This rate was to be leviable for three years, after which it was to be reduced to 20 per cent, ad valorem, and the same rates were to be applied to cotton twist, yarn, or thread, unbleached costing less than 60 cents per lb., and bleached or colored less than 75 cents per lb. With the help of this protection by Government, and the introduc- tion at the same time of the power loom, the cotton manufacture be- came established as a national industry, and has continued to thrive, though subject to great fluctuations, from the uncertain and varying policy of Congress in regard to the tariff on imported goods. Mr. Appleton says : " By degrees the manufacturers woke up to the fact that the power loom was an instrument which changed the whole character of the manufacture, and that, by adopting the other improvements which had been made in machinery, the tariff of 1816 was sufficiently protective." The Legislature of New Jersey in 1815 abolished the tax on spin- dles employed in the cotton manufacture. Twelve hundred spindles are said to have been in operation in Cincinnati this year. There was one manufactory of fustians and cotton velvets at Hudson, N. Y., and one about to be started at Frankfort, Penn: In 1816, Mr. Seth Bemis, of Watertown, Mass., applied the power loom to the manufacture of cotton duck, which he had commenced with the hand loom in 1809, and which was made from Sea Island cotton, costing then from 20 to 25 cents per lb. ; and in this year also Jephtha Wilkinson, of Otsego, N. Y., patented a machine for making loom reeds. In 1817 " societies for promoting American manufactures " were formed in a number of the States. In 1818 the first cotton factory in North Carolina was established at the Falls of Far River, in Edgecombe County, and was followed by another near Lincolnton, on the Catawba, in 1822. " In 1819 the first cotton mill in Manayunk, Philadelphia, was built by Captain John Towers, and afterward passed into the hands of Joseph Ripka, to whose enter- prise the growth of that place is principally due." (Bishop, vol. ii., p. 253.) During these years, 1817-'20, the cotton manufacture had, how- ever, been in a declining condition, and urgent and incessant endeavors had been made to secure further legislation by Congress, but without success. The report of a committee of that body, based on the census of 1820, shows the pounds of cotton actually spun in that year to have been 9,945,609, being a decrease of 63 per cent, on the amount con- sumed in 1815, .and distributed as follows : 38 No. Spindles. Lbs. Cotton spun. Maine 3070 56 500 New Hampshire 13,012 412 100 Massachusetts. 30 304 1 611 796 Rhode Island 63372 1 914 220 Connecticut . . . . 29 826 897 335 Vermont 3 278 117 250 New York 33,160 1 412 495 New Jersey 18 124 648 600 Pennsylvania 13 776 1 062 753 Delaware ... . . . 11 784 423 800 Maryland . .. 20245 849 000 Virginia 3 000 288 18000 South Carolina ... ... 588 46 449 Kentucky 8097 360 951 Ohio.. 1,680 81 360 Total 250572 9 945 609 In 1821 the cotton crop of the United States had increased to 180000,000 Ibs., of which 124,000,000 Ibs. were exported. Secretary Woodbury estimated the amount consumed in the United States to have been 20,000,000 Ibs., which, compared with the census returns just quoted, leaves about 10,000,000 Ibs. to have been manufactured by hand labor. Despite this general prostration of the manufacturing interest, arising from a variety of causes, into which I have neither space nor time to inquire, the factory at Waltham, which was the largest one in the country, had been uniformly successful, whether from its size and ample capital, or its more perfect organization and the great business talent of its owners, is not for me to say ; and is said to have paid twelve per cent, annually during this period of depression, and its princi- pal owners, Messrs. Jackson & Appleton, began inquiries in 1821 for a water privilege where they could commence the manufacture and printing of calicoes on a large scale. And to the result of their search and the foundation of Lowell I will devote another chapter, having in this given all the statistics which I can procure of the progress of the manufacture up to this time. 39 CHAPTER VII. THE year 1821 is a memorable one in the annals of American man- ufactures as witnessing the inception of a larger enterprise than had yet been attempted, and which, in view of its full results, may be fair- ly termed " gigantic " the foundation of the city of Lowell. Mr. Nathan Appleton says : " I was of opinion that the time had arrived when the manufacture and printing of calicoes might be successfully introduced into this country. In this opinion Mr. Jackson coincided, and we set about discovering a suitable water-power. At the sugges- tion of Mr. Charles H. Atherton, of Amherst, N. H., we met him at a fall of the Souhegan River, a few miles from its entrance into the Merrimac ; but the power was insufficient for our purpose. This was in September, 1821. In returning we passed the Nashua River, with- out being aware of the existence of the fall which has since been made the source of so much power by the Nashua Company. Soon after our return, I was at Waltham. one day, when I was informed that Mr. Moody had lately been at Salisbury, when Mr. Ezra Worthen, his for- mer partner, said to him, ' I hear that Messrs. Jackson & Appleton are looking out for water-power. Why don't they buy up the Pawtucket Canal? That would give them the whole power of the Merrimac, with a fall of over thirty feet.' On the strength of this, Mr. Moody had returned to Waltham by that route, and was satisfied of the ex- tent of the power which might thus be obtained, and Mr. Jackson was making inquiries on the subject." Mr. Jackson a day or two after called on Mr. Appleton and ex- plained his plans, which were carried out by associating with them- selves Mr. Kirk Boott, a merchant of Boston who had been educated in England, and had some knowledge of engineering, and who was de- sirous of engaging in the active management of the enterprise. Mr. Thomas M. Clark, of Newburyport (the father of the present Bishop of Rhode Island, and the agent of the Pawtucket Canal Company), was employed by these gentlemen jointly to buy up all the lands about the falls and canal, and such shares of the Canal Company as were within his reach ; while Mr. Henry M. Andrews was employed 40 to purchase all the shares owned in Boston. All this was done very quietly in order to prevent attempts at extortion or speculation ; and in November, 1821, Messrs. Jackson, Appleton, Boott, Dutton, and Moody visited the spot. Formal articles of association were then drawn up, bearing date December 1, 1821, and in 1822 the Merrimac Manufacturing Company was incorporated, on the 5th of February. On the 27th of February the first meeting of stockholders took place, and a board of directors was chosen, to whom was transferred the property which had been purchased, and for which had been paid, viz., for lands, $18,339, and for 339 canal shares, $30,217. The Pawtucket canal had been originally built to facilitate the navigation of the Mer- rimac River, and its enlargement and the renewal of the locks was the first thing to be done. This was commenced in 1822, and com- pleted in 1823 at a cost of $120,000, and was estimated to furnish fifty "mill-powers." This term of "mill-power," or "mill-privilege," used in Lowell, Lawrence, and all the northeastern district, is derived as follows : " The second mill built at Waltham contained 3,584 spin- dles, with all the apparatus necessary to spin No. 14 yarn, and convert it into cloth, which was taken as a standard, and the necessary water- power was estimated and established as the right to draw twenty-five cubic feet per second on a fall of thirty feet, or a gross horse-power of 85.05, supposed to net about 60 horse-power. The price for this was fixed at Lowell at $4 per spindle, or $14,336 for a mill-power and the necessary land, of which $5,000 were to remain unpaid, subject to an annual rent of $300, or $5 per horse-power." This quantity of water, or its equivalent, according to the height of the fall used, has been ever since adopted as the standard in the towns which have followed Lowell, and the water rent has also been substantially the same. An arrangement was made with the Waltham company to equalize the inter- est of the stockholders in both companies, by mutual transfers at rates agreed on, and to pay the Waltham company $75,000 for all their pat- terns and pattern-rights, and the release of Mr. Moody from their ser- vice, as he was indispensable to the new company. Houses for Mr. Boott, Mr. Moody, and the operatives were built, as well as the first Merrimac Mill, and a church, and the first water- wheel was started September 1, 1823. Mr. Worthen was the first su- perintendent of the mills, and Mr. Moody moved from Waltham, and took charge of the machine-shop. Print-works were also commenced in 1823, and at the same time were begun by the Dover Manufacturing Company at Dover, N. H., and also at Taunton, Mass. The Great Falls Manufacturing Company, at Somers worth, N. H., was also incor- porated this year, as well as the Newmarket Manufacturing Company at Newmarket, N. H. Mr. Worthen, who was a man of great mechan- 41 ical skill and ingenuity, died very suddenly in 1824, deeply regretted by all with whom he had been connected, and was succeeded by War- ren Colburn, the mathematician. " The original capital of $600,000 was increased to $1,200,000 in 1823, and in October, 1824, a new subscription of 600 shares was voted, and a committee appointed to consider the expediency of or- ganizing the Canal company by selling them all the land and water- power not required by the Merrimac Manufacturing Company. This committee reported on the 28th of February, 1825, in favor of the measure, which was adopted, and at the same time a subscription was opened by which 1,200 shares in the locks and canals were allotted to the holders of that number of shares in the Merrimac Company, share for share." In 1821 Mr. Paul Moody had taken out patents for improvements in spinning-frames, and two patents for roving-frames ; one of them being the " double-speeder." These and other improvements were in- troduced into the new factories with great advantage. The business of printing calicoes was entirely new in this country, and required some time to establish in a satisfactory manner. The print works of the Merrimac Company were at first placed under the charge of Mr. Allen Pollock, but in 1826 Mr. John D. Prince, of Manchester, England, was induced to come out to this country and take the charge of them, bringing with him from England the knowledge of the art of printing by engraved copper cylinders, by machinery, then just introduced there by Robert Peel, and which was taking the place of the old method of printing by hand with wooden blocks. Dr. Samuel L. Dana, of Waltham, the distinguished chemist, was also engaged by the company ; and by the joint skill and talent of Messrs. Boott, Prince, and Dana the success and reputation of the Merrimac Com- pany were established. The first mills built by them were about 150 feet long by 45 wide, and five stories high, containing about 6,000 spindles each, with the necessary preparation and looms, and of these there were five, making about 30,000 spindles, which was their full complement for some twenty years. Two of the original mills have been destroyed by fire, and the others torn down and rebuilt on a larger scale ; so that the five mills now standing contain, by the Lowell statistics of 1876, 158,- 464 spindles and 3,941 looms, with a capital of $2,500,000, and em- ploy 900 male and 1,800 female operatives. The Locks and Canals company now organized, taking the machine- shop as part of their property, and built the necessary new canals to improve the remaining water-power, and in 1825 made their first sale to the Hamilton Manufacturing Company, who secured the services of 42 Mr. Samuel Batchelder, of New Ipswich, N. H., who had shown great manufacturing skill, as their first agent, and under his management the power loom was applied with great success to the weaving of twilled and fancy goods. In 1828 the Hamilton Company commenced calico printing, under the charge of Mr. William Spencer, who came out here from England for that purpose. In 1828 the Appleton Company was organized, and their mills con- tained various later improvements by Mr. Moody, and are believed to have been the first in which the system of driving the whole mill by " main belts " instead of geared shafting was put in operation, and which was the suggestion of Mr. Moody, who thereby saved, not only in first cost, but in power. All these early mills in Lowell were of about the same size, i. e., 5,000 to 6,000 spindles, and I will now only enumerate the order in which the remaining companies were organized, giving their present statistics in their proper order in my summary. The Lowell Manufac- turing Company, for coarse cottons, negro cloths, and carpets, was in- corporated in 1828 ; the Suffolk and Tremont Mills, now united, in 1830, commencing the manufacture of heavy drills, which experiments by Mr. Batchelder at the Hamilton Company had shown to be very profitable. With these mills commenced the connection of Messrs. Amos and Abbott Lawrence with the manufacturing interest, and in 1831 the Lawrence Manufacturing Company was incorporated, com- mencing operations in 1833. The Boott Cotton Mills, on a somewhat larger scale, followed in 1835, and the Massachusetts Cotton Mills in 1839 ; succeeded by the Prescott Mills (now united with the Massa- chusetts) in 1844. The Lowell Bleachery was incorporated in 1832, and the Lowell Machine-Shop was also incorporated as a separate establishment in 1845, when the Locks and Canals Company sold out the remainder of their real estate, and was reorganized as a water-power company only, under the charge of James B. Francis, Esq., the eminent hydraulic engineer, who had been for a long while the engineer of the old com- pany. The proceeds of the sales of the shop and real estate were di- vided among the old stockholders, and the new stock was taken pro rata by the different manufacturing companies, working under the original charter of 1792, as " the Proprietors of the Locks and Canals on Merrimac River." The Middlesex Company for the Manufacture of Woolen Goods, incorporated 1830, completes the list of the larger corporations in Lowell. The old canals proving insuificient for the proper supply of water to the mills, a new and much larger one was constructed by Mr. Fran- 43 cis, in 1846, by the erection of a massive stone wall for a long dis- tance parallel with the old bank of the river, and founded on its rocky bed ; then turning, was excavated through the ledge, and carried into the heart of the city. The cost of this work was about $500,000. During the past year a massive and permanent stone dam, laid in ce- ment, has been built by Mr. Francis just below the original one, and the water-power of Lowell may be considered as completed. In March, 1826, the town of Lowell was set off from Chelmsford, and in 1836 it was incorporated as a city. Meanwhile, there had been growth elsewhere. In 1822 the manu- facture of cotton sail-duck was commenced in Paterson, N. J., by John Colt, with hand looms, for which Mr. Bemis's power loom was substituted in 1824, and the business was rapidly extended, and was established in Baltimore in 1823 by Charles Crook, Jr., & Brother, who were themselves unsuccessful in business, but the manufacture of duck has remained and become prosperous in Baltimore. In 1822 the first "Texas" cotton appeared in market. In 1823 the Nashua Manu- facturing Company was incorporated in New Hampshire, and the Do- ver Manufacturing Company, at Dover, incorporated in 1822, which failed, and was merged in the Cocheco Manufacturing Company in 1827, had commenced operations, besides mills 'at Exeter and Pem- broke, N. H.; while in Massachusetts the Boston and Springfield Manufacturing Company, with a capital of $500,000, was chartered, and commenced operations on the Chicopee River, in the town of Springfield. The name of this company was changed in 1828 to that Chicopee Manufacturing Company. It is now impossible to trace the exact progress in different locali- ties it was so rapid and various. The Blackstone Manufacturing Company in Massachusetts commenced about this time, as well as the Coventry Manufacturing Company in Rhode Island, according to Bishop (vol. ii., p. 284). In 1824, after a long and tedious struggle, a new tariff bill was passed by Congress, which raised the minimum valuation on cotton cloths from twenty-five to thirty-five cents the square yard, and also levied a duty of three and three quarters cents per square yard on cot- ton bagging, for the benefit of Kentucky and the Western States. A report of the Secretary of State, in answer to a resolution of the Sen- ate, this year, gives the manufacturing capital authorized by State laws since 1820 as, in New Hampshire, $5,830,000 ; in Massachusetts, $6,840,000 ; in Connecticut, $1,300,000 ; and New York, $797,000 making a total in seven States, with the amount authorized in 1820, of $70,636,500. This, however, includes other industries besides cotton. A bleaching and print works was incorporated at Belleville, N. J., this 44 year, and Philadelphia was estimated to contain thirty cotton-mills, averaging 1,400 spindles each. The Ware Manufacturing Company was also incorporated at Ware, Mass. Numbers of patents for improvements in cotton machinery had also been issued since the establishment of power-loom weaving at Waltham, one of the most important of which was that of the appli- cation of the " compound gear," " differential box," or " equation box " to the roving-frame. This motion, which has been adopted uni- versally in all roving-frames or speeders, and which was patented in England in 1826, by Henry Houlds worth, Jr., was the invention, ac- cording to Mr. Zachariah Allen, of Providence, of Aza Arnold, a na- tive of Rhode Island, who first applied it in 1822, but took no measures to secure his patent till January 7, 1823.* A model was taken to Eng- land by an American in 1825, and it was seized upon eagerly and came into general use ; English writers giving the credit of the invention to Mr. Houldsworth. This beautiful invention for regulating the different velocities of the spindle and bobbin, so that the surface of the bobbin, while constantly increasing in size, still preserves the same relation to the speed of the rollers, consisted of a train of bevel gears, one of which was set in the web of another gear, and, while possessing a ro- tary motion of its own, also revolved bodily around another center ; thus either retarding or accelerating the motion transmitted through it, according to the direction given to the intermediate gear. A sim- ple change of a single pinion, which gave this regulating motion, at once adapted the frame to any size of roving, without the great cost which attended the alteration of the old speeder to different numbers from those for which it was originally geared. Mr. Arnold's neglect in asserting his patent led to tedious and expensive litigation ; so that he reaped no proper reward for his ingenuity, while the parties who appropriated it in England are said to have derived great profit. The year 1825 is marked by the invention by Richard Roberts, of Manchester, England, of the self-acting mule, which was not, however, introduced into the United States until some years later. The amount of cotton grown this year in the United States is stated at 255,000,000 Ibs., of which 176,500,000 Ibs. were exported, and the number of spindles in the country is given as 800,000. The first commencement of operations at Saco, Me., was made this year by a company of Boston gentlemen who bought Cutts's Island, at the mouth of the Saco River, and formed their plans for a cotton-mill of 12,000 spindles, which was built in 1826, and was the largest mill yet attempted in America. * See Appendix B. 45 Bishop (vol. ii., pp. 308 and 309) gives an estimate for 1826 of 400 cotton factories in New England, averaging 700 spindles each, and consuming 98,000 bales of cotton. These were distributed as fol- lows : Massachusetts, 135 ; Rhode Island, 110 ; Connecticut, 80 ; New Hampshire, 50 ; Maine, 15 ; Vermont, 10. The larger villages in the order of their size he gives as follows : Lowell, Mass. ; Great Falls, Dover, and Nashua, N. H.; Pawtucket, R. L; Fall River, Mass.; Blackstone, Mass.; Slatersville, R. I.; Taunton, Mass.; Paw- tuxet, R. I. (?); Ware and Waltham, Mass.; New Ipswich and New- market, N. H.; Springfield and Lancaster, Mass.; Norwich, Conn. The number of cotton factories in the other States was estimated at 275, of the same average size ; making the total consumption of cot- ton 150,000 bales per annum. This year the Hudson Calico Print-Works were established at Co- lumbiaville, near Hudson, N. Y., by Joseph and Benjamin Marshall, and have since been largely increased ; and the Cohoes Company was in- corporated, for the improvement of the water-power of the Mohawk River where it falls into the Hudson. For the following statistics I am indebted to D. J. Johnston, Esq., of the Harmony Mills. The first attempt at manufacturing at Cohoes was made in 1811, when the Cohoes Manufacturing Company was incorporated for the purpose of manufacturing cotton, woolen, and linen goods. This came to no- thing ; and in 1826 the Cohoes Company, with a capital of $250,000, since increased to $500,000, was formed, as noted. They built a dam and canals, making the whole fall of 103 feet available on five different levels. The Harmony Manufacturing Company was incorporated in 1835 by a company of gentlemen from Albany and New York, among whom was Peter Harmony, from whom the company received its name. They erected in 1837 Mill No. 1, which still stands, enlarged and improved. Financially this concern proved unsuccessful, and in 1850 it passed by a compulsory sale into the hands of the present com- pany ; the present statistics of which show as follows : Mill No. 1, 550 by 70 feet, 4 stories, containing 42,000 spindles and 900 looms ; No. 2, built in 1857, enlarged in 1866, is 660 by 75 feet and 3 stories, containing 48,500 spindles and 1,100 looms ; No. 3, built 1866, en- larged 1872, 1,250 by 76 feet, 5 stories, containing 130,000 spindles, 1,700 narrow and 1,100 wide looms ; No. 4, formerly the " Ogden Mill," is 500 by 50 feet, 5 stories, containing 29,000 spindles, 650 looms ; No. 5, formerly the "Strong Mill," 330 by 50 feet, 4 stories, containing 19,000 spindles, 330 looms ; No. 6, 240 by 60 feet, 3 sto- ries high, containing 4,000 spindles and 100 looms. This latter mill is used for the manufacture of jute goods, seamless bags, and coarse yarns. The aggregate amount of machinery used by this company is 46 267,500 spindles and 5,880 looms ; more than the whole estimate for the United States in 1820. For the first time in the returns of exports, manufactured cotton goods are included in 1826, amounting to a value of $1,138,125, of which $671,266 was sent to Mexico and Central and South America. The manufacture of cotton bagging was also attempted this year (1826), at Nashville, Tenn. In 1827 the Cocheco Manufacturing Company bought for $750,000 the property of the Dover Company, which had cost about $2,000,000, and continued operations at .Dover. The cotton manufactures of Philadelphia and vicinity for this year are stated by Dr. Bishop to have amounted to 24,300,000 yards, worth $3,888,000, and consuming 20,250 bales of cotton, and the total con- sumption of cotton for the United States is estimated at 103,482 bales. Six thousand bales were consumed this year at Paterson, N. J. In 1827 or 1828 subscriptions were made for the first cotton factory in Virginia , at Petersburg, and a company was also projected about this time at Fredericksburg. The year 1828 is memorable for the passage of a positively " pro- tective tariff" by Congress, which, however, especially favored the woolen and iron interests. On the 2d of September, 1828, Charles Danforth, of Paterson, N. J., received his patent for the " cap spindle," which was introduced into England in 1830, and extensively used, both there and at home, for spinning " filling " before the great improvements in and general in- troduction of the self-acting mule, and is now being adopted success- fully for spinning worsted " filling " in this country. CHAPTER VIII. ANOTHER patent was granted this year (1828) to John Thorpe, of Providence, which has been productive of such enormous results, and so changed the character of cotton spinning in America, that it de- serves to head a chapter. I refer to the " ring spindle," which has driven out the " cap," and almost superseded the throstle in the manu- facture of cotton warp-yarns. Dispensing with the flier, which carried the yarn around the bob- bin in the original patent, the yarn was led in by a slot in the outer one, between two concentric rings, around the inner one of which it was carried by the revolutions of the spindle, one or two modifica- tions of which were shown in the drawings. In 1829 a patent was granted to Addison & Stevens, of New York, for a " traveler " or wire loop, sliding around on a single ring ; and from this the present form of ring-spinning has been derived. The germ of the idea was undoubtedly in Danf orth's " cap " ; but the ring and traveler had so much more scope and took so much less power, that it became the favorite, and with the latest improvements seems likely to take the place of the mule for spinning " filling " as well as warp-yarns. Mr. William Mason, of Taunton, Mass., writes me as follows : " I introduced the ring-spinning frame in Connecticut (at Killingly) in 1833. I built quite a number there, but moved to Taunton with all my patterns in the spring of 1836. All the success- ful ring-frames that were built were made by me up to about 1840,. when P. Whitin & Sons commenced to build them. I built ring- frames for their mills as early as 1833. There has been no improve- ment in the ring and traveler since I first reduced it to practice in 1833." This system was finally adopted by all the large machine-makers in the United States, and has recently received great developments, of which notice will be taken in due order. Among other noticeable events of this year (1828) are the estab- lishment of the Covington Cotton Factory at Covington, Ky., of mills at Vincennes, Ind., and of the Norwich Water-Power Company, on the Shetucket River in Connecticut, at what is now called Greeneville. 12 48 A substantial stone dam 280 feet in length was built, and several large cotton mills were erected in the few years next following. The Columbian Mills at Mason Village, ]ST. H., also started this year (1828). In 1829 another roving frame was invented by Gilbert Brewster, of Poughkeepsie, N. Y., in which a temporary twist was given to the roving during its passage from the rolls to the spool, by passing it between two leather bands or belts moving rapidly in opposite direc- tions. This was used for a considerable time to some extent, on ac- count of the small cost of the machine and the great quantity of work it would produce, and was known as the " Eclipse speeder." It was introduced into England by Messrs. Sharp Brothers in 1835, but has now given place to the roving frame with the "equation-box" or " compound " movement, as it is generally called, either in the form of the " fly frame " or " speeder," the latter name being given to those frames in which the arms of the flier are connected at the bottom and are independent of the spindle. In 1830 the quantity of cotton goods manufactured in the United States was estimated at 250,000,000 yards. The Exeter Cotton Fac- tory, at Exeter, N". H., went into operation in March of this year. The mill at Saco, Me., was burned, and the Lonsdale Company com- menced operations at Smithfield, R. I. In 1831 .the York Manufacturing Company, of Saco, secured the services of Mr. Samuel Batchelder, who had just left the Hamilton Company, at Lowell, and built a new four-story mill on the old site. Here, in 1832, Mr. Batchelder introduced the stop motion, which he applied to the drawing frame ; and not long after invented the " bal- ance dynamometer," for weighing the power required to drive ma- chinery. Mr. Batchelder remained here until 1846, when he sold out his interest, but some years later, at upward of seventy years of age, accepted the treasurership of the company, at a time when the value of the stock had depreciated from $1,200 to $600 per share, and re- mained in that office until the value of the shares had again risen to $1,700, when he finally retired from business. A Convention of the Friends of American Industry was held in New York in 1831, at which the following statistics were obtained : The cotton crop was estimated to be 1,038,847 bales, and the domestic consumption to be more than one fifth of the crop ; and the condition of the manufacture in the twelve Eastern and Middle States, including Maryland and Virginia, was as follows : Capital invested (principally in fixtures) $40,614,984 Number of spindles in operation 1,246,503 Hands employed 62,157 Value of product, annual $26,000,000 49 A large steam cotton factory was built this year at Olneyville, R. I., and another at Fall River, Mass., and the first cotton mill was built at Amoskeag Falls, now Manchester, N. H. Besides the larger establishments noted, others were growing up on all the waterfalls in Rhocle Island, Southern Massachusetts, and Connecticut, the precise data of which I am unable to get. The whole valley of the Blackstone River, from Worcester to Providence, and those of the Mumford, Quinebaug, and Shetucket, furnished nu- merous mill sites, which were rapidly appropriated, for cotton and woolen factories. Eighteen hundred and thirty-two will never be for- gotten as the " nullification year," the Legislature of South Carolina having passed a resolution declaring the tariff act of that year " null and void." The Southern States, who were at first advocates of pro- tection, on account of their " cotton," while New England was gen- erally opposed to it, on account of her " commerce," had changed front with their old adversaries entirely ; and, while the Eastern and Middle States, having embarked heavily in manufactures, were desirous of continuance of the system, the South had begun to think it advisa- ble to ship their cotton to Europe, and under free trade have it manu- factured there and returned to her, with such other manufactured articles as might balance the account. The excitement and disturbance consequent on this action of the State of South Carolina led to the introduction and passage of the celebrated " Compromise Act " of 1833, by which the duties on imports were to be gradually reduced. The statistics for 1833 show the capital invested at Lowell to have been $6,150,000, with 19 mills, 84,000 spindles, 3,000 looms, 5,000 laborers, using 200,000 bales of cotton. Fall River contained 13 mills, with 31,500 spindles and 1,050 looms, employing 1,276 hands. The York Manufacturing Company started their new mill this year, with 8,000 spindles. The cotton crop of the United States was estimated the next year, 1834, at 460,000,000 Ibs., of which 384,000,000 were exported. At this time, says Dr. Bishop, "the ports of Rio de Janeiro, Aux Cayes, Malta, Smyrna, and the Cape of Good Hope were overstocked with unbleached American cotton, to the exclusion of British goods, which they undersold." I also quote from the same authority, that " the manufacture of cotton gins was commenced on an extensive scale at this time in Autauga County, Ala., by Daniel Pratt, a native of New Hampshire, who in 1846 added a cotton factory. The Jackson Manu- facturing Company, at Nashua, N. H., was incorporated this year (1834), and the Lonsdale Company, of Rhode Island, commenced operations. Eighteen hundred and thirty-five shows 112 cotton mills in the 50 State of New York, with 157,316 spindles and a capital of $3,669,500, employing 12,954 hands and producing 21,000,000 yards of cloth. The year is also marked by the death of Samuel Slater on the 20th of April. Mr. Samuel Batchelder obtained a patent this year for the application of a steam-drying cylinder to the dressing machine, and the Boston and Lowell Railroad was opened for communication between those two cities. In 1836 the capital invested in manufacturing in the United States was estimated at $80,000,000, the consumption of cotton at 100,000,000 Ibs., and the number of spindles at 1,750,000, the value of the product being from $45,000,000 to $50,000,000. The speed of spindles had also been materially increased by the various improve- ments which had been made, making the production per spindle much greater than in 1813. This year the Patent Office was organized into an independent bureau, and the Hon. Henry L. Ellsworth was appointed the first Commissioner of Patents on the 4th of July. On the same date a cotton factory of 1,000 spindles was put in operation at Fayetteville, N. C. Another manufacturing company was incorporated this year at Chicopee, Mass., with a capital of $400,000, under the name of the " Perkins Manufacturing Company " ; and the Mauchaug Manufactur- ing Company, at Sutton, Mass., and the Fiskdale Manufacturing Com- pany, at Sturbridge, Mass., were incorporated. In 1836 the Gray Manufacturing Company, and in 1837 the Laurel Manufacturing Com- pany, of Maryland, commenced operations. Bishop (vol. ii., p. 411) says : " There were at this date four cotton mills in North Carolina, viz., at Greensborough, Mocksville, Haw River, and Cane Creek. Two or three spinning factories, of 100 or 200 spindles each, carried by animal power, were in operation in Illi- nois, producing yarn successfully from material grown in the State." One or two manufacturing companies were chartered this year in the State of New York. In 1838 the Bartlett Steam Mills, at Newburyport, Mass., were chartered. Mr. Bartlett, the chief owner and projector, conceived the idea that a cotton factory in that town would give employment to the families of the sailors and fishermen who were residents of the town, and who were themselves absent the greater part of the year. The transfer of commerce to the cities of New York and Boston had seriously crippled the prosperity of Newburyport, Salem, and other towns along the coast of New England, and it was hoped that the introduction of manufactures would aid in restoring them to their former prosperity. These towns contained a large unemployed female population, and it was believed that the abundance of labor 51 and the saving in freight of coal and cotton would compensate for the additional cost of steam-power over that of water ; but these hopes have proved fallacious, so far as all the steam mills on the seacoast northeast of Boston are concerned. The " James " Mill, at Newbury- port, started in 1843, the " Globe " Mill, at the same place, in 1846, and the Portsmouth Steam Mill, at Portsmouth, N. H., the same year, are notable examples. I will endeavor in an appendix to give some data as to the actual relative cost of the two modes of obtaining power. The Amoskeag Manufacturing Company, of Manchester, N. H., incorporated in 1831, and which had acquired by purchase all the wa- ter rights on Merrimac River, from Nashua to Concord, commenced in 1838 to greatly extend and develop their water-power, by the con- struction of an extensive system of canals on the east side of the river, opposite to the site of the original mill built in 1810, and erected a large shop for the construction of machinery. In 1839 the Stark Mills and the Manchester Print Works were incorporated, the former commencing operations at once, although the latter did not begin till 1845. In 1841 and '42 the Amoskeag Company built two mills, which were known as the " Amoskeag New Mills " until the destruction of the old mill by fire some years later, and have since gradually increased to 135,000 spindles, besides building machinery of various kinds and further developing their water-power. The present statistics of Man- chester will be given at the close of this memoir, in connection with those of Lowell, Lawrence, Lewiston, and other distinctively manu- facturing towns. Another important event of the year 1838 was the invention by Erastus B. Bigelow of an improvement on the loom for weaving- knotted counterpanes. The close of the decade in 1840 shows a capital of over $50,000,000 invested in cotton manufactures, and 2,285,000 spindles in operation, working 113,059,000 pounds of cotton, and with over 70,000 people employed in its various branches. The introduction of the self-acting mule, which occurred at this time, is an event of sufficient consequence to deserve a new chapter. 52 CHAPTER IX. I HAVE spent a long time in endeavoring to trace accurately the "his- tory of the introduction of the self-acting mule into America, and met with some conflicting statements, from which, however, I am enabled to extract the following facts : Mr. Ira Gay, of the firm of Pitcher & Gay, of Pawtucket, R. L, went to Nashua, N. H., as the mechanical superintendent of the Nashua Company, in 1824. A self-acting mule was then built by him in 1825-'26 at the Nashua Mills, and others of the same pattern were built by his successors, Pitcher & Brown, in 1828, for Edward Wal- cott, of Pawtucket. " Messrs. Pitcher & Brown afterward built the 1 Sharp & Roberts ' mule in 1840, and in 1868 built the < Parr, Curtis & Madely ' pattern." For this information I am indebted to the Hon. Zachariah Allen, late Governor of Rhode Island, and through him to Mr. James Brown, of Pawtucket, one of the firm of Pitcher & Brown. This information as to the early attempts at mule spinning in the United States is confirmed by William A. Burke, Esq., Treasurer of the Lowell Machine Shop, who writes me as follows : " Mr. Ira Gay was the superintendent of the Nashua Manufactur- ing Company's machine shop, at Nashua, N. H., when I began to learn my trade in December, 1826. The job I was working on had no part of the mule work, but I recollect very well that they were a promi- nent machine in the shop, and caused no little discussion with us boys. " 1 believe the old Nashua Mill No. 2 was supplied with them for making filling, and I remember very well the tin quill or bobbin, with its wooden cone on the lower end, and the raised rings on the tin part, for holding the yarn from pulling off. As you may now well suppose, these tin tubes were giving trouble enough in keeping straight, for they reached nearly to the top of the spindle. I left off working in the Nashua Company's shop in 1828, and the mules were in a few years abandoned and broken up." The next attempt was made by William Mason, of Taunton, who writes me as follows : 53 " I commenced to experiment on the self -actor mule in 1837, and from that time to 1843 I continued to persevere and improve it. I produced several patterns which were more or less successful, but the last pattern, the one that we are now building, was put in operation for the first time at the old Essex Mill, at Newburyport, Mass., early in 1843." Mr. Thomas J. Hill, of Providence, says : " I made mules after Mason's patent in 1840." Mr. Mason has, however, introduced many improvements in strength- ening the parts of his mules since 1843, and the " Mason mule " is now well known throughout the country, as doing more work with the same power than any other mule built. Up to 1840, however, mule spinning in this country was only an experiment, and its successful practical introduction was due to Brad- ford Durfee and William C. Davol, of Fall River, who, on March 9, 1839, signed a contract with Messrs. Sharp, Roberts & Co., of Man- chester, England, for the mutual benefit of the aforesaid parties, and William C. Davol acted as agent to procure letters patent for the United States, under the name of Richard Roberts, the original in- ventor of the mule. These letters patent are dated October 11, 1841. Owing to the rigidness of the English export laws at that time, the first mule was obliged to be shipped via France, and was received at Fall River in 1840. This mule was set up and put in operation the same year at the Annawan Mill, Fall River, under the superintendence of William C. Davol. The mule being considered an entire success, several orders were at once given to Hawes, Marvel & Davol to build them, and the firm, being anxious to complete the orders as rapidly as possible, employed Messrs. Pitcher & Brown, of Pawtucket, who had been experienced in building jacks, to make the carriages from pat- terns furnished by Messrs. Hawes, Marvel & Davol. From this date forward the progress of mule spinning in the " Southern district " of Massachusetts and Rhode Island was very rapid, though it was many years before it was introduced to any great extent farther to the North and East, where the prejudice was strong in favor of the hard-twisted and wiry yarn made by the throstle. Many experiments were, however, made, the first one being the introduction of the Smith or " Scotch " mule by the Matteawan Com- pany, of Fishkill Landing, N. Y., soon after 1840, and letters patent were secured by W. B. Leonard, agent of that company. This pattern was much liked for a time, and a small number of them were built by the Amoskeag Company for a mill owned by them at Hooksett, N. H., and later for one of their own mills at Manchester, and also by the machine shop of the Locks and Canals Company, at Lowell, for a mill 54 at Great Falls, N. H. In 1844 the " Parr, Curtis & Madely " mule, an outgrowth from the Sharp & Roberts, was imported for a mill at Spring Gardens, in Philadelphia, and in 1845 the Franklin Foundry Company, of Providence, commenced their construction. The Potter mule was also introduced in 1845 by the Manchester Print Works, then going into operation, for the purpose of spinning delaine filling, to which the " Smith " mules were applied at Hooksett ; and were afterward imported for the mill built for the manufacture of lawns at Portsmouth, N. H., in 1848, and about the same time for a mill in East Greenwich, Conn. Still later, about 1853, the " Higgins " or " low-head " mule was introduced by the Franklin Foundry Company, and became well known in the country under their name, and was soon afterward adopted and built by the Saco Water-Power Company. This mule, the original " Sharp & Roberts " pattern, and the " Mason," were the ones mainly used in the United States up to the period immediately succeeding the civil war, when the extraordinary demand for fabrics, and the impossibility of procuring machinery ex- cept at an exorbitant cost, if at all, from any American machine- builder, led to the importation of a great number of English mules of two kinds nominally : one, the " Parr, Curtis & Madely " before men- tioned ; the other, the " Platt," built by the Platt Brothers, of Old- ham, Lancashire ; but both, in all essential features, lineal descendants of the Sharp & Roberts mule. Of these two patterns, that of the Platt Brothers was adopted by the Lowell Machine Shop, and the Parr & Curtis by the Saco Water- Power Company, both of which establishments have been largely en- gaged in their manufacture since the close of the war ; and these, with the Mason arid a few of the Sharp & Roberts pattern, are the only kinds now built ; the Smith & Potter being quite obsolete, and the Higgins, though an excellent machine, not able to compete in speed or production, on coarse numbers, such as are generally spun in this country, with these improved and more powerful rivals. Another American mule, invented by Wanton Rouse, of Taunton, which formed the cop by an enormous eccentric cam or " builder," was also introduced in 1853, but has never been used to any great extent. The English fly frame or roving frame, differing from the American speeder in having the flier attached to the top of the spindle, and revolv- ing with it, while the bobbin was headless, and carried independently by the differential motion of Aza Arnold, already spoken of, which was adopted in England by Houldsworth, was introduced in this coun- try about 1845, and has since been generally adopted, though the prejudice against it, on account of the delay in " doffing," was for a 55 time very strong. The first frames were sent to Rhode Island by Messrs. William Higgins & Sons, of Manchester, who have supplied a great number to American mills, as have also Messrs. Howard & Bal- lough, of Accrington, particularly during the period following the war ; but the manufacture of these machines was soon taken up by the Providence Machine Company and the Saco "Skater-Power Com- pany and others, and there are now very few imported. The Lowell Machine-Shop has built an improved speeder, combin- ing the headless bobbin and wind of the fly frame with the long flyer, which is in use to a great extent, and with entire satisfaction, on coarse rovings. The year 1844 is memorable for the introduction of the turbine wheel, one of which, of seventy-five horse-power, after the Fourneyron plan, with improvements, was introduced at the Appleton Mills at Lowell by Uriah A. Boyden, an eminent engineer of Boston. Atten- tion had been previously called to this matter, and Mr. Elwood Morris, of Philadelphia, had in 1843 published a translation of a French work on the subject of turbines, by Morin, with notes of the operation of some turbines of his own design at Philadelphia ; but the success of the system may be said to date from the results obtained by Mr. Boy- den at Lowell ; seventy-eight per cent, of the' gross power of the water, besides that required for driving the bevel-gears and "jack- shaft," having been obtained on the test of the first wheel, and eighty- eight per cent, at the test of more perfectly constructed wheels, built afterward from the designs of Mr. Boyden. From this time forward the turbine in some form or another has been introduced, till it has now entirely superseded the old " breast " or " overshot " wheel, giving a much higher percentage of effect from the water, and enabling mill- owners to run some portion of their machinery in times of freshets or back-water, when the old wheels were entirely useless. Another American invention of about the same date was the cloth- shear or trimmer, which is now in universal use in cotton mills, al- though the intention of its inventor, Milton D. Whipple, of Lowell, was confined to trimming the ends and threads from the cloth in the calico print works ; but the machine proved so useful that it has been generally adopted in all mills as a necessary operation in preparing the cloth for market. The growth of the cotton manufacture, under the stimulating in- fluences of protection, and the favor with which American goods were received in China, was now very rapid, and in 1845 plans were made for a further development of the water-power of the Merrimac River, at North Andover, by the construction of a dam across it, at the rapids at that place, which should give a fall of twenty-six feet, 56 and set back the water in the pond above the dam to the foot of Hunt's Falls, just below Lowell. The Essex Company was incorpo- rated for that purpose, and the work commenced ; and in 1847 the dam and canal were completed, and the town which had sprung up in consequence of the operations was called Lawrence, from the name of the gentlemen in Boston who had been the leaders in the enterprise. The Atlantic Cotton Mills were the first to commence operations, but were soon followed by others, until a flourishing and populous city occupies the site which thirty years ago was a barren sand-bank, and of which particulars will be given in the proper appendix. The Dwight Manufacturing Company, of Chicopee, had been in- corporated in 1841, and eventually absorbed both the Cabot and Per- kins Mills, of the same place. Another special industry was inaugurated by E. B. Bigelow, of Lancaster, in 1844, by the commencement of the Lancaster Mills, at Clinton, Mass., for the manufacture of ginghams, which were to be woven by machinery instead of by hand loom, as had formerly been the practice, and resulted in entire success, proving the scheme to be practicable and profitable, and serving as the pioneer to various other successful establishments of a similar character. The Ocean Mills, of Newburyport, Mass., were commenced in 1845, the Boston Duck Company, of Palmer, in 1843, and the Ply- mouth Cotton Company in the same year ; and in 1847 the Wamsutta Mills, of New Bedford, the Agawam Canal Company, of West Spring- field, and the Annisquam Mills, of Rockport, all in Massachusetts, were started. In 1848 the Glasgow Company, of South Hadley, fol- lowed the Lancaster Mills on ginghams. The Massasoit and Metaco- met Mills, of Fall River, commenced respectively in 1845 and 1846, and the Naumkeag Mills, of Salem, commenced in 1839, and the Otis Manufacturing Company, of Ware, 1840, should also be included in the growth of Massachusetts for this decade. Nor were the other New England States behind in developing their resources. The Saco Water-Power Company, in Maine, by means of new dams and canals on the west side of the river, opposite the York Mills, utilized the whole power of the Saco River, and built the Pep- perell Mills in 1844, and the Laconia Mills in 1845, with a large ma- chine shop, which has been successfully operated since by the Water- Power Company, and as a necessary result the city of Biddeford grew up around these establishments. The Hallowell Manufacturing Com- pany, at Hallowell, was also commenced in 1845. Neither can the growth of the cotton manufacture at this time be estimated fairly by the number of mills built. The original mills of 4,000 to 6,000 spindles had given place to larger and more convenient 57 structures containing from 10,000 to 15,000 spindles each, and these were in time to give place to still larger ones, or to be connected by intermediate buildings, bringing 30,000 or 40,000 spindles under one roof and one system of superintendence, as experience and practice de- veloped overseers of skill sufficient to take the charge of so large an amount of machinery, with its complement of operatives. In New Hampshire the Amoskeag and Great Falls companies were extending their operations and adding to their machinery, and in 1845 the Monadnock Mills at Claremont were commenced, using the water- power of Sugar River. Large numbers of mills were also built in Rhode Island, among which were those of the Groton Company, at Woonsocket, in 1840, the Hope Company, at Scituate, in 1845, the Warren Company, at Warren, in 1847, and the Quidnick Company, at Anthony, in 1848. In Connecticut the Falls Company, of Norwich, and the Chestnut Hill Mill, at Killingly, commenced operations in 1844 ; the Granite Mill, at Stafford Springs, and the Greenwood Company, at New Hart- ford, in 1845 ; the Uncasville Manufacturing Company, at Montville, in 1848 ; and the Moodus Manufacturing Company, at East Haddam, in 1849. The Victory Manufacturing Company, of Saratoga, N. Y., com- menced in 1846, and the Utica Steam Mills in 1848. I -have no statistics by which to mark the exact progress of the manufacture at this period in the States farther South and West, but it is certain that there was a large increase in and around Philadel- phia, which has always been a great manufacturing center, though the individual enterprises have been on a smaller scale than those of the great incorporated companies of the New England States. The census of 1850 gives no reliable information as to the amount of machinery then in operation or the number of operatives employed, but the production of cotton fabrics is given as 263,190,642 Ibs. The business of cotton manufacture was by this time so firmly established as to be little affected by changes in legislation in regard to duties on the coarser fabrics required for domestic consumption, to which American machinery had been adapted ; and its progress was constant and steady for the next ten years, with constant improve- ments in the mechanical and economical appliances, and successive enlargements of the scale of operations ; and its growth from 1850 to 1860 will fill our next chapter. 58 CHAPTER X. THE earlier years of the next decade, until 1857, were marked by a continual and steady growth of the cotton manufacture ; the Amer- ican manufacturers and mechanics who visited the first International Exhibition in London in 1851 extended their tours to the manufactur- ing districts, and brought home many valuable ideas and economical improvements, which were rapidly introduced in all parts of the coun- try. The boldness of the scheme which created a waterfall at Law- rence, by the erection of a dam twenty-five feet in height and the formation of a mill-pond ten miles long, had stimulated an enterprise on a still larger scale that of rendering available in a similar manner the enormous power of the Connecticut River at South Hadley, where there was a fall of sixty feet extending over some two miles, in a series of continuous rapids. To accomplish this purpose the Hadley Falls Company was incorporated by the Legislature of Massachusetts in 1848, with a capital of $4,000,000, and operations were commenced by the purchase of about 1,200 acres of land on the west side of the river, near the principal fall, where a dam of timber, loaded with stone, with massive stone bulkheads, was constructed, 1,019 feet long and 30 feet high. The first attempt was unsuccessful, and the dam gave way under the pressure of the water as it was being completed ; but a sec- ond attempt fared better, although the wearing away of the sandstone bed of the river below the fall necessitated a reconstruction of the work in 1868, when an apron was built below the dam, so as to give the whole structure the form of a triangle, with a base of ninety feet and a perpendicular of thirty, consisting of a heavy timber crib frame, bolted to the rock, filled with stone and covered with plank, while the crest was " armor-plated " with boiler iron. In the western bulkhead, operated by a turbine wheel, were placed the gates which admitted to the upper canal, and from this the water was taken to a second, and then to a third, which discharged into the river at the lower end of the town. The fall from the upper to the middle canal was 20 feet, from the 59 middle one to the lower one 12 feet, and 20 feet to the river at the upper end, where part of the water was discharged, while it was from 23 to 28 feet on the lower one, and the whole system was over four miles in total length, rendering available in all about 30,000 horse- power. The first dam was completed in 1849, and a machine shop (since converted into a cotton-thread mill) was constructed, in imitation of the original plan of Lowell, where a shop to build the machinery for the mills was an absolute necessity and an integral part of the sys- tem, from the entire absence in the country at that time of any shops of sufficient capacity for the purpose. A machine shop (also since converted into a cotton mill) had been built at Lawrence, and it was the first thing done at the new town, now a city, of Holyoke. In 1852 the Hampden Mill, of 16,000 spindles, was built, and in 1853 the Lyman Mills, now containing 75,000 spindles, commenced operations. The crash of 1857 ruined the original company which built the dam and laid out the town, and the water-power passed into the possession of the Holyoke Water-Power Company, and has since been largely utilized for the manufacture of paper and other indus- tries, Holyoke being now the great headquarters of the writing-paper business. At about the same date another company commenced the develop- ment of the water-power of the Androscoggin River at Lewiston, Me., where a high fall and a solid rock foundation rendered operations much less expensive, and where manufacturing has been very suc- cessful. The first cotton mills to start here were those of the Bates Manu- facturing Company, in 1852, since followed by others, the statistics of which will be given at length later in this memoir. In addition to these larger enterprises, the following establishments commenced operations between 1850 and 1860 : In Maine, the Cabot Manufacturing Company, of 35,000 spindles, at Brunswick, in 1857, and the Westbrook Manufacturing Company, at Saccarapa, 16,000 spindles, in 1858. In Massachusetts, the mills of the Hebron Manufacturing Company, at Attleboro, 37,000 spindles, in 1852 ; the Monument Mills, at Great Barrington, the same year ; the Lawrence Duck Com- pany, 7,500 spindles, at Lawrence, the Phoenix Company, 6,000 spin- dles, at Shirley, and the American Linen Company, at Fall River, originally projected for a flax mill, but changed to cotton, now con- taining 83,000 spindles, in 1853 ; the Warren Cotton Mills, 13,500 spindles, at West Warren, and the Ward Manufacturing Company, since changed to the Indian Orchard Mills, 16,000 spindles, at Spring- field, in 1854 all on cotton exclusively, besides the Pacific Mills at 60 Lawrence, started in 1852 partially on cotton and worsted goods, as well as on calicoes, originally on a magnificent scale, and now one of the largest manufacturing establishments in the world. In Rhode Island during the same time were commenced the mills of the Franklin Company, at Olneyville, in 1850, 34,500 spindles ; the Valley Falls Company, at Lincoln, 35,000 spindles, and the Lippitt Company, 7,500 spindles, at Phoenix, in 1853 ; the Dyerville Compa- ny, 18,000 spindles, at Centredale, and the Clinton Mill, 16,000 spin- dles, at Woonsocket, in 1854 ; together with the Social Mills, since burnt and rebuilt, now 50,000 spindles, at Woonsocket, in 1855. Connecticut also shows a long list of mills, commencing with the Quinebaug Company, 34,000 spindles, at West Killingly, in 1851 ; the Smithville Manufacturing Company, at Willimantic, 17,000 spindles, and the Atlantic Duck Company, at Haddam, the same year ; the East Haddam Duck Company and the Wauregan Mills, now contain- ing 56,000 spindles, were begun in 1853 ; and the Williams Duck Company, at Haddam, in 1854, the duck manufacturing companies being all small establishments. In 1856 the A. & W. Sprague Manu- facturing Company built their great Baltic Mill, of 75,000 spindles, for the manufacture of print cloths, at the village of Sprague ; and in 1857 the Willimantic Linen Company, so called, but devoted to the manufacture of sewing-cotton, commenced operations, and now em- ploys 45,000 spindles on that product. The Dunham Company, of Willimantic, with 6,000 spindles, was started in 1858, and the Wil- liamsville Manufacturing Company, with 12,500 spindles, at West Killingly, and the Elliottville Manufacturing Company, at East Kil- lingly, 3,800 spindles, in 1859. The Attawaugan Company, also at Killingly, 17,000 spindles, began in 1860. A part, however, of the above named establishments commenced operations with a smaller number of spindles than they are now cred- ited with, having received large additions since the date of starting. The Newburgh Steam Mills, at Kewburgh, N. Y., were commenced in 1850, and the Harmony Mills, at Cohoes, reorganized, as before noted. The Indiana Cotton Mills, at Cannelton, Ind., with 10,800 spindles, commenced in 1855, and the St. Louis Cotton Factory, at St. Louis, Mo., with 10,500 spindles, in 1857. The financial difficulties of the latter year checked any further rapid development until after the close of the civil war in 1865, and proved fatal to the great enterprise at Holyoke, causing a great loss of capital to the original projectors, as well as to those of many of the other new establishments which had just commenced operations. The great mechanical invention of the period was that of the " self- 61 stripping " card, which was brought into successful use about the year 1857. Various experiments had been made both in this country and in Europe to accomplish the object of cleansing the " top-flats " or cards from the constantly accumulating waste, consisting of short cot- ton, bits of seed-husk, leaf, etc., by some automatic process while the card was in operation, thus avoiding loss of time and securing more systematic, regular, and perfect cleaning, while dispensing with a large amount of hand labor. This result was finally accomplished by two inventors, working separately, but whose patents were finally united in 1867, forming the card as in ordinary use to-day. George Wellman, of Lowell, Mass., received letters patent Decem- ber 6, 1853, for a system of mechanism for elevating, cleaning, and returning to their places the top-cards or flats, and also for moving the vibrating frame, which accomplished this purpose from flat to flat, or from one to the second flat from it in the series. Horace Woodman, of Biddeford, Me., received letters patent on the 1st of August, 1854, for a system of mechanism for the same purpose, but differing somewhat from that of Wellman. Wellman took out a second patent, for an improved machine, March 18, 1856, and a third one January 27, 1857. Woodman also received a second patent July 8, 1856, and a third December 1, 1857. As might naturally be expected, where the object to be effected was so positive and confined, these different patents in- terfered with each other essentially, and, after much litigation, the matter was compromised oy a union of the two in 1867, as noted. This invention has come into general use, and has not only proved more effectual in producing perfect work, but more economical in wear and tear of card clothing, as well as in labor. Another valuable invention, but of less general application, was the seamless bag loom, invented by Cyrus W. Baldwin, of Manchester, N. H., in 1851, in which, after weaving the necessary length of bag in a tubular form, by a simple automatic change of cams, the harnesses were shifted in such a manner as to weave an inch or more of solid double cloth, thus forming the bottom of the bag, and then returned to their original position in the same manner, without stoppage or dis- arrangement of the machinery or need of manual assistance. The parallel motion for the picker-staffs of looms was also brought into use about this time, the first one having been invented by W. W. Dutcher, of Hopedale, Mass., in 1853, soon followed by several others. This was a valuable invention, as saving a large expenditure for " pickers " and " picker-strings," and in some form or another is in general use. The " shuttle-guard " of H. D. Bobbins, patented in 1852, and the 62 improved oiler of I. R. Scott, afterward improved by W. H. Thomp- son, are also deserving of notice. In connection with the improvement in cards should be mentioned the railway evener, invented by D. W. Hayden, of Willimantic, Conn., in 1850, and afterward improved by Newell Wyllis, of Glas- tonbury, and still later by Messrs. George Draper & Sons, of Hope- dale, Mass. This valuable invention, applied to the railway-head, which receives the sliver from a system of six or more cards, being driven by a belt working on a pair of cone-pulleys, changed the draught of the rolls in the head whenever the sliver was broken down from any of the cards, by means of a " trumpet," through which the combined sliver passed, and which operated a lever, shifting the belt on the pulleys, thus causing the sliver delivered to be of uniform size. In 1860 the large machine shop at Lawrence, Mass., built by the Essex Company, and afterward known as the Lawrence Machine Shop, was converted into a cotton mill, and has since been known as the Everett Mills ; and the Pemberton Mills, at the same place, originally built in 1853, which had been destroyed by an accident, with horrible loss of life, the previous year, were rebuilt ; and both these mills were applied to the manufacture of colored fabrics, such as cottonades and dress-goods. These are the principal enterprises of this period, during which the number of spindles had increased, as shown by the census of 1860, to 5,035,798, and the pounds of cotton worked to 450,877,823, while the crop of cotton raised in 1859 had reached the enormous amount of over 4,000,000 bales, or 1,850,000,000 pounds, of which we consumed about one quarter, while the rest found a ready market at high prices in Europe, and the enormous profits realized by its cultivation gave rise to political results which for a time convulsed the world and bid fair to destroy the republic. 63 CHAPTER XI. IT is not within the purposes of this article to enter on the discus- sion of political questions, but this enormous and rapid growth of the cotton manufacture was unquestionably one of the principal causes which brought about the great American Civil War. The superiority of the staple of American cotton had made it the favorite in the markets of the world, and the demand for it seemed to be practically unlimited. The profits of its cultivation were great, and every acre of the cotton-growing States that could be made avail- able was devoted to this purpose. " Cotton is king " was the watch- word of the planters, and so fully were they convinced of the truth of this fallacy that they dreamed of a new empire to be devoted to the cultivation of cotton by slave labor, and to be attained by the disrup- tion of the existing union with the manufacturing and food-growing States of the North and West. The question of slavery had long been a serious difficulty between the North and the South, and, as it was fully believed in the latter region that this important staple could only be raised by slave labor, the planters regarded any opposition to the system or its extension as an attack upon their most vital interests, while the North, regarding it as both morally and economically wrong and injurious, had planted itself firmly against its introduction into the unorganized territories belonging to the nation. The election of a president on this basis, of opposition to the fur- ther extension of slavery, served the South as a casus belli, and, be- lieving that cotton must be had, and that they were sure of the support and assistance of European manufacturers, the cotton-growing States took the responsibility of attempting the dissolution of the Union. It is needless to say that the result has been very different from the anticipation, and that the crop of cotton cultivated by free labor is now greater than before the war, having reached 4,500,000 bales, and continually increasing, although the whole system has been 13 64 changed, and the crop is now raised by small land-holders or tenants of land, in connection with food-crops, as a staple " money-article," for the supply of their clothing and other wants beyond their own pro- duction, instead of in large lots by the owners of great plantations, who depended on the profits of their cotton to supply all their other wants, even buying much of the food consumed by their families and laborers. The greatest increase in the crop has been in the State of Texas, where the most white labor has been employed, and the " farm system," as in contrast to the " plantation," most fully developed, amounting to over 80 per cent, more than before the war, the last crop of the State having been nearly 700,000 bales. The introduction of the new system has of course been attended with more or less difficulty to the .manufacturer, wno can not now go into the market and purchase one or two hundred bales of cotton of the growth of one plantation and of uniform quality ; but care on the part of the buyer and skill in mixing his cotton on that of the manu- facturer render it one of no very great importance. The outbreak of the war in 1861 stopped all further extension of the manufacture for a time, and utterly prostrated the business. Many cotton mills sold their stock on hand, and put in more or less woolen machinery, to supply the anticipated demand for army cloth- ing, or in doubt whether they should ever see any more cotton ; while other shrewder manufacturers bought the cotton thus sold, and piled it up, until the demand for cotton cloths rendered its manufacture enormously profitable ; but it was a long time before matters resumed their normal condition. The necessities of the South, however, drove them into manufac- turing to a small extent, and in 1864 the Augusta Cotton Factory, of 23,000 spindles, was commenced ; and since the close of the war the number of spindles at the South has been increasing, although the de- ficiency of capital and skilled labor prevents very rapid progress. Still Virginia, North and South Carolina, and Georgia have begun to utilize their valuable water-powers to some extent, and something has been done in Alabama, Kentucky, and Mississippi. After about two years of uncertainty, the manufacturing districts began to take courage, and business was again resumed partially ; to be revived with increased vigor at the close of the war in 1865, when the country had become pretty thoroughly drained of its stock of cot- ton fabrics ; and while many of the existing mills increased their number of spindles to a great extent, the following new enterprises of note were commenced one or two of them during the war, but the greater number after its close. In 1861 the Webster Mills, at Sun- cook village in Pembroke, N. H., which had been previously planned, 65 were started, with 30,000 spindles, in 1862 the Coventry Company, at Anthony, B. I., with 10,700 spindles, and the Grafton Mills, at Graf- ton, Mass., with 12,400 spindles ; in 1863 the Ashland Company, 20,000 spindles, at Jewett City, Conn. ; the Central Mills, 10,600 spin- dles, at Southbridge, Mass. ; and the Oriental Mills, at Providence, B. I., with 15,000 spindles ; while the machine shop of the Hadley Falls Company, at Holyoke, was converted into a mill for the manufacture of spool cotton, and reorganized as the Hadley Company, with 30,000 spindles. In 1864 the Providence Steam Mill, at Providence, B. I., began with 21,000 spindles ; the Reynolds Manufacturing Company, at Bristol, B. I., with 10,750 spindles ; the Augusta Factory, at Au- gusta, Ga., 23,000 spindles ; and the Indianapolis Manufacturing Com- pany, of Indiana, with 4,000 spindles. The year 1865 saw the start of the Whitestone Company, at East Killingly, Conn., with 8,000 spindles ; the Danielsonville Company, at West Killingly, 16,000 spin- dles ; the Putnam Mills, at Putnam, Conn., 18,600 spindles ; the Mer- rick Thread Company, at Holyoke, Mass., 12,000 spindles ; the Harris Manufacturing Company, Coventry, B. I., 14,000 spindles ; the Orion Manufacturing Company, East Greenwich, B. I., 15,000 spindles ; the Bockville Manufacturing Company, Bockville, B. I., 8,000 spindles ; the United States Flax Manufacturing Company (on cotton goods, however), at Pawtucket, 30,000 spindles ; the Fletcher Manufacturing Company, at Providence, 17,000 spindles ; and the Warren Manufac- turing Company, at Warren, Md., 6,000 spindles. In 1866 the Wil- liston Mills, at East Hampton, Mass., went into operation, with 30,000 spindles ; the Williamstown Manufacturing Company, at Williams- town, Mass., 14,600 spindles ; and the Empire Manufacturing Com- pany, Paterson, K J., 3,000 spindles. In 1867 the A. & W. Sprague Manufacturing Company built a large mill at Augusta, Me., making, with the old mill on the spot, which they purchased, a total of 40,000 spindles ; and the dam across the Kennebec Biver at that point was rebuilt, affording a magnificent water-power, which has not as yet been further developed. The Benfrew Manufacturing Company, at South Adams, Mass., with 27,000 spindles, was commenced the same year, and the Smithfield Manufacturing Company, 11,000 spindles, at Hyde Park, Mass. In Vermont the Vermont Mills at Benningtoh, 7,000 spindles, and the Burlington Cotton Company, at Winooski Falls, were started. Another large Southern enterprise also dates from this year the Eagle and Pho3nix Manufacturing Company, at Columbus, Ga., with 22,000 spindles ; and in 1868 the Frankfort Cot- ton Mills, at Frankfort, Ky., were commenced. The year 1869 records the beginning of the Lowell Hosiery Company, 10,400 spindles, at Lowell, Mass.; the China Mills, 50,000 spindles, at Suncook, N. H.; 66 the Mt. Vernon Manufacturing Company, at Alexandria, Va., 4,000 spindles ; and the Marshall Manufacturing Company, with 6,000 spin- dles, at Manchester, V-a. In 1870 the Slater Cotton Company, at Pawtucket, R. I., 20,000 spindles; the Whitin Manufacturing Com- pany, Northbridge, Mass., 16,000 spindles ; the Morse Mills, Putnam, Conn., 10,000 spindles ; and the gigantic Ponemah Mill, of 72,000 spindles, at Taftville, in Norwich, Conn., were commenced. This closes the list of the more important manufacturing establish- ments commenced during the decade, during which the increase of spindles, as shown by the census of 1870, was very great, and was to continue for three years longer, although, owing to the substitution of lighter fabrics, on account of the scarcity and high price of cotton, the number of pounds worked was slightly less than in 1860, being 447,216,000 pounds, while the spindles had increased to 7,114,000. There is no American invention of any remarkable importance till the close of this period ; but a very great advance had been made by the adoption of the "slasher" dresser, which was introduced from England at the Androscoggin Mills, Lewiston, by Mr. A. D. Lock- wood, in 1867. The distinctive feature in this machine consisted in the use of hot size, through which the warp was passed, and then dried at once over large cans or cylinders, made of copper or galvan- ized iron, instead of being passed through cold starch, usually fer- mented, and dried by the air as it passed to be wound on the beam for the loom. Previous trials of machines on this principle had been made in this country, one known as the "tape-dressing" machine having been imported by Mr William A. Burke, then superintendent of the Lowell Machine Shop, in 1851 ; but whether from imperfection in the yarn, or prejudice on the part of the operatives, none of the experi- ments were successful until the arrival of the machine imported by Mr. Lockwood. One of these machines, as built by Messrs. Howard & Bullough, of Accrington, Lancashire, proved capable of doing the work of ten of the old style of dressers, or from 300 to 500 pieces per day ; while the expense per yard was only about one fifth of that of the old manner, and the warp was more thoroughly sized, so that the new " slashers," as they were called, were soon introduced in every direction. There had been many minor improvements in warpers, spoolers, and looms, but spinning had remained without any essential change since the introduction of the ring spindle, in 1836, by Wm. Mason, and of the self-acting mule in 1840, by the importation of the Sharp & Roberts mule, and the invention by Mr. Wm. Mason, of an essen- tially different machine in construction, but capable of accomplishing the same purpose, about the same time. The ring spindle had taken 67 the place of the flier throstle, in nearly all the new mills, and with a saving of 20 per cent, of the power, but had not been materially changed from its first form, unless to make it heavier so as to run steadier, until 1870, when a great alteration was made in it by Oliver Pearl, of Lawrence, Mass., producing very important results and ma- terially reducing the cost of production. This may perhaps be best understood by Mr. Pearl's own description, in his patent issued May 3, 1870, viz. : " My invention relates, first, to certain improvements in the construc- tion of bobbins having frictional or adhesive bearings uniting them to the spindle and carried by it, the object of this part of my invention being to make a very light bobbin, and strengthen its various parts so that it will not be easily crushed or broken ; second, to an improved construction, and combination of both the bobbin and the ring-spindle, so that they can be successfully used with greater advantages of length of traverse, speed, and steadiness of rotation than heretofore attained, and at the same time be much lighter, the object of this part of my invention being to greatly diminish the amount of power re- quired to drive the spindle at any given speed, and increase its effi- cient operation at the same time." After describing the ordinary spindle and bobbin, he says of his own : " This bobbin is made with a thin and light shell or barrel of wood, and has a lower adhesive or frictional bearing, &, and a middle one, i, and is also bushed at the upper end by a plug, re-inforce, or bushing, I; and the bearings, k and , and the bushing, , are united to and combined with the shell of the bobbin, and strengthen it in all directions from being broken. The adhesive or frictional bearings, k and i, are made to sustain the bobbin on the spindle in one position with relation to the latter, and so as to enable the spindle to carry the bobbin with it in its rotation. " My improved spindle, instead of extending substantially to the upper end of the bobbin, as heretofore, is only made long enough above the upper bolster to enable the adhesive bearing i at the center of the bobbin to hold the latter firmly upon it. I am thus enabled to remove a large portion of the blade of the spindle above the bolster ; and the tube of the bobbin projecting beyond the shortened blade of the spindle, resting, by its adhesive central bearing, upon the latter, and being both light and rigid, retains its length and the position which it had before the spindle blade was shortened, while the traverse of the frame and the length of the bobbin remain as before. " By thus dispensing with the length and weight at the top of the spindle above the bolster, while the length of bobbin and the traverse of the frame remain as before relatively, I am enabled to lighten the 68 lower part of the spindle and wheel below the bolster many times the weight taken from its blade above, without destroying the proper balance of the spindle and its consequent steadiness of motion ; arid by these means I accomplish the ultimate effect, which is the purpose of this improvement, of enabling the spindle to be run steadily at high speed with much less power than heretofore, thus diminishing the expense and increasing the production at the same time." I have been thus particular in giving Mr. Pearl's own description of his invention, as he was soon followed by others, who aimed at accomplishing the same result by different methods, but the claims of some of whom, infringing more or less on those of Mr. Pearl, are now the subject of legal adjudication. The effect of the improvement was decided and positive, the new spindle ran at the same speed with the old one, with a saving of one third of the power required to carry it, and was also capable of being run at a higher speed than had been possible before this invention. The old spindle was limited to a speed of about 6,000 revolutions per minute, and was seldom used at even that speed, probably averaging about 5,500 revolutions in ordinary practice, while the new one was capable of being driven to 6,500 or even to 7,000^ revolutions without extra vibration or loss of power. Part of this saving was due to the diminution in weight of the spindle, which had been reduced from 12 ozs. to about 5 ozs., but more to its smaller diameter, giving a shorter length of frictional sur- face in the bearings, opposed to the lateral tension of the driving band ; but a great deal of it was due to the improvement in the bob- bin, which was reduced from 1 oz. or 1J oz. in weight to about J oz.; thus, with the shortening of the top of the spindle, materially reducing the vibratory weight, carried above the upper bearing or "bolster." The new bobbin was more expensive than the old one, but, from the peculiarities of its construction, was necessarily more accurately and carefully made, and more mathematically " true," and less liable to warp, and spring from its form of a true cylinder. As, according to the mathematical law, the vibration of a spindle is as the cube of its length above the point of support, divided by the cube of its diameter, this disturbing element, which caused much of the friction, and thereby absorbed a large proportion of the power, was materially reduced by the new invention. Mr. Pearl commenced his experiments on this spindle and bobbin in 1868, but did not take out his patent until 1870. He was soon followed by Jacob H. Sawyer, of Lowell, who, on the llth of April, 1871, received letters patent for an improved spindle, 69 which was a further step in carrying out the same mechanical law, by placing his upper bearing or " bolster " at the top of a tube, supported from the "bolster-rail," and chambering out the lower half of the bobbin, so that it would drop freely over this tube ; thus placing the point of support very nearly in the center of the bobbin vertically, and still further diminishing the length, and consequent vibration, above the point of support. In both cases, the " blade " of the spindle or that part above the bolster was slightly tapered, and in Mr. Pearl's case the bobbin was driven by the adhesion to it of two bushings, one at the bottom, and one half way up the bobbin, while in Mr. Sawyer's spindle the bush- ings were respectively at the center and the top, or entirely in the upper half of the bobbin, which in Mr. Pearl's invention projected above the top of the spindle. A difficulty was soon found with the Sawyer spindle, from the in- ability to oil the bolster bearing while in operation, which was obviated by Mr. George Draper who purchased the patent, or a part of it by the application of a bolster tube having a spiral groove cut internally, so as to carry up the oil steadily and constantly from a sup- ply at the bottom, to the bearing at the top, while the spindle was in revolution. This spiral bolster was patented January 14, 1873, and proved successful. The natural result of Mr. Sawyer's invention was to make a still further increase in the capability of speed attainable by the spindle, and reduction of the power required, over that reached by Mr. Pearl, although the spindle, including its bearings, was necessarily more ex- pensive in construction; but both forms are being very extensively in- troduced, as might be expected, when we consider that one half, or nearly so, of the whole power of a cotton mill was required for the spinning, and that of this power one third was saved over the old style of Ring spindle, and one half over the Flier spindle by their adoption, the saving being rather greater with the Sawyer spindle than with the Pearl spindle, for the reason that its diameter is usually less. Another form of light spindle, invented by Richard Garsed, of Phila- delphia, was introduced by the Bridesburg Manufacturing Company, in 1872. It consisted like the others of a short spindle, but the bob- bin had no adhesive bearings, being driven by a clutch at the bottom, which engaged on a square shoulder cut on the spindle just above the bolster ; and, the spindle being straight, the bobbin was so bored as just to drop freely on it to its bearings. Another feature about this spindle was the use of a "loose bolster," patented by Barton H. Jenks, of Philadelphia, which was 70 held by a screw from turning around in the " rail," but had just enough play to allow it to align itself to the spindle. This not only prevented the spindle from being cramped between the upper and lower bearings, but avoided the friction caused by the revolution of a body liable to vibration, in a rigid bearing, to some ex- tent. This form of spindle, although not possessing the advantages of the Sawyer plan, where a very large and heavy bobbin of yarn was to be carried, has proved itself very useful with light bobbins, especially for weft or filling, as there can be no loss of twist in the yarn, from the bobbins working loose upon the spindle, and as the size of the weft bobbin is limited by the capacity of the shuttle. The saving of power within the range of its capacity is about the same as with the Sawyer spindle. Still another pattern, the " Rabbeth " spindle, is a modification of a spindle patented in 1867 by Messrs. Rabbeth & Atwood, of Birming- ham, Conn. The original spindle was intended for use in the manufacture of silk, and had a sleeve or shield, extending downward below the flange on which the bobbin was set, and by means of pins in which it was driven, for the purpose of protecting the silk from any oil which might be thrown out from the bolster by the revolution of the spindle. The spindle itself was dropped into a tube filled with oil, at the bot- tom of which was the step, or lower bearing. The spindle thus re- volved in oil, which was prevented from getting on the silk by the sleeve or shield above mentioned. As this tube prevented the applica- tion of the whorl to the spindle in the usual manner, it was attached to the bottom of the sleeve. This form of spindle was modified by Mr. Rabbeth in 1872, by the use of a bolster similar to Mr. Sawyer's, and the reduction of the sleeve in diameter, so as to permit the chambered bobbin to drop down upon and be driven by it. This brings the bobbin, spindle, and bolster in relatively the same mechanical position as in the Sawyer patent, but differs in having the lower part of the spindle constantly immersed in and revolving in oil, thus needing less frequent attention. This spindle has also been in- troduced to a considerable extent, with nearly the same results in economy of power as the others. Several other light spindles have been experimented with, but have proved to be an infringement on one or the other of the above forms, the rights of which as among themselves have not yet been entirely adjudicated, but of which in all almost 2,000,000 have been put in operation, the Sawyer spindle so far showing the greatest number. 71 The saving of power resulting from their use has proved of great value to mills, where steam was employed for that purpose, as well as to those driven by water, on the many privileges where the supply was short during the summer months. The subject of opening and picking cotton also received much at- tention about this time. Various machines had been employed for this purpose, the most of them of English origin, prominent among which was the one known as the Creighton Willow, which opened the cotton very successfully but delivered it in loose masses, on the floor, and was very liable to accident from fire. Messrs. Lord, of Todmorden, England, and others, and Kitson, of Lowell, Mass., turned their attention to machines which should not only open the cotton from the bale, but form it at one operation into a preparatory lap, for the second machine. These machines came into general use, on account of the thorough way in which they did the work, and their immunity from fire, but were objectionable from the great amount of power required to operate them, and were also supposed by some to injure the staple of the cotton. This form was originally introduced in England during our Civil War, when the English spinners had to depend largely on short- stapled and dirty East Indian cotton, and answered their purpose admirably, but did not seem to be so well suited to the longer stapled American varieties. I have referred to their operation in the supple- mentary chapter, in the notice of Kitson's improvements. On the 20th of December, 1870, an improved opener was patented by Messrs. Palmer & Jillson of Willimantic, Conn., in which the rigid beater blade was replaced by a series of hinged fingers, hung on rods parallel with the axis of the beater, and which, while striking the cotton with a blow like a flail, as it was delivered by the feed rolls, would yield partially to the resistance of an unusually heavy clot or mass due to dampness in the cotton, and great pressure in the packing. There were, how- ever, objections to the operation of this machine, as the points of the fingers which struck the cotton tended to draw it out into " strings," so called, and this difficulty was obviated by the improvement of Messrs. Whitehead & Atherton, of Lowell. Patented in 1871, 1872, 1873, 1874 and 1875. This improvement consisted in uniting the ends of every pair of fingers by a cross-bar, thus forming a continuous line of short beaters, each about five inches long, and hinged on the above-mentioned rods. This " Whipper " as it was called avoided the objection to the Jillson & Palmer " finger," cleaned the cotton from seeds as thoroughly as the rigid beater, or even more so, required much less power in opera- tion, and caused less injury to the staple. This machine of Messrs. Whitehead & Atherton has been very widely and successfully intro- duced, and has led to the improvements already mentioned by Mr. Kitson, in which the lumps or masses of cotton are torn apart or loosened before reaching the beater, whose office it is to remove the seed. Both the improved opener of Mr. Kitson and the Whipper opener of Whitehead & Atherton are now being introduced in Eng- land, and giving entire satisfaction, the Whitehead & Atherton ma- chine having proved itself especially adapted to long-stapled cotton, or to cotton which has been previously dyed. Another variation introduced by Kitson was the substitution of a series of toothed feed rolls, increasing in speed, like those in a drawing frame, by which the cotton was torn apart, and then blown through a dust-trunk, before reaching the regular "feed-rolls of the beater. In either way, the improvement in the manner of opening cotton from the bale has been very great. The city of Fall River made its great increase in manufacturing at this period, and a number of new and large mills were erected, almost entirely devoted to the manufacture of print-cloths, the demand for which was very great, and the price of which had risen to 8 cts. per yard, or 50 cts. per lb., giving a very large profit. These mills were, to some extent, filled with English machinery, the roving frames, mules and dressers being generally imported, but the cards and looms were of American manufacture. A reference to the table of statistics of Fall River will show the date at which these new mills were built, and the rapidity of their increase, which, with that of other places, resulted in 1873 in overstocking the home market with cotton goods. Another result also followed from the large increase in mule spindles. These machines were usually accompanied by foreign operatives, who brought with them all their foreign prejudices, as well as their skill at their trade, and soon attempted, by trades-union management, to fix the price of labor and dictate to the mill owners, by means of a " strike " ; in which, as usual, the operatives came out the losers, after stopping the mills for many weeks. The labor of these weeks was not only lost, but the attention of manufacturers has been turned to the production of weft as well as warp yarns, by the improved light ring spindle instead of the mule. This is now the subject of ex- periment by various inventors, and has nearly passed the stage where it can be called experimental. It has been satisfactorily proved that a soft weft yarn can be spun on either the Sawyer, Pearl, Garsed, or Rabbeth spindles, at as low a cost as on the mule, by a more docile and manageable class of operatives, and with the advantage of pro- ducing an equal amount of yarn, with one half the quantity of room IB in the mill. Many large establishments are trying one or more of these different spindles, and it seems very probable that their substitu- tion for the mule will be gradually effected, when the best form of spindle is decided upon. Besides the great increase at Fall River, the following manufac- turing establishments of note commenced operations during this period, 1871, in Massachusetts. The Potomska Mill at New Bedford, 44,000 spindles ; the Freeman Manufacturing Company, 17,000 spindles, at North Adams, in 1874 ; and the Johnson Company at the same place with 6,000 spindles. In Connecticut, in 1872, the Powhat- tan Manufacturing Company, 17,000 spindles, and the Mawhansett Company, 12,400 spindles, at Putnam ; and the Fitchville Manufactur- ing Company, 13,000, at Bozrah ; in Rhode Island, the Green Manu- facturing Company, 23,000 spindles, at Phoenix ; in 1872, the Man- ville Mill, of 70,000 spindles, at Manville ; the Moss's Manufacturing Company at Westerly, 10,000 spindles ; and the Ballou Mill of 50,000 spindles at Woonsocket, in 1873. In New York, the Lake George Manufacturing Company, 10,000 spindles at Ticonderoga, in 1872. In Maine, the Barker Mill, at Auburn, 18,000 spindles in 1872, fol- lowed by the Lockwood Mill of 32,000 spindles, at Waterville, in 1875. In Vermont, the North Pownal Manufacturing Company, 16,000 spindles in 1873. In New Jersey, the Millville Manufacturing Com- pany, 30,000 spindles in 1873, and Messrs. R. & H. Adams & Com- pany, 24,000 spindles at Paterson in 1872. Michigan, the Jonesville Manufacturing Company, 5,000 spindles in 1872. Illinois, the Chicago Manufacturing Company, 5,000 spindles in 1871, and the Rock Island Manufacturing Company, 5,000 spindles in 1872. Tennessee, the Brownsville Manufacturing Company, 3,600 spindles in 1874, and the Tennessee Manufacturing Company at Nashville, 14,000 spindles in 1875. Wisconsin, the Janesville Manufacturing Company of 10,000 spin- dles in 1874. North Carolina, the Oakdale Manufacturing Company, 4,000 spin- dles at Greensboro in 1873, and the Rockfish Manufacturing Company at Fayetteville the same year, 4,500 spindles. South Carolina shows the Graniteville Manufacturing Company of 23,000 spindles, commenced at an earlier date, the'Langley Manufac- turing Company at Langley, 10,000 spindles, and the Camperdown Manufacturing Company at Greenville, in 1875, 14,000 spindles. In Georgia, the Arkwright Manufacturing Company of Savannah, 74 4,000 spindles in 1873, and some additions of spindles to other pre- viously built mills. Alabama the Tallassee Mauufacturing Company of 18,000 spin- dles. At the present moment efforts are being made for a further exten- sion of manufactures at the South, but the want of capital renders it very difficult to make much progress. A large mill has been projected, and commenced at Atlanta, and the Eagle and Phoenix Company of Columbus, Ga., are building a new mill, and other projects are under discussion, but at the North the gen- eral feeling is that there are spindles enough to supply the present de- mand for home consumption, and that further increase must depend on the natural growth of the country, and the further development of our export trade, which was severely crippled during the Civil War, and to the revival of which the serious attention of our manufacturers and merchants is now being turned. CHAPTER XII. THE number of spindles in the United States in 1874 had reached to 9,415,383, distributed as follows : TOTAL NUMBER OF COTTON SPINDLES IN THE UNITED STATES, JULY 1, 1874. Maine 609,898 New Hampshire I... 855,189 Vermont 58,948 Massachusetts... 3,769,692 Connecticut 908,202 Rhode Island 1,336,843 New York 580,917 New Jersey 150,000 Pennsylvania 452,064 Delaware 47,976 Maryland 110,000 Ohio 20,000 Indiana 22,988 Minnesota. . . . . 3,400 8,927,754 Alabama. 57,594 Arkansas 1,256 Georgia 137,380 Kentucky 10,500 Louisiana 15,000 Mississippi 15,150 Missouri 18,656 North Carolina 55,498 South Carolina 62,872 Tennessee 47,658 Texas 10,225 Virginia... 56,490 487,629 Total number of spindles 9,415,383 Number of mills 847 Number of looms 186,975 Number of spindles, 1874 9,415,383 Number of spindles, 1870 7,114,000 Increase in four years 2,301,383 and the cotton consumed to 1,220,000 bales, or 567,583,873 Ibs., which was divided among the following products, viz. : Threads, yarns and 76 twines, 149,000,000 Ibs.; sheetings and shirtings, 707,000,000 yards; drills, jeans, flannels, etc., 306,000,000 yards ; print cloths, 588,000,000 yards ; ginghams, 33,000,000 yards ; duck, 30,000,000 yards ; bags, 6,000,000. As print-cloths, as before stated, .had been for a few years an arti- cle of great demand, it must be inferred that there had been a corre- sponding increase in printing machinery, although a portion of the cloths were finished as bleached and dyed cambrics, and a large amount consumed for various purposes, such as lining trunks, cheese- boxes, etc., etc., and the following table, taken from the New York " Journal of Commerce," is believed to be correct : PRINT WORKS AND NUMBER OF PRINTING MACHINES IN THE UNITED STATES, JANUARY 1, 1876. Woonsocket Co., Providence, R 1 12 American, Fall River, Mass 16 Bay State, Fall River, Mass 6 Albion, Coneschocken, Pa 6 Ancona, Gloucester, N. J . . 10 A. & W. Sprague, Cranston, R. 1 30 Cocheco, Dover, N. H 13 Clyde, River Point, R. I. 7 Dunnell, Pawtucket, R.I 11 Dundee (Reed & Barry), Passaic, N. J 7 Freeman, North Adams, Mass 7 Garner & Co., Haverstraw, N. J 20 Garner & Co., Wappinger's Falls, N. Y 20 Gloucester, Gloucester, N. J 12 Greenwich, East Greenwich, R. I 7 Hamilton, Lowell, Mass 8 Hunter 8 Hartel, Holmesdale, Pa 6 Hamilton Woolen Co. (Knickerbocker), Southbridge 6 Harvey, Arnold & Co., North Adams, Mass 8 Wm. H. Locke, Passaic, N. J 7 Lodi, Lodi, N. J 3 Manchester, Manchester, N. H 14 Mystic, Medford, Mass 2 Merrimack, Lowell, Mass 18 Oriental, Apponaug, R. I * 9 Pacific, Lawrence, Mass 22 Richmond, Providence, R. 1 7 Simpson, Philadelphia, Pa 13 Scott (Franklin), Paterson, N. J 7 Saunders, Southbridge, Mass 4 Smith, Philadelphia, Pa 1 William, Bustleton, Pa 4 Total.. . 331 Allowing each machine to produce 200 pieces per day, a fair aver- age, for 40 weeks in the year, this would give a total of 14,400,000 pieces printed annually, of which almost the whole has been used at home, our exports of prints being very small. Within the last two years a portion of the Fall River production of cloths has been sent to England, where they have probably been printed, and distributed to other markets, with which we have not established an export trade, or with which our commerce was inter- rupted during the war. The American calicoes at the Exhibition were very highly com- mended by the Foreign Judges, and were considered to be fully equal in design, color and execution to those exhibited by any other country, although there was no representation of the higher grades of more ex- pensive goods from France. The manufacture of ginghams, cottonades, and other cotton fabrics dyed in the yarn, has also been very widely extended, and the goods of the York, Amoskeag, Lancaster, Bates, Everett, Pemberton, Whittenton, Renfrew, and Glasgow Companies, in New England, are well known and appreciated, as are also those of a number of smaller establishments in the Philadelphia district. Fine lawns and muslins have been made to soine extent, although, as has been stated previously, the great bulk of cotton manufactures have been of yarns between No. 14 and No. 40. The manufacture of cotton duck for sails and tents is an American invention, and received great extension during the Civil War, and is widely scattered over the Eastern and Middle States. Spool cotton is also made in great quantities, the more notable brands being those of the Willimantic Company, at Willimantic, Conn. ; the Hadley Company and Merrick Company at Holyoke, Mass.; the Coats Thread Company at Pawtucket, R. L, Green & Daniels of the same place ; the Clark Thread Company of Newark, N. J., and Samuel Semple & Sons, of Mount Holly, Burlington County,. N. J. ; the Coats and Clark companies being originally offshoots from the parent establishments in Scotland. Cotton bags, woven without seam in the loom, are also of Ameri- can introduction, and are made from the waste left in the manufacture of finer fabrics, mixed with stained or lower grades of cotton. Small wares, such as tapes, braids, lamp-wicking, suspender web- bing, etc., etc., are extensively made, principally in Massachusetts, Rhode Island, and in and about Philadelphia. The accompanying table shows the statistics in a condensed form of several of the larger towns and cities, which owe their prosperity, and in most cases their origin and existence, to the cotton manufacture, having been first established in situations where a natural waterfall rendered a great amount of power available ; and in addition to these, the whole area of the New England States is studded with cotton mills, some of them of great size and importance, wherever suitable water power was to be found, in many cases compensating for the droughts of summer by the addition of steam. STATISTICS OF LOWELL, 1876. Merrimack Mfg Co 1823 1825 1828 1830 1831 1835 1839 cs or I 1846 1852 1860 1858 1860 1853 p MANC 1831 1838 1873 1857 )F LEW 1846 1850 1850 1866 1853 1860 1870 158,464 56,080 42,488 93,528 92,000 112,752 101,720 AWRENCE, 86,880 5135,000 worsted 25,000 28,000 20,000 33,280 7,500 HESTER, N. 135,000 45,000 75,000 33,056 tsiON, MAII 21,740 56,196 51,000 70,000 25,000 58,450 18,576 2,700 1,225 600 1,400 1,750 1,875 1,475 MASS. 1,000 6,000 675 300 775 225 H., IS'i 4,000 1,200 2,940 500 ns, 187( 407 1,250 1,000 1,200 850 1,100 250 6,344,000 3,900,000 4,992,000 7,280,000 9,100,000 6,760,000 9,256,000 8,800,000 6,000,000 1,710,000 675,000 2,250,000 1,500,000 6. 13,000,000 6,760,000 4,160,000 1,560,000 >. 1,040,000 2,023,114 2,500,000 6,000,000 {2,800,000 jute, 1,011,000 4,350,000 855,000 37,700,000 14,040,000 12,480,000 19,760,000 22,100,000* 23,920,000 27,768,000 24,500,000 42,000,000 3,000,000 j warps, ( 5,200,000 7,000,000 1,700,000 36,400,000 12,376,000 28,600,000 4,940,000 3,000,000 8,151,000 8,000,000 15,000,000 Hamilton " Appleton " Tremont & Suffolk Mfg. Co,. Lawrence " Boott Cotton Mills Massachusetts Cotton Mills STATISTI Atlantic Cotton Mills. Pacific Mills (also worsted) Pemberton Mills (also woolens) Washington " " " Everett " STATISTICS o Amoskeag Mfg. Co Stark Mills Manchester Mills (also worsted), re- organized Langdon Mfg. Co STATISTICS < Lincoln Mill . . ... Bates Mfg. Co Hill " Continental Mills Lewiston " (also jute) Androscoggin Mills 57,000,000 bags, 2,000,000 2,000,000 Barker Mill (Auburn).. * Lawrence Company also, 780,000 dozen hosiery and 46,800 shirts and drawers. 79 STATISTICS OP FALL RIVER, 1876. NAME OF ESTABLISHMENT. Date of Incorpo- ration. iNo. of Spindles. No. of Opera- tives. Lbs. Cotton consumed annually. Yards Cloth produced an- nually. American Linen Co . 1852 82 512 1 000 3 825 000 21 000 000 Annawam Manufactory 1815 10 116 140 450 000 2 150 000 Barnard Mfg Co 1874 28 400 340 1 575 000 9 000 000 Border City Mills 1872 72 144 900 3712 500 20 500 000 Chase " 1871 43480 425 2 025 000 12 000 000 Crescent " 1871 33,280 340 1,462,500 5,750,000 Davoe u . . 1867 30496 375 1 575 000 5 000 000 Durfee " ... .... 1866 87424 950 4 275 000 23 000 000 Fall River Manufactory 1813 25,902 330 1 350,000 7 000 000 " " Print Works. . 1848 13 600 175 607 500 3 500 000 Flint Mills 1872 45 360 450 2 137 500 12 500 000 Granite Mills 1863 76 920 900 4 050 000 21 500,000 King Philip Mills 1871 37440 425 1,350,000 5,500,000 Mechanics' "... 1868 53 712 550 2 587 500 14 000 000 1867 85 570 800 4,162 500 22 500,000 1847 23 840 325 1,125,000 6,500,000 Montauk " ... 1871 7 200 125 1 1 25 000 2 000 000 Mount Hope " 1867 9*024 135 303,750 1 225 000 Narra^ansett u .... 1871 27920 326 1,462,500 8,250,000 Osborn " 1871 37,232 425 1,912,500 11,000,000 Pocasset Mfg Co 1822 36 744 5&0 1 417 500 7 500 000 Richard Borden Mfg. Co. 1871 42 528 450 2,025,000 12 000,000 Robeson Mills 1867 21,632 275 " 1,125,000 6,500,000 Sagamore ' . . 1872 37672 425 1 800 000 10 500 000 Shove ' 1872 37 504 425 1,912,500 11,500,000 Slade ' 1871 37,040 350 1,800,000 10,000,000 Stafford ' 1871 34 928 350 1 800 000 10 000 000 Tecumseh ' 1866 42 156 400 2 025,000 12,000,000 Troy Cotton & Wool Manufactory. . Union Mill Co . 1814 1859 38,928 44 784 400 475 1,800,000 2 250 000 10,250,000 12 000 000 Wampanoag Mills 1871 27 920 325 1 462,500 8,250,000 1871 34080 350 1,800,000 10,000,000 Fall River Merino Co ... 1875 1 560 60 337 500 9 000,000 Total 1,269,048 14,270 62,628,750 343,375,000 The question of the comparative economy of steam and water- power has often been discussed, and results drawn which have proved erroneous, for want of correct data in the premises. As before stated, many cotton mills were started in the seaboard towns of New England, in the belief that steam was as cheap a motor as water, and nearly if not all of those east of Fall River have proved unsuccessful as investments. The writer had occasion to make a careful examination of the cost of power at some of these mills a few years since, and arrived at the following results : 14 80 Mill No. 1, NewburypH. Mill No. 2, Eockport. Mill No. 8, Newburyp't. Mill No. 4, Fall Eiver. Number of spindles 17,040 17,904 26,976 34,848 Horse-power required 275.75 291 327 5 450 Tons of coal per annum 1,612 1,873.5 2,213 2,632 Cost of " " . . f $10 823 24 $12486 78 $14 560 00 $18 766 Engineer, fireman, oil, etc., includ- | ing delivery of coal 4 2,074.28 3,556.92 2,701.29 2,500 Total cost. . ^ $12,987.52 $16,053.70 $17,261.29 $21,266 Cost per horse-power per annum 47 10 55 12 52 70 45 27 Including the Fall River Mill, which agrees with two other mills there very closely, the average cost of the 4 mills for fuel, oil, and labor per annum per horse power is $50.04, or for the mills east of Boston, where coal was higher, $51.64 to which must be added about $20 per horse power for interest and depreciation on plant, or 20 per cent, of a fair average cost of $100 per horse power for engine, boilers, and setting, engine house and chimney ; of which the engine would cost ^ at 10 per cent, depreciation ; boilers, J at 20 per cent. ; and buildings and chimney J at 6 per cent., making an average of about 12 per cent., which, with interest, etc., would bring the whole allowance up to about 20 per cent. This would give a total cost for steam power of $70 per horse power per annum, which may be assumed as the average cost in quantities of from 2 to 500 horse power near the sea coast of New England. This would, of course, be increased or lessened in different localities by the cost of coal. Mr. George H. Corliss, of Provi- dence, R. I., the eminent steam-engine builder, estimates the cost with his improved engines, including 20 per cent, as above, to be 16.22 cents per day per horse power, which, for 300 working days, would give $48.66 per annum. The above figures were, however, taken from the actual running accounts of mills, in ordinary years. Now at Lowell and Lawrence, the annual water rent per horse power paid to the Water Power Com- panies is $5.00 per annum ; and if the cost of wheels, pits, and flumes be estimated at $100 per horse power, there is to be added $7.00 per annum for interest, and $5.00 per annum for depreciation, making in all, for power, $17.00 per annum. To this should be added the further sum of $3.00 per annum, for heating and dressing, giving a total ex- penditure of $20.00 per annum per horse power of water, as against $70.00 for steam. At the Androscoggin Mills, Lewiston, Me., the cost of water power and heating is made up as being $14.10 per horse power per 81 annum ; that of steam, as being $67.92 ; interest and repairs not being included in either case. In this account the coal was taken at $8.50 per ton. There are many mills in the New England States, where the whole cost of water power, including dam, wheels and canals, has not been over $100 per horse power ; and allowing $12.00 per annum for interest and depreciation, and $3.00 more for heating and dressing, the cost in these cases would be only $15.00 per horse power yearly. Against this positive difference in the cost of power, we must set off the less cost of freight in such localities as Fall River, which, how- ever, owes much of its success to the general system of management pursued there, and to various causes which are not within the scope of this article, and the discussion of which would occupy much time and space, and involve opposing arguments. Steam .power in smaller quantities, say less than 100 horse power, would cost more than the above rates, while water power would usually decrease in cost, from the need of less expensive dams and wheels. The average cost of steam engines may be taken as being : For 800 to 1,000 horse power $20 per horse power For 500 to 600 " 30 " " " For 200 to 300 " 40 " " " For 50 to 100 " 50 " " " Boilers and setting, 30 to 40 " " Engine and boiler house, chimney, etc 30 " " \ "The Engineer" gives the cost in England for 100 horse-power engine, with boilers and "plant" complete, as being $75 per horse power, and the cost of fuel, etc., per annum, at $50 per horse power. The cost of a first-class turbine wheel is given by the same authority as $3,500 for 100 horse-power, or $35 per horse-power. The turbine has almost entirely taken the place of the cumbrous over-shot or breast wheels, and may be procured at very reasonable prices. While the Fourneyron wheel, as improved by Mr. Boyden, has been generally used in the large manufacturing establishments of New England, the attention of engineers and inventors has been turned to the production of a less expensive wheel, of equal efficiency, and there are now a number in the market giving excellent results, which are cast in one piece, instead of being " built up " with bronze or other sheet metal buckets riveted into cast-iron plates or flanges. Several of these were tested at the Centennial Exhibition, and 82 The Risdon wheel, which gave over 87 per cent. The National wheel " " " 83 " The Geyelin wheel " u " 83 " The Tait or Centennial wheel which gave over 82 " The Tyler wheel which gave over 81 " and the Hunt wheel which gave over 80 " are all well made and reliable wheels. Besides these there were several others giving over 75 per cent., which may be considered as the maximum effect of the old style of wheels. Of these wheels, the Geyelin was of the Jonval pattern, with a direct downward discharge of the water ; the others were all inward and downward, as is also the case with the Swain wheel, which was not on exhibition, but which is very largely used in New England, and the form of bucket of which is the progenitor of those of several of the above-named wheels. Mr. James B. Francis, of Lowell, has obtained with this wheel a result of over 83 per cent, of effect, but the wheel is like the Boyden, a "built " and expensive one, compared with those mentioned. This method of central discharge of the water is believed to be of American origin, the type of this class having been the "Howd wheel," patented by Samuel B. Howd, of Geneva, N. Y., July 26, 1838. . Water wheels can not be strictly considered as parts of " Cotton Machinery," but their common use and economy as motors in America seem to excuse the above digression. I have aimed to trace, as concisely as possible, the growth of the cotton manufacture in the United States up to the present time, and the dates of the more important American inventions which have con- tributed to its success, and have endeavored to omit nothing which could be condensed within the space I have allowed myself for this memoir ; and I cannot bring it to a close better than by the insertion of the following article from the New York " Herald," which I am per- mitted to use by the kindness of the author, Edward Atkinson, Esq., of Boston, which states clearly our present position, as a Nation, in regard to the production of the raw material ; and also the admirable analysis of the cost of manufacture in 1838 and 1876, prepared for me by Mr. William A. Burke, of Lowell, the treasurer of the Lowell Ma- chine Shop, and read by him before the New England Cotton Manu- facturers' Association, which is inserted in the Appendix : 83 EXTRACT FROM LETTER OF EDWARD ATKINSON TO THE " YORK HERALD." " The commanding position of the United States in respect to the production of cotton has long been admitted, but it seems probable that few even of the manufacturers themselves have been fully aware of the strong position in which the cotton manufactures of the United States now stand in relation to other countries. " A HISTORY OF COTTON. " The subject of the production of cotton opens so wide a field that it is hard to know where to begin or end. There is no other product that has had so potent and malign an influence in the past upon the history and institutions of the land, and perhaps no other on which ita future material welfare may more depend. Cotton belongs to this continent. When the Spaniards first entered Mexico the natives were found to be clothed in cotton, and the art of weaving and dyeing had been carried to a high state of perfection for that time among them. Then, as now, the best and most prolific varieties of the cotton plant existed there, and the plant is doubtless indigenous in Mexico. In the United States, a century ago, cotton was scarcely known as an im- portant production, and not until the invention of the saw gin, by Eli Whitney, in 1792, did it become so ; that invention renewed the life of slavery. To-day the United States furnish all the cotton used in their own limits and in Canada, and nearly three fourths the quantity consumed in their own limits and in Europe combined. There are no data by which the quantity produced and consumed elsewhere can be determined accurately, the production of Asia and Africa being un- known ; but the inhabitants of these two continents are clothed in cotton to a very large extent of their own production and manu- facture. " COTTON MANUFACTURE. "In respect to the cotton manufacture the world may be divided into two sections that which still adheres to the hand work, and which is by far the largest and most populous section, and that which uses complex machinery worked by water or steam power. It is common to name the divisions "civilized" and "uncivilized"; but, if there had been no previous reason for hesitating to apply these terms, the won- derful exhibition from China and Japan at Philadelphia might well teach us a lesson in modesty. "Among the machine-using nations it may, perhaps, be rightly claimed that the United States takes the lead ; not that we can assert superiority in all, or perhaps in any, special machines, but that our 84 people adopt machinery more quickly than others, and adapt it to a greater variety of purposes. The object of this paper is to mark the progress we have made in the cultivation of cotton and in the applica- tion of machinery to its manufacture, and also to forecast the work we may have yet to do. "COMPARATIVE IMPORTANCE TO FABRICS. " Among the three common fibers wool, flax and cotton which constitute the principal materials for the clothing of the human race, cotton is the most important, because it is ready for treatment by ma- chinery as soon as it is gathered ; because its conversion into cloth is least costly, and because its use for clothing is most conducive to health in respect to the largest portion of the population of the world. It is a non-conductor of heat and of electricity, while flax is the re- verse ; it is easy to spin because Nature begins to twist it in the boll, and each fiber is like a twisted ribbon, a little thicker at the edges than in the middle ; hence the fibers interlock and adhere to each other to their very points. The great inventions in cotton spinning have not been in the twisting, which is a comparatively simple matter whether compassed upon one spindle or many, but in the extension of the strand both before and after the twisting begins. " PROCESSES OI? PREPARATION. " The processes applied to the fiber in order to convert the bale of cotton into yarn for weaving are of three kinds first, to clean and straighten the fibers and lay them alongside each other in a thick and heavy strand ; second, to extend that strand with a constant doubling of two or more ends into one in order to get the strand even ; and third, to combine the further extension and doubling of the strands with the twisting. The extreme accuracy required in the working of the machinery will be best appreciated from the fact that the No. 14 yarn, of which the coarse standard sheeting is made, weighs sixty hundredths of a grain to one yard, while the yarn in a common lawn of which a woman's summer dress is made, No. 70, weighs twelve hundredths of a grain. It follows that all the complex machinery and the twelve to fifteen processes through which the cotton must pass from the bale to the spindle are worked within the limit of about half a grain in the result, the two numbers named representing substantially the whole cotton spinning of the United States. The number indicates the number of skeins or hanks of 840 yards each in one pound avoir- dupois, or 7,000 troy grains, the cotton spinners' tables being based on troy grains and avoirdupois ounces and pounds. " If we consider our production of cotton in the light of a service 85 rendered, we then find that it stands first in rank among the material services which we render to humanity. In the cotton factories of Europe and the United States there are a little over 68,000,000 spindles, worked by about 1,000,000 men, women and children. In the operation of these spindles a little more than 6,000,000 bales of cotton, of the average weight of American bales, are annually converted into 10,000,000,000 yards of cloth, averaging one yard wide and four yards to the pound, or 10 pounds to a piece of forty yards, or into the equiva- lent of such cloths in other fabrics. As nearly as the writer can ascer- tain, the fabric called by the trade a four-yard sheeting is about the average fabric made on the cotton spindles of the world. In this country the average would be heavier ; in Great Britain lighter. The fabric made by the Lawrence Manufacturing Company, known as LL, is a representative of this average. "This quantity of cloth would furnish 500,000,000 persons five pounds or twenty yards each annually. Of the 6,000,000 bales of cot- ton the United States now furnishes about 4,500,000 in each year, and our proportion is year by year increasing. The eight last crops, raised by the labor of freemen, exceed the eight last crops before our civil war, then raised mainly by the labor of slaves, in the number of more than 1,500,000 bales. If, then, it is a service to' men to provide for them the largest quantity of the material that best meets their need for clothing, in this one respect our rank is assured. " AMEKICAN CAPABILITIES. " Then let us mark the extent to which we have yet trenched upon our resources. In this production less than 2 per cent, of the area of the cotton States is now used. What we may yet accomplish may be better comprehended by considering the condition of a single State. We will select Texas as being the State now making the most rapid progress in population, production and wealth. Few persons can realize the facts in regard to this great State except by comparison. In area it exceeds the German Empire by about 60,000 square miles ; it has land and climate fitted for the growing of almost all the products of the temperate zone ; it is underlain to a large extent with coal. But, in respect to cotton, on less than one half of one per cent, of its area it last year produced one half of all the cotton consumed in the United States, and 4 per cent, of its area would be capable of producing all the cotton now consumed in Europe and the United States, or 6,000,000 bales. Whenever the fertile land of Texas, which constitutes nearly three fourths its area, is settled with the same density of population as Massachusetts, one person to each three acres, it will contain nearly 40,000,000 people. 86 " Under what conditions is this work of cotton production now ac- complished or yet to be done ? No longer by the forced labor of the slave upon the plantation, but by the labor of freemen and largely of freeholders on the farm. In most of the States where it is now grown, cotton constitutes the salable or money crop of the farmer, who, in other respects, is becoming entirely independent as to his subsistence. Raising food and meat to a greater extent than ever before, the Southern farmer still finds in cotton the means wherewith to furnish himself with money for other purchases. Cotton being therefore more and more the surplus crop or profit of the farmer as distinguished from the planter of old time, it becomes more difficult to determine its cost, its annual quantity until each year's crop has been actually delivered, or the price at which its production will be checked. In Texas, the State that has increased its crop about 80 per cent, over the largest ante- war crop, by far the largest portion is now raised by farmers owning their own lands. Her last crop was nearly 700,000 bales, and within one or two years at farthest it will be 1,000,000, mostly culti- vated by white labor. " COST OF PRODUCTION. " In answer to a very extended inquiry lately made, the writer has received estimates of the cost of the production of cotton ranging from six to fifteen cents per pound, the latter cost, however, having been given by one who on 600 acres of land made only four bales the pre- vious year. The general range of the estimates of cost were six to ten cents. But one answer to the question of cost was the most signifi- cant. One said : " I have a nephew twenty years of age who, with- out the least detriment to his schooling, and working Saturdays, pro- duced 4 bales of cotton." It may be asked what did this lad's cotton cost to produce ? The average estimate of cost is nine and six tenths cents per pound ; those who give the higher rates basing their esti- mates upon the purchase of provisions at present prices ; those who give the estimate of six to seven cents basing them upon provisions being raised on the same farm. The significant fact in all the estimates is that the lowest come from Texas, North Carolina and Georgia, which are essentially farming States, while the highest come from Mississippi and Louisiana, the States which were formerly par excellence the country of the large planters. " IMPROVEMENTS. " According to these returns, the centennial year is also marked by greater improvements than ever before in the selection of seed, in the improvement of tools, in the use of fertilizers, and in the average crop 87 per acre, positive evidence having been given of the production of 2,500 pounds of lint or clean cotton on a single measured acre in Georgia. It was not claimed that this had been or could be profitable, but it is significant of the experiments that are being tried in many places. The average estimates of profitable work range from 400 to 1,000 pounds of lint or clean cotton per acre, according to the quality of the soil and the kind of work done or the fertilizers used. The last ten years have also witnessed the conversion of the seed of the cotton plant into many useful articles but little known before. " In respect to the estimates of the cost of raising cotton it does not yet appear that any very accurate data exist under the new system ; skillful men, who, immediately after the war, feared utter ruin unless the price could be maintained at 20 cents per pound, now admit having made a fair profit at 10 cents. It may be doubted whether the cost can ever be defined. If the farmer can raise an ample supply of grain, vegetables, meat and fruit for subsistence, and can also produce more or less cotton for sale, the cotton represents profit or surplus rather than cost, and under such circumstances its production would not cease, although it might be checked, even if it should decline to 6 or 8 cents per pound. " OLD A1STD NEW METHODS. ' " The future increased production of cotton in the United States and the time within which our staple will take the place of all inferior grades is, therefore, only a question of numbers and intelligence. In respect to intelligence it is not to be questioned that the planter of old time had far more skill than many of the farmers of the present day, but the system of labor to which that skill was applied imposed bad conditions that could not be surmounted, and it enforced the use of tools and methods unfit for the purpose. These methods may have assured prosperity to the few at the cost of the many, but it was the high price and not the low price of cotton that limited the extension of the crop. Twenty years since every bale that could be made by the force then upon the cotton field was required for use, and under the steadily advancing price the capital needed for opening new fields .as steadily increased with the advancing price of slaves, until, in 1860, it cost 50 per cent, more to buy and stock a cotton plantation to raise the cotton for a given factory than it did to build the mill and fill it with machinery. All this has changed, and in the five years last past more than a million persons have migrated from other States or from abroad to the fertile lands of Texas, and the independent free- holder will only be prevented from making more and more cotton each year by the low price and not by the high price that it may bring. That no such check is very near may presently be made apparent. 88 " In one respect great improvement is needed, and but little has yet been made. The separation of the lint from the seed is the process that should be mostly fitly accomplished, but which is now most rudely done. The best saw gin of the usual construction, unless most care- fully attended, tears, breaks, doubles and otherwise injures the staple, and but a small proportion of the cotton now made is delivered to the spinner in the best condition. Two new cotton gins were exhibited at Philadelphia, which promise excellent results the roller gin made by Messrs. Platt Brothers & Co., of England, and the needle-point gin made by the Messrs. Remington, of Ilion, IsT. Y. If these machines can be made to produce quantity in ratio to the quality of the staple which they deliver, their wide introduction cannot be long delayed. "PACKING, ETC. " The methods of packing, covering and handling cotton in the United States is now unfit in the extreme, and as the competition be- comes greater with declining prices it is to be hoped and expected that better methods will be adopted. At present it is alleged that it is not profitable to attempt better methods, but the time can not be far distant when the bale of cotton will be as carefully prepared and pro- tected as the bale of cotton fabrics. Such care and attention was formerly impossible. It must be remembered that the slave system repelled and degraded free labor ; its malign effect was never more tersely expressed than by Henry A. Wise, of Virginia, who said, " The negroes skin the land and the white men skin the negroes." But all this has passed by, and the professor of a South Carolina college who was sent out of the State because he said, when the ordinance of seces- sion was presented to him, " That is not what South Carolina wants she needs manure," is now engaged in providing that valuable com- modity, being at the head of one of the large works established since the war for converting the phosphatic rocks that underlie her coast lands into the material that her exhausted soil so much required. " THE GOOD TIME COMING. " With local self-government assured and the colored race fully pro- tected by the urgent competition for their labor, it cannot now be doubted that the fertile soil and the mild climate of the South will soon attract to other portions as large an immigration as is now pour- ing into Texas ; and as new branches of industry are established and a more dense population grows up or comes in, even though the negro should quit the fields and take to other occupations in towns and villages, as it is alleged he will do, there can be no doubt of the con- tinued increase of the cotton crop." 89 EXHIBIT OF MACHINERY AND FABRICS AT CENTENNIAL. SUPPLEMENTARY CHAPTER. THE cotton manufacture of the United States, as illustrated at the Centennial Exhibition, although very complete in its collection of the various fabrics made in the country, was very deficient in its illustra- tion of the processes by which they were produced, many of the best machines being entirely unrepresented, and some of those shown not being in operation, while in no case was a complete system of cotton machinery shown by any exhibitor. There were, however, machines from various sources on exhibition, from which we can trace the operation of the various processes which the cotton undergoes in its progress from the bale to the cloth, and we will endeavor to note these in their proper order, with some comments on their peculiarities. First in order was the opening and picking machinery of the Kitson Machine Co., of Lowell, consisting of two machines the first one for opening the cotton, from the bale, and partially cleaning it from seed and leaf, and forming it into a lap, which is taken to the second machine, where it is still further cleaned, and where three of these laps are united into the one which goes to the card. The second machine did not differ essentially from the " Lappers " in. ordinary use in the United States and England, but the first one had a radical modification, in the addition of a toothed cylinder (or pair of disks, both forms being employed) to tear open the hard masses of cotton as they are taken from the bale, and to loosen them, before sub- jecting them to the blows of the "beater," whose office it is to knock out the seeds and sand, while the cotton is carried forward by a cur- rent of air against a wire gauze cylinder, which forms it by its revolu- tion into a sheet or lap. The processes of opening cotton have varied considerably in times past, according to the character of the staple to be treated ; but the mode most commonly adopted of late years, for the 90 great bulk of middling and ordinary cottons, has been that of the " Beater " so-called, a straight steel bar, of which two or three were set on arms, parallel with and 7 to 12 inches distant from a shaft re- volving from 1,200 to 1,800 times per minute, thus giving the beaters a velocity of from 5,000 to 8,000 feet per minute. These bars strike the cotton as it issues slowly from a pair of feed rollers, and by their velocity drive the seeds and heavy substances downward through a grating underneath, while the cotton is carried on with the beaters till it is sucked off by an air draught on the side opposite to the feed rolls as above mentioned. With loosely packed and dry cotton this mode is not objectionable, but, when it has been heavily compressed and subjected to moisture, the hard " mats" thus formed are very difficult to open, causing great strain and wear on the machines, and consuming an unnecessary amount of power, besides causing more or less injury to the staple, and it is to obviate these difficulties that Mr. Kitson's "Atmospheric Opener " was constructed. These machines are now being introduced to great satisfaction in many large cotton mills both in America and England. The next machine in order is the card of which there was not one of the ordinary form on exhibition, the only machine shown being Messrs. Foss & Percy's " underflat " card, which aims to do double the work of the ordinary card, with only J more power, and only the same amount of floor space in the mill. The novelty of this machine lies in the arrangement by which the " Card Flats " are held up by springs to the under side of the carding cylinder, thus giving double the working surface ; and in so revolving the cylinder that it strikes the cotton downward instead of upward from the feed rolls, thus knocking any dirt and sand which may have escaped the picker down into a space prepared to receive it, instead of carrying it up and lodging it in the " Top Flats." This machine is but of very recent introduction, and it is not yet possible to speak authoritatively of its merits, but it was favorably esteemed by the judges, and is now being thoroughly tested, with excellent results, in several of the mills at Lowell and other manufacturing towns. Of the next process, the " Drawing-Frame," there was only a single specimen exhibited, and that one not in operation : from the Saco Water Power Machine Shop, of Biddeford, Me, This machine was thoroughly well built and finished, and may be considered as a fair specimen of the machines at present used for that purpose. The same establishment also sent a very perfect set of Roving or " Fly Frames," three in number, of excellent finish and construction, 91 and a self-acting mule, of the Parr-Curtis pattern, which may all be taken as good specimens of the best type of cotton machinery in use at the present day. The Providence Machine Company also exhibited an excellent set of roving frames in operation, which were noticeable for the high velocity and great ease of their movements, but which differ little in essential points of construction from those of the Saco Water Power Machine Company. Messrs. Fales & Jenks, of Pawtucket, R. I., had on exhibition the " Combined Fly Frame and Speeder " of Messrs. Mayer & Chatterton, which had several excellent features, combining very ingeniously some of the best points of two systems ; having the long flyer of the speeder separated from the spindle, thus admitting of economy of time in dressing and the more perfect " wind motions " of the fly frame. No examples of the spinning frames which have been in ordinary use for many years were on exhibition, but two varieties of the new light ring spindle, which is rapidly being introduced, were shown in operation, viz., one frame of the "Sawyer spindle," by Messrs. Geo. Draper & Sons, of Hopedale, Mass., and one frame built by the Lowell Machine Shop, and exhibited by the Willimantic Co., in which half the spindles were of the Sawyer pattern, and half of a combination of the " Sawyer " and " Pearl " patents. This frame was shown running at a very high speed, and spinning No. 160 yarn ; but, as both these spindles have been described in another place more fully, it is unneces- sary to say more about them here. Messrs. Draper & Sons also exhibited a twister with the Sawyer spindle, a spooler with the " Wade " bobbin holder, a new and very ingenious improvement, and a Warper, containing several new and valuable inventions. The Lewiston Machine Shop, of Lewiston, Me., also contributed a Warper, of the very best plan and construction, and one which is in very extensive use and highly commended in many of our best mills. The display of looms was quite large, and contained several pat- terns of the well-known Crompton loom, from Worcester, Mass. ; the Knowles loom, from the same place ; the Thomas loom, from the Lewiston Machine Shop ; the Lyell loom, which was shown weaving jute canvas, 8 yards wide, grain-bags, sheetings, and women's corsets, the latter, by an application of the Jacquard motion to the warp, being produced shaped to the body, and the loom weaving 8 at once. Other looms were exhibited by Thomas Wood, of Philadelphia, Jas. Long, Bros. & Co., Philadelphia, L. E. Ross, Providence, R. I., Wolfenden, Shove & Co., Cardington, Pa. All these looms were excel- lent for their intended purposes, and very thoroughly illustrated that 92 branch of manufacture, especially so far as related to figured or " fancy woven" fabrics. Messrs. George Draper & Sons also exhibited loom-temples such as are in universal use in the United States, and double adjustable spinning rings. The Willimantic Co. of Willimantic, Conn., made a very fine display of cotton in its various states of progress from the bale to the yarn, and showed the two very ingenious automatic machines invented for them by Hezekiah Conant, for spooling sewing cotton, and for ticketing the spools. Messrs. Butterworth & Co., of Philadelphia, exhibited drying cans, for bleached or printed fabrics ; Messrs. Palmer & Kendall, of Middle- town, Conn., have a very ingenious drying and tentering machine for mosquito nettings, lawns, and other light cloths ; and Messrs. Hope & Co., of Providence, R. I., showed two patterns of their very ingenious Pantograph engraving machines. There were some smaller exhibits, but the above list comprised all the machinery of any importance in the American department, while the display from other countries was so meager as to allow of no par- ticular comparison. The display of fabrics was much more extensive, consisting of 142 exhibits, ranging, with one or two exceptions, from No. 8 to No. 40 yarn, as the basis, and comprising a very great variety of styles of cloth, from cotton duck to fine muslins, ginghams, and printed calicoes, from different parts of the Union. A full list would be simply a repetition of the official catalogue, and it may be condensed by saying that Maine was represented by the following exhibits, viz : Cotton duck from the Westbrook Manufactur- ing Company of Portland ; tickings, cottonades, cheviot shirtings, seamless bags, sheetings, shirtings, jeans, quilts, ginghams, and silesias from the different mills at Lewiston ; cottonades, denims, tickings, dress goods, skirtings, and shirtings from the York mills at Saco ; sheet- ings, shirtings, drills, and jeans from Biddeford ; and sheetings and shirtings from the Cabot mills at Brunswick and the Farwell mills at Lisbon. New Hampshire also made an extensive display, consisting of tickings, denims, awning stripes, cotton flannels, ginghams ; fancy shirtings, jeans, drills, duck, seamless bags, printed calicoes, sheetings, and shirtings, from the mills at Manchester ; quilts and sheetings from the Monadnock mills, at Claremont ; cotton flannels, sheetings, shirtings, and print cloths from Nashua, sheetings and shirtings from Great Falls, and knitting cotton from Morse, Kaley & Co., of Milford. Massachusetts was largely represented by print-cloths, printed cali- coes, shirtings, and muslins, from Fall River ; sheetings, shirtings, drill- 93 ings, cotton flannels, printed calicoes and furniture-coverings, and bleached and dyed cambrics from Lowell ; printed calicoes and lawns, cottonades, tickings, cheviots, denims, and dress goods from Lawrence ; spool cotton, lawns, muslins, thread, twine, and yarns, from Holyoke ; cotton flannels from Chicopee, denims and dress goods, from Palmer ; sheetings and sateen jeans from Salem ; sheetings and shirtings from New Bedford and Waltham ; ginghams and yarns from South Hadley ; ginghams, skirtings, and dress goods from South Adams ; cottonades, shirtings, tickings, denims, awning-stripes, and dress goods from Whittenton ; ginghams from Lancaster ; and print cloths, cambrics, and printed calicoes from Southbridge. Rhode Island, as might be expected, as the birth-place of the cotton manufacture in America, made a wide and varied exhibit of brown and bleached cottons and dyed and printed fabrics, from a number of mills in different parts of the State, all having their business headquarters at Providence. Woonsocket, Pawtucket, Warren, Westerly, Lonsdale, Pontiac, and other manufacturing towns were well represented ; and the lawns and muslins of the Lonsdale Co., and the similar fabrics from the Berkeley Co., are worthy of especial notice from the perfection of their manufac- ture and the fineness of the fabrics ; the sateens of the Berkeley Co. being made of No. 100 warp and No. 150 weft, and supposed to be the finest goods made in the United States. Spool cotton of excellent quality was also exhibited, and a great variety of bleached and colored goods from different bleacheries and print-works. Connecticut sent denims, ducks, cheviots, tickings, and fancy stripes from Norwich ; shirtings and cambrics from Wauregan, Putnam, and Taf tville ; mosquito nettings from Middletown ; and sewing cotton from Willimantic, the latter being of especial merit for it's smooth- ness, softness, and strength, and is mentioned in another place, in con- nection with the machinery employed to produce it. New York had fewer exhibitors, sheetings and shirtings from Utica and the "New York Mills," silesias, cambrics, etc., from Saratoga, comprising her list. New Jersey was more fully represented, and sent spool cotton from Newark and Mount Holly ; ginghams, print-cloths, and printed and dyed fabrics, from Gloucester ; cotton towelings and dusters from Paterson ; bleached shirtings, cambrics and silesias, printed linings, umbrella cloths, window hollands, tilloting cloths, etc., from Millville, and cotton yarns and wicking from Wortendyke. Pennsylvania showed awning stripes, tickings, printed and dyed calicoes, and muslins in great variety cottonades, ginghams, cotton yarns, and a great variety of cotton fabrics of medium fineness, from the immediate vicinity of Philadelphia ; cotton flannels, nankeen, and 94 tickings from Lancaster ; counterpanes and quilts from Allentown and Lancaster ; and tickings from Linwood. Delaware sent tickings from Wilmington, and warp yarns from New Castle. Maryland took the lead in cotton duck, with three very fine exhibits from Baltimore. North Carolina sent sheetings, from Great Falls, Rockingham Co. Georgia exhibited very good sheetings from the Alabama and Georgia Manufacturing Company, of West Point. Mississippi contributed excellent heavy cotton, and mixed cotton and wool fabrics, from the Mississippi Manufacturing Company of Wesson, and also excellent yarn from F. E. Whitfield, of Corinth, which had been manufactured directly from seed cotton, by an appara- tus attached to the card, which performed the same purpose as the gin. Indiana completed the list of the States of the Union represented, with staple heavy sheetings from Evansville. Canada exhibited staple sheetings, shirtings and yarns, tickings and bags, from Hamilton, Dundas, and Toronto, and New Brunswick sent yarns from St. Johns ; and these should fairly be included in the list of distinctively American exhibits, as the skilled labor which they have drawn from the United States has been a great element in their success. In taking a general survey of the subject, a tendency to the manu- facture of finer fabrics was noticeable in Massachusetts, and especially in Rhode Island, and also in the newer mills in Maine. New Hamp- shire excelled in the heavier goods, such as denims, drills and tickings, though the finest tickings are from Pennsylvania, and Maryland made a specialty of duck ; Massachusetts and Rhode Island took the lead in ginghams, print cloths, and dyeing and printing, in the quantity pro- duced, although for excellence in dyeing and printing Pennsylvania and New Hampshire fairly disputed the palm with them ; while for great variety of minor manufactures, the region directly about Phila- delphia excelled. The Southern States made a small but creditable exhibit, and the time will come when with peace, and attention to industry instead of politics, they will make the greater part of their ordinary clothing fabrics, while the North, as it is now doing, turns its attention to finer goods. With this short comment we will close this memoir of the growth of the cotton manufactures of the United States up to the period of the Centennial Exhibition of 1876. 95 APPENDIX A. PAPER BEAD BY WILLIAM A. BURKE, ESQ., OF LOWELL, BEFORE THE NEW ENGLAND ASSOCIATION OF COTTON MANUFACTURERS, OCTO- BER 25, 1876. STATISTICS RELATING TO THE COST OF MANUFAC- TURING DRILLINGS AND STANDARD SHEETINGS IN 1838 AND 1876. " MR. PRESIDENT AND GENTLEMEN : I have been requested by your Board of Government to present to this meeting some statistics of the cost of manufacturing drillings and standard sheetings in the years 1838 and 1876. "These statistics were collected at the request of Mr. Samuel Webber, to be used in his work, soon to be published, on the ' Centen- nial History of the Cotton Manufacture ' in this country. " The mills I have chosen are the No. 1 Mill of the Boott Cotton Mills, in Lowell, Mass.,' and the mill of the Jackson Company, in Nashua, N. H. " The year 1838 is as far back as the records were complete enough to be relied on. " For convenience of comparison, the items are arranged in a col- umn for each of the years 1838 and 1876. " The No. 1 Boott Cotton Mill was one of four mills built and equipped ready for operation by the * Proprietors of Locks and Canals on Merrimack River,' and was started in 1836. It was filled with ma- chinery for making drillings only. The building, water-wheels, gear- ing, and machinery were of the latest and best construction at that time, and fully equal to those of any mill in Lowell. " The machinery in the mill was as follows : Two conical wil- lows. Two pickers or lappers, with 2 beaters each. Twenty-eight breaker-cards, with main cylinders 37 inches in diameter and 37 inches wide, with a leader-in 6f inches in diameter, and 12 top flats ; 15 96 draught, 32. Two lap-winders for making a lap for the finisher cards, from 32 breaker card slivers. Twenty-eight finisher cards, with main cylinders same size as the breaker cards, and with 14 top-flats ; draught, 31.27. First set of drawing-frames had 16 deliv- eries, and doubled 3 into 1 ; draught, 4.12. Second set of drawing- frames had 24 deliveries, and doubled 4 into 1 ; draught, 3.76. Third set of drawing-frames had 24 deliveries, and doubled 4 into 1 ; (fraught, 3.17. Six speeders of 18 spindles each, having bobbins with heads 6J inches in diameter and 8 inches long between the heads ; draught, 5.7 ; twist, .71 per inch. Ten fine speeders or stretchers, of 36 spindles each, having bobbins with heads 5 inches in diameter and 7 inches long between the heads ; draught, 6.13 ; twist, 1.2 per inch. The coarse or speeder roving was doubled on the stretchers. -Twenty-eight flier and dead-spindle throstles, of 128 spindles each, for making warp ; 800 yards of yarn put on a bob- bin. Twenty flier and dead-spindle throstles, of 128 spindles each, for making filling ; 400 yards of yarn put on a quill ; draught on all the throstles, 9.94. Three thousand five hundred and eighty-four warp and 2,560 filling spindles, making 6,144 spindles in the mill. Eight f cradle ' warpers, for putting 250 threads and 5,000 yards in length on a section beam. Twelve dressing-frames, carrying 8 section beams each, having 2 fans, 'and drying the sized yarn with the air of the room, or that coming from the furnace which warmed the mill. Ten cuts of 32 yards each, when wove, were put on a loom beam. One hundred and seventy-six looms for weaving drillings 30 inches wide. " The comparison is made for four weeks (24 days) in May, 1838, and for the same length of time in May, 1876. " The statistics for 1876 were very kindly given by Mr. A. G. Cumnock, the present agent of the Boott Cotton Mills. " Since 1861 all the mills owned by the Boott Cotton Mills have been renovated and enlarged (one new mill added), supplied with ad- ditional motive power, new shafting, and an entirely new suit of machinery of the latest construction, arranged for the greatest econ- omy in operating. " The number of spindles in all the mills when they were started, in 1836-'37, was about 28,000. The present number of spindles is about 113,000, and of looms 2,550, while the capital stock is the same as in 1836, viz.. $1,200,000. "All these renewals and additions have been paid for from the earnings, and the mills are believed to be equal to any in New Eng- land for economy in working and in the quality of the cloth manufac- tured. BOOTT COTTON MILL No. 1. MAY, 1838. MAT, 1876. Organization of Cloth (Drillings), viz. : Number of the yarn (average). 13 64 13 93 Threads in the warp 2,000 2196 Picks of fillin" per inch 60 50 Weight in yards per pound .... 2 91 2 85 Hours of labor per week .... 76| 60 Pounds of cloth made in 306 hours 71,686 Pounds of cloth made in 240 hours * . . 71 882 Number of looms used 176 194 Yards woven on a loom in 60 hours 245 264 Number of spindles run . 6 144 6 965 Pounds spun per spindle in 60 hours. . . : 2.292 2 58 Number of Operatives, viz. : In card room (including picking) Males 143 933 Females 33 11 In spinning room Males 4.18 25 Females (including spoolers) 55 25 In dressing room Males 2 1.5 Females (including warper tenders).. . 29 4 In weaving room Males 3 2.5 Females 86 34 Total Males 2348 15 83 Total Females 203 74 22648 89.83 Pounds of cloth produced by each operative in one hour. . . Cost of labor per pound For picking, carding, and roving .... 1.012 Cents. 1 0291 3.333 Cents. 6674 For spinning (including spooling) 1.1168 .7446 For warping and dressing. ... 7105 1786 For weaving 1 9371 1 2627 Total cost of labor per pound. . .... 4 7935 2 8533 Average of Wages paid (Board included, Overseeing excepted). In printing and carding rooms For males, per day . . &076-3- &1 22 For females, per week 3.02^ 3.98-i 1 ,,- * On account of the changes made in the machinery and its position, the pounds of cloth given as made in May, 1876, are 196 more than were made in May, 1838. 98 Boon COTTON MILL No. 1. (Continued.) MAY, 1838. MAT, 1876. Average of Wages paid {Board included. Overseeing excepted). In spinning room For males, per day For females, per week (including spoolers) In dressing room For males, per day For females, per week (including warpers and web- drawers ... In weaving room For males, per day For females, per week Price of board in corporation houses For males For females. . $0.66f 2.93i 3.62 1.75 $1.00 4.27* 1.25 5.40 1.00 5.88 3.25 2.10 NOTE. In addition to' the $2.10 per week paid by females for board in 1876, the company pays 30 cents per week to the boarding-house keeper, making $2.40 in all. " The mill of the Jackson Company was put in operation in 1832, but, as the accounts for the first year were not kept in detail, the six months ending June 1, 1838, and the six months ending. April 30, 1876, are taken for comparison. JACKSON COMPANY. 1838. 1876. Number of spindles 12 000 23 888 Number of looms 400 786 Average number of yarn , 13 25 13 25 Weight of cloth in yards per pound 2 95 2 932 Cost of labor per pound 4 805 cts 3 59 cts Geneva! expenses per pound 2 137 cts 2 605 cts Cost of cotton per pound at the mill 1 2 73 cts 14 132 cts Percentage of waste, net 12 91 12 11 Total cost of cloth per pound 21 99 cts 22 289 cts Total cost of cloth per yard 6 64 cts 7 601 cts Total cost of print cloth per yard 5 726 cts None made Yards of cloth made in 6 months 2,832 575 4737681 Pounds of cloth made in 6 months 960 195 1 615 791 Average price per yard received for sales .... 8 50 cts 8 549 cts Profit per yard, net 1 86 cts 948 cts Pounds spun per spindle in 64-J- hours 271 2 635 Pounds woven per loom in 64 hours 81.51 8009 Yards woven per loom per day of 11 hours 41 03 39 14 99 JACKSON COMPANY. ( Continued.) 1838. 1876. Six months is equal to 154 days, or 25f weeks of 6 days each. Hours of labor per week, say 74 64A Operatives employed Males ( 514 62 ) 82 64 ( in all f 35240 Hours of labor for 6 months = 164 days = 25 weeks of 6 days each 1 898 84 435.04 1 65507 Cloth in pounds produced in one hour by each operative . . . .9852 2.275 " When the mill began work, it had 10,240 spindles and 360 looms. No record of the machinery appears to have been kept until June 1, 1841, when the number of spindles is given as 12,500. I assume that in 1838 there were 12,000 spindles and 400 looms. For a few years the company made a small amount of print cloths, but they were dis- continued, and the whole product of the mill has been * Indian Head ' standard sheetings, so favorably known over the whole country. " The statistics were kindly furnished by Frederic Amory, Esq., of Boston, the treasurer of the Jackson Company. " The cost of labor, the number of operatives, and the average of wages paid in each department could not be ascertained for the six months in 1838, and of course are omitted for the six months in 1876. " As the reduction in the cost of labor and the number of opera- tives employed does not appear to be as great at the Jackson Com- pany as at the Boott Cotton Mills, it is but fair to remark that the Jackson Company continue to use the flier and dead-spindle throstle for spinning (most of it the same as when the mill was started), and have not until recently substituted c slashers ' for the old-style * dress- er ' in sizing the warp yarn. " My purpose is to show what progress has been made as regards the labor-cost of making drillings and standard sheetings from 1838 to the present time. Although the comparison is made on No. 14 yarns, yet I think an equally favorable result would be found on finer numbers, say as fine as No. 30. " As regards prices for labor, we know that is always affected by the demand and supply of labor. Wages are now greater than they were thirty-eight years ago, but not as large as within the past few years. " The wages as given at the Boott Cotton Mills, after deducting 100 the prices paid for board by males and females, show at the present time an increase in the wages of males (overseers are not included) of sixteen and one half cents per day, and of females of eighty-nine cents per week, more than the net wages received by them in 1838, or an increase of 40 per cent, for males and 47 per cent, for females. " At the Boott Cotton Mills the labor-cost on drillings is 1.94 cent per pound less in 1876 than in 1838, and is distributed as follows : Less in card room 3617 cent. " in spinning room. 3722 " " in dressing room 5319 " " in weaving room 6744 " 1.9402 " " But a greater difference appears in the amount of cloth produced by each operative. This is shown by the fact that at the Boott Cot- ton Mills one hour's work by each person gives 3.33 pounds of cloth in 1876 and but 1.012 pound in 1838. "At the Jackson Company, in 1876, one hour's work gave per hand 2.275 pounds of cloth, and in 1838 but .9852 pound. I presume the records of other mills would show equally well. " How has this improvement been obtained ? I will specify a few of the changes that have taken place since 1838, as they appear from my observation : " First. Larger mills, with better opportunity for arranging ma- chinery to economize labor. The size of cotton mills, as established at Lowell forty years ago, was 6,144 spindles for No. 14s and about 8,500 spindles for No. 30s, and the machinery for weaving the yarn into cloth. At this time a 20,000 spindle mill is a moderate size, and we have them of 50,000 spindles, or even more. " Second. Improvements in the construction and workmanship of machinery and many important inventions and attachments to save labor and perfect work. I will note but some of the principal ones : The Wellman Top Card Stripper, the use of lap-heads (so called) where double carding is practiced, eveners on railway -heads, the stop- motion on drawing-frames, great improvements on mules, the intro- duction of the ring and traveler spinning-frames, also of the ' slasher ' for sizing yarn, and the filling stop-motion on the loom. These are but few of many improvements familiar to all of us. " Third. The number of looms a weaver is now able to tend has more than doubled. In 1838 two looms to a weaver was the rule, though there were cases of three or more being tended by one person. Now the practice is for four to six and even eight looms to be run by 101 one weaver. At the Boott Mills 34 weavers tend 194 looms ; and, if two of the 34 are "room girls," then 194 by 32 would give a trifle more than six looms to a weaver. " Fourth. The reduction of at least one half of the piecings in the progress of the cotton from the bale to the cloth. We now make longer laps and use larger cans for the drawing-sliver ; by improve- ments on fly-frames and on speeders, we double at least the length of roving laid on a bobbin, and thus enable a spinner to tend more spin- dles. We double the length of yarn wound on a quill or bobbin ; we wind three times as much weight of yarn on a * section ' or l slasher ' beam, and we double at least the number of cuts or pieces on the warp beam for the loom. " These are the principal changes that occur to me as having op- erated to increase so largely the amount of cloth made by each per- son employed. They are the result of the experience and persistent labor of many years, have been of slow growth, and obtained by a little here and a little there. " I might give another reason for the progress made, especially within the last fifteen or twenty years. We are more sensible of thfe advantage of keeping well informed and ' posted ' in whatever relates to economy in cost of production, and for that object there is now a greater interchange of information of what is being done in our mills than was formerly the custom. " This association is an important aid in that direction, and now, in the eleventh year of a flourishing and I hope permanent existence, is carrying out the purpose set forth in the preamble to its constitu- tion, viz. : l Promoting a more intimate acquaintance with each other, and collecting and imparting information as to the best methods of manufacturing cotton.' " 102 APPENDIX B. LETTER FROM AZA ARNOLD TO THE CHAIRMAN OF THE COMMITTEE ON PATENTS, UNITED STATES HOUSE OF REPRESENTATIVES. " WASHINGTON, September 6, 1861. " HON. ELISHA DYER, Chairman, etc.: We are informed that the differential speeder is claimed by Mr. Appleton as a Waltham invention. But the author of Waltham inventions made no such claim. No improvement on cotton machinery appears to have been made at Waltham, up to 1826, except by Paul Moody ; he was chief mechanician of Waltham, and claimed to be the inventor of the Waltham speeder ; he claimed eight improvements on the machine, but they proved not to be new. Jonathan Fisk also built the same kind (Waltham speeder) at Medway, and took five patents on the machine. William Hines, of Coventry, R. I., had made improvements on the speeder and patented before them. And it is remarkable that the parts claimed by Moody are the identical parts which are super- seded by my compound motion, and were never used in a differential speeder. I shall refer to the case of Moody vs. Fisk in a future page, to show that Moody's claim proves the Waltham speeder to be essentially different. Paul Moody took charge of the Lowell establish- ments, and Jonathan Fisk took charge of the Dover factory. And I shall show that neither Moody nor Fisk knew any method of compound- ing two different motions, and producing their differential, for four years after I had the machine in operation. I was well acquainted with Moody, saw his machines, and considered that he improved the speeder by adopting the long flier ; but the long flier was invented by Asa Gilson, at Dorchester. I have used both Hine's and Fisk's speeders, and well remember the difference. " If I exhibit a little egotism-in this reminiscence, you will excuse it when you consider the local prejudice that was exercised against my machine as a Rhode Island invention. I invented the differential speeder, and put it in operation in 1822, at South Kingstown, and it was soon in operation at Coventry, Scituate, Pomfret, and a dozen other places, but for three or four years it was discountenanced at Waltham, 103 and Lowell, the Waltham speeder being exclusively used in both places until I had constructed and put in operation the Great Falls factory, at Somers worth, N. H., which actually produced 30 per cent, more goods per week than the Waltham or Lowell factories had pro- duced, of equal quality. This brought down the directors of the Lowell factories to our place at Somersworth, to inquire into the cause of so great a difference. It brought also Mr. Moody, their engineer, and Mr. George Brownell, the foreman of the Lowell machine shop ; they also sent the celebrated mathematician, Warren Colburn, to see if our calculation was correct. I had the pleasure of exhibiting and explaining all the minutiae of the Rhode Island invention a third time, and the result was that Mr. Colburn told Moody that it was mathe- matically correct, and that it was the only plan that he had heard of by which the machine could be made adjustable to all sizes of ropings. We notice the case Moody vs. Fisk (2 Mason Rep., 112), tried at Boston, October term, 1820. In the defense, it was proved that the improvements claimed by Moody were not new, neither were they invented at Waltham. William Hines, of Coventry, had made improvements on the speeder, and patented in February, 1819, pre- vious to Moody's date. Moody's patent was vacated for want of novelty. The object of referring to it is to show that Moody's claim proves the Waltham speeder to be a different machine from the dif- ferential speeder. In summing up his claims, he says : "First, I claim the position of the rolls. Second, the two upper cones. Third, the method of moving the belt on the two lower cones, and that of communicating motion from the lower cones to the spindles, and all the mechanism and method of communicating motion, from the upper driven cone to the arbors or axles of the endless screws, and perpendicular racks or screws that raise, and the spindle rail. Fifth, I claim the method and machinery by which the said motion communicated to the spindle raW is changed from an ascending to a descending motion, and the manner of connecting the same with the wagon carriage. Sixth, the wagon and the wagon carriage, gallows frame, catch wheel, the cycloid cam, slide lever and pulley shaft, which raises the belt on the upper cones, and all the similar parts that raise the belt on the lower cones (except the cycloid, or cycloid cam), with all the parts, movements, and mechanism connected with the same. Seventh, the flier tubes, and method of applying and using them. Eighth, the rotary motion of the cams, and the intermediate gear work. And further, I claim that these my inventions are applicable, not only to this machine which is adapted to one size of roping, but may be pro- portioned and applied to the making of any other kind of roping." So, by his own showing, the Waltham speeder makes but one size of 104 roping. It is proper to remark that my compounding wheels super- sede all the second pair of cones, cycloid cams, the cycloid racks, the second cone belt, and the method of moving the belt, which required to be brought up by ratchets and catches, with teeth of different lengths, graduated to suit one size of roping, and which could not be used to make a different grade of roping, finer or coarser, but require another set of parts graduated differently to suit any other size of roping, and this proportioning and adjusting of the machinery was required at each change from fine to coarse, or from coarse to fine. The object of my inventing the differential speeder was to do away with the intricate construction, and to simplify and extend the use of the machine, so that one set of gears can be adjusted to each and every size of roping by merely changing the pinions. When Mr. Moody came to me for an explanation of my invention, we had a free and full discussion of its parts and properties. I remarked to him that the exact difference between the retarding motion and a certain uniform motion would be always right for the accelerating motion. He seemed not to recognize the fact, and spoke doubtfully of it ; I then remarked that the same cause that required the graduating of one, required the graduation of the other, for both depend on the diameter of the roping. Therefore, I take the advantage of using this differential for the accelerated motion, rather than to use another pair of cones and belt fixtures ; but I have another more important advantage by so doing, that is, whenever it is required to alter one graduation, the other always keeps right along with it ; whatever may be the rate of change required, these motions are always reciprocal to each other. Therefore, I use a rack with equal teeth for moving the belt, and move it by a pinion of any requisite number of teeth, so as to adapt the same machine to any size of roping by merely changing the pinions. " Up to this time, the differential speeder had not been seen at Waltham or Lowell, neither had the authors of Waltham inventions taken the pains to investigate its merits. But after this, I had a cordial- and good understanding with both Moody and Fisk. I have subsequently been informed by Mr. George Brownell that, soon after this interview, they commenced making my kind of gears at Lowell, and not only built my kind of speeders, but also took up their Waltham speeders, and geared them over, and converted them into differential speeders, by putting in my compound motion. This is a historical fact of some significance ; George Brownell, I think, is still living at Lowell, and will confirm these remarks ; James Dennis, Gideon C. Smith, and Daniel Osborn, who were with us at Somersworth, may, perhaps, recollect some of the circumstances. While on the subject 105 we may remark further that the speeder (fly frame) had been used in England, but the compound motion or differential had never been applied to an English machine, until Charles Richmond carried to England a model of my wheels (unbeknown to me). He was there in 1824-5, when Mr. Houlds worth took up the subject of improving the fly frame. Dr. Ure informs us that Houlds worth applied the differen- tial system and patented it in 1826 ; that is, three years after the date of my patent. It was not requisite for him to claim it as his orig- inal invention. I have been informed, through a former partner of Charles Richmond, that the model which he carried to England was made in Taunton, and was sold in England, and had since been patented there. We said that J. Fisk did not understand producing and using the differential motion until three years after we had the machine in operation. It happened that J. Cowing, in describing my speeder, told Fisk that it had but one pair of cones, and one cone belt. Fisk remarked, then it could not work. Cowing replied, "but it appears to work right well, and makes more roping than the Waltham speeder." Mr. Fisk then entered into argument, saying, " It is impos- sible to produce both graduations by one pair of cones and one belt, because, while one is a retarding motion to vibrate the spindle rail, the other requires to be an accelerated motion for the winding up." So it was evident that he did not understand it, or he would not have made this assertion. If my differential speeder had ever been supposed to have been a Waltham invention, we should have heard of it during my three years' contest with six corporations of Lowell, yet not a word of any such claim was offered, but, on the contrary, they tacitly acknowl- edged my right to the invention ; and after having the law repealed, thereby defeating my first claims up to that time, they then gave me $3,500 for the right to use the same for the last year of the term of my patent. And this they did after searching all the evidence that could be found against my claim. Mr. Lyman, of Boston, who acted as their agent, who paid me the money and received the license for them, told me they found no evidence against it. Few readers will take the trouble to understand the specific difference between two complex machines ; but when one mode of operation enables the manu- facturer to produce twenty per cent, more goods, with the same cost of labor than has before been done, it becomes of national impor- tance. Dr. Ure well remarks that, since the differential system has been adopted, manufacturers have been able to produce a better article at a less cost, and have thereby increased the trade. " I am, dear Sir, most respectfully, " Your friend and servant, "AzA ARNOLD." INTERNATIONAL SCIENTIFIC SERIES. NOW READY. In 12mo and bound in cloth. NO. I. FORMS OF WATER, in Clouds, Rain, Rivers, Ice, and Glaciers. By Prof. JOHN TYNOALL. $1.50. " 2. 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Youmans, who spent the greater part of a j-ear in Europe, arranging with authors and publishers. The character and scope of this series will be best indicated by a reference to the names and subjects included in the lists of volumes published and in preparation ; from which it will be seen that the cooperation of the most distinguished professors in England, Germany, France, and the United States, has been secured. The works will be issued simultaneously in New York, London, Paris, Leipsic, Milan, and St. Petersburg. VOLUMES IN PREPARATION. The Brain as an Organ of Mind. By H. CHARLTON BASTIAN, M. D. {In press.) The Crayfish: An Introduction to the Study of Zoology. By Pro HUXLEY. (In press.) The Stars. By Prof. SKCCHI," late Director of the Ob- servatory at Rome. (In press.) The Sun. By Prof. YOUNG, of Princeton College. With numerous Illustrations. Psychometry. By FRANCIS GALTON, F. R. S. General Physiology of Muscles and Nerves. By Prof. J. ROSENTHAL, of the University of Erlangen. Animal Intelligence. By GEORGE J. ROMANES, F.L.S. On AntS and Bees. By Sir JOHN LUBBOCK, Bart, F. R. S. Forms of Life and other Cosmical Con- ditions. By P. BBRT, Prolessor of Physiology, Paris. D. APPLETON & CO., Publishers, 549 & 551 Broadway, New York. A H I STORY OF THE GEOWTH OF THE STEAM-EMM By ROBERT H. THURSTON, A. M., C. E., PROFESSOR or MECHANICAL ENGINEERING IN THE STEVENS INSTITUTE OP TECHNOLOGY, HOBOKEN, N. J., ETC., ETC. With 163 Illustrations, including 15 Portraits. 1 vol., 12mo. Cloth Price, $2.50. CONTENTS. I. THE STEAM-ENGINE AS A SIMPLE MACHINE. II. THE STEAM-ENGINE AS A TEAIN OF MECHANISM. III. THE DEVELOPMENT OF THE MODERN STEAM-ENGINE. IV. and V. THE MODEEN STEAM-ENGINE. VI. THE STEAM-ENGINE OF TO-DAY. VII. and VIII. THE PHILOSOPHY OF THE STEAM-ENGINE. ( In the preparation of this work, Prof. Thurston has made an important contribution, alike to the excellent series of works of which it will form a part, and to the historical literature of the arts and sciences. There was a niche for such a book, which ought to have been filled before. We have had many works on the steam-engine, from elementary catechisms to ponderous treatises, all of which have given more or less attention to its origin ; but there was still wanting a volume that should tell the entertaining story of the growth of this wonderful machine in a way to interest the popular mind without impair- ing the dignity or diminishing the instructiveness of the narrative. Prof. Thurston may be congratulated on having executed his task in a manner not unworthy the remarkable interest of the subject." Popular 'Science Monthly. " This is the most exhaustive, lucid, and trustworthy account of a most interesting subject. There are two features of the work to which we would direct particular atten- tion. One is the full and careful synopsis of the records and traditions relating to the first discovery and gradual development of the essential principle of heat-engines. The other is the chapter outlining the direction and limitations of improvement in the future." New York Sun. " Prof. Thurston almost exhausts his subject ; details of mechanism are followed by interesting biographies of the more important inventors. If, as is contended, the steam, engine is the most important physical agent in civilizing the world, its history is a desid- eratum, and the readers of the present work will agree that it could have a no more amusing and intelligent historian than our author." Boston Gazette. " Mr. Thurston was a well-known citizen of Rhode Island. Personal knowledge of an author throws an additional interest around the productions. of his pen, though in this case the work needs nothing but its own excellence to commend it to public favor. The ' International Scientific Series ' is to be congratulated upon the advent of a new member presenting a grand subject scientifically treated and admirably adapted to popular com- prehension." Providence Journal. D. 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