Qutih^e- \ti Geography fovTeachev*. T3 7 F./vnaiei^. Class (3 7-3 . Book COPYRIGHT DEPOSIT: AN OUTLINE IN GEOGRAPHY FOR TEACHERS PREPARED TO ACCOMPANY FRYE'S FIRST COURSE IN GEOGRAPHY AND FRYE'S HIGHER GEOGRAPHY BY F:A. MILXEDGE :NN AND COMPANY : PUBLISHERS NEW YORK CHICAGO DALLAS COLUMBUS COPYRIGHT, 1909, BY GINN AND COMPANY LONDON SAN FRANCISCO n < 246997 SEP 23 1909 OUTLINE IN GEOGRAPHY FOR TEACHERS TO ACCOMPANY FEYE'S FIRST COURSE IN GEOGRAPHY AND FRYE'S HIGHER GEOGRAPHY Aim. The aim of the teacher of geography is to lead the pupils to a clear idea of the earth and its people. This clear idea cannot be gained from words alone. No matter how graphic they may be, unless they are under- stood by the pupil in the sense in which they are used, words serve . but to obscure the idea they are meant to present. As geography is the study of the earth, let the teacher begin with the study df that part of the earth's surface which comes within the range of the pupil's daily observation. The same laws are there in operation which are acting everywhere on the earth, and most of the forms of the earth's surface may be studied in the course of a short walk from the schoolhouse. Frye begins with home geography, and the first topic he takes up is "Rain and Springs."' In no case should the teacher confine herself to assigning a certain number of inches of the text and then on the day following question- ing the pupils to find out how thoroughly they have mas- tered the words of this text. Question the children in advance to find out what ideas about rain and its uses are already in their minds. Fix their attention first on the cloud floating in the air, then on the rain falling from the cloud. Where does the 89.8 1 2 AN OUTLINE FOR TEACHERS rain go after it falls on the ground ? Wait for the answer ; do not deprive them of their privilege of thinking for them- selves. Some will say that it runs off ; some that it sinks into the ground. Both are right. If there is a rain storm during the first weeks of school, do not hesitate to suspend the regular routine of lessons to observe the rain as it gathers in the schoolyard in little pools, which overflow and form little brooks. The time is well spent in thus arousing interest. The next time rain falls they will look and reason for themselves, without your help. Visit any spring near by, or a well, and question as to the supply of water. Such questions put beside the spring have a life in them that is wanting in discussions of the same kind in the schoolroom. If there is no spring within reach, use the sand table, which is an indispensable adjunct of each schoolroom. There is no excuse for not having a sand table. Three or four planed boards, four feet long, placed side by side and cleated together on the under side, will give ample room for illustrations. Sand, of course, is to be had everywhere. Build up a pile of sand, inserting a piece of slate or board at about one third of the depth from the top, with the edge just protruding from the slope. Let one of the children drop water from a can upon the top of the mound of sand. When the water oozes out along the edge of the piece of slope, it will be an easy step to get them to the notion of a spring. See illustrations in text. The admirable pictures in Frye's Geography have been carefully selected and are meant to be used and not ignored. Question on the picture, say, at the top of page 3. What do you see in the picture? What is the color of these clouds ? Why are they bright on the upper side ? What do you see floating in the air above the clouds ? Lead the TO ACCOMPANY FRYE'S GEOGRAPHIES 3 children to see that clouds float at varying heights and that the sun still shines on above. Which way is the wind blowing ? What two signs of this direction have we in the picture ? Into how many bodies of water does the rainfall gather ? Which of the three flows most swiftly ? How do you account for the lake ? (A hollow into which the rainfall gathers.) Question as to all the details of the picture, developing accuracy of observation and freedom of expression. As fast as new ideas are introduced, write the words on the blackboard, so that the correct forms may be impressed upon the mind. These words will then serve as busy work, since they can be carefully written down and studied as a spelling lesson later on. Incidentally it may be remarked that these words should be given out by dic- tation to be written down by all, not to be spelled orally, in which case only one in the class is benefited. Nor does the above correlation with spelling exhaust the possibilities of this lesson on the picture in question. Full of interest in the subject, with something definite to write about and with the correct forms of the words to be used before them on the blackboard, the class could proceed to write a composition. Train the children to write at first in short simple sentences, expressing but one thought at a time. Complex sentences will follow later, when they can write a straightforward, simple statement of what they wish ~to express, in sentences properly capitalized and punctuated. There is a great economy in allowing no wrong habits to be formed. Insist upon absolute accuracy and you will be amply repaid for your trouble, e Helps are- supplied by the author as hints to the teacher. These are for use. Make up your mind beforehand how you will use them, and shape the questions so as to develop the ideas, Practice will soon make this easy for you, and 4 AN OUTLIKE FOR TEACHERS the vivid interest aroused will make the lesson in geography a delightful thing. The first lesson has been treated with considerable fullness. It will not be necessary to refer to these points again, but it may here be said once for all that each lesson should be preceded by a discussion of the subject, by the close study of the pictures connected with it, and by writing on the board the new words used. Then let the lesson be studied as given in the text. Each sen- tence will now be full of meaning and will be easily remembered. Then let the written composition follow while the interest is at a white heat, and the geographical idea, thus repeatedly dwelt upon, should be the permanent property of each individual mind. Hill and valley. A field lesson is indispensable for the proper understanding of this topic. If the hard-worked teacher objects that time cannot be found for a field lesson, the only answer is that time must be found. Before school, at recess, at the noon hour, after school, or on Saturdays, some time or other the pupil must come face to face with Nature. Without this actual contact with real things the teacher may, by laborious drill, drive into the heads of the pupils the proper words and definitions, but they will re- main words with but dim relations to the ideas they are supposed to convey. Often the schoolyard has good illus- trations of this and succeeding lessons. Find a slope. Let the children find the top of the slope ; the bottom. Roll a ball down the slope. Run up the slope. In which direction does the rain go that falls on the slope, up or down ? Find different kinds of slope. Find where slopes meet at their upper edges. Compare with the roof of a house which sheds the rain in different directions. Locate similar water parting where two slopes meet at their upper edges. Give other names, such as TO ACCOMPANY FRYE'S GEOGRAPHIES 5 watershed or divide. Lead up to the idea that the world's surface is made up of slopes, which meet at their upper and lower edges. It is no exaggeration to say that this is the most important and most fundamental idea in geog- raphy. With this idea clearly formed, the map becomes full of meaning ; without this idea such absurdities are pos- sible as the statement of the pupil of twelve years, who, after four years of geography study, was of the opinion that the Mississippi rose in the gulf of Mexico and flowed northward ! Study the soil on the slopes and decide w T here the coarsest is found and where the finest. Observe the gullies which the rain has worn in the slope. What has become of the soil that once filled these gullies ? Here it may be said that the smallest gully may teach as im- pressive a lesson as the canyon of the Colorado. Observe a plowed field, after a rain and note how muddy the water is. Catch some of this water in a tumbler and let it settle. Compare the sediment thus formed with soil at foot of slope. A few such observations will quicken the minds of the children and lead them to see and reason for them- selves. This after all, and not the mere acquisition of knowledge, is the aim of all true education. On returning to the schoolroom mold a series of slopes, reviewing all the discoveries of the- field lesson. Have the children mold them and describe them in written exercises, as "above laid down. Brooks and rivers. Visit some brook near by. If there is none within reach, study the schoolyard after a heavy rain. Note the slopes, before barely perceptible, now clearly defined. Observe how the water gathers in little pools, and how these overflow, forming a chain of lakes linked by a little rivulet. Here is an illustration of the fact that rivers were in most cases originally but chains of lakes 6 AN OUTLINE FOR TEACHERS which have worn down their outlets and have become drained by one continuous channel, the river. Trace the brook back to its source, which is probably either a spring or a marsh. Observe the slopes and note that the brook is found where the slopes meet at their lower edges. Locate the basin of the brook by tracing the water parting as far as practicable. Such work on a tiny brook will later make intelligible the valley of the Mississippi and of the Ganges and of other great homes of civilization. Find in the schoolyard the counterpart of the little map of a river system given on page 5. It is . the Mississippi system, and its like is to be seen on any gently sloping bare surface after a heavy rain. How soil is made. Several lessons may well be devoted to this most important topic. Study the Helps given in the text. Use them. That soil is mainly made up of decayed rocks is too startling a novelty to children to be taken in by the mere telling. They must see it for themselves before they really believe it. Note the lichens and moss which gather over rocks ; scrape them off and note how the rock below is affected. Observe old tombstones with inscriptions barely decipherable. The hollows worn in door- steps of old houses teach a lesson to those who can read it. Put some pieces of broken slate in a bottle half filled with clear water. Have the children take turns in shaking it, and question on what they see. What about the color of the water ? What has become of the sharp edges of the slate ? Where has the mud that settles to the bottom come from? One such object lesson will do more to teach the children how soil is formed than pages of text slowly learned by heart, imperfectly understood, and rapidly for- gotten. Scrape out the crevices in rocks ; notice the crum- bling sides of the cracks ; observe how plants have found TO ACCOMPANY FRYE'S GEOGRAPHIES 7 a lodgment there, and died in time, leaving fine dark mold to fill the crevice. Question as to the effect of frost. What happens to the pitcher full of water in a cold room on a winter's night ? If freezing water will burst the pitcher, what will be its effect in the crevices of rocks ? Study the pebbles in the brook. Are they angular or rounded ? What rounded them ? Remember the pieces of slate in the bottle. Start the children to observe and think, and half the work of teaching geography is done. Mountains. The sand table is most valuable in develop- ing the idea of the mountain. Mold a range with slopes not too steep, and embed pebbles and pieces of rock just below the surface all along the water parting. Let water trickle from a can upon this water parting. The soft sand will soon be washed away and gullies will appear, reach- ing down the slopes. The hard pebbles will remain as prom- inent peaks rising above the general mass and separated from each other by passes. At one stroke the idea, a stranger to most adults, will dawn upon the children that mountains were once great uniform ridges and that all their jagged outlines are but the work of the elements, continued through great spaces of time. The sand washed down in the above experiment will spread out over the table in gently sloping plains furrowed by the running water. Cause and effect are here linked together in so clear a manner that the relation can be grasped at once, and pupils see for themselves that the lowlands are formed mainly of material washed down from the highlands of the continents. Shore forms. It is given to but few teachers to be able to study shore forms in nature. But our brook sup- plies us with illustrations which the pupils will delight to discover for themselves. Islands may be found in brooks, 8 AN OUTLINE FOB, TEACHERS peninsulas, isthmuses, and capes, while small gulfs, bays, and harbors may be found by looking for them. Lastly, it may be said with regard to the indispensable field lessons, — do not fear them. You will probably learn as much from them as the pupils. Have the courage to begin. A dozen trips, well directed, will perhaps suffice. If you cannot have a dozen field lessons, at least have one. Let the children have at least one glimpse of the soul- refreshing truth that geography is not all in the book. Forms of water. In this lesson is developed the third answer to the question, What becomes of the rain that falls from the clouds ? We have seen that part soaks into the ground, and part runs down the slopes. We now learn that the remainder evaporates. Boil a little water before the class and note the steam. Set water to evaporate in vessels of different forms and varying amounts of surface exposed. Note the rate of evaporation from those vessels set in the sunshine and in the shade. Study the dew under the trees and in the open, after clear and after cloudy nights ; so also with frost. If snow begins to fall, suspend the lesson which is going on and concentrate the attention on this. de- lightful novelty. Seize the moment when the interest is at a white heat. Notice that the crystals have always six points. Have the children find out that this is so by com- paring the snowflakes with the picture on page 12. This will give them more confidence in the text-book. Points of the compass. At noon take the children out into the yard and watch how the shadow of a pole shortens till midday is reached. Fix the south and set up a mark at some distance from the pole and draw a line connecting them. This is a north-and-south line. It is easy then to locate east and west. Ask the children to observe the points where the sun rises and sets. Get a compass and TO ACCOMPANY FRYE'S GEOGRAPHIES 9 test these directions. Cultivate the sense of direction, which is weak in most children. How maps are made. With this lesson the section on home geography closes. Let the children familiarize them- selves, by repeated measurements, with the sizes of their books,' desks, schoolroom, schoolhouse, and schoolyard. Then have them draw them to a given scale. This gives them an idea as to what a map is, — a conventional picture intended to call up a reality in the mind. Draw a map of the land immediately round the schoolhouse and then have them model the same in sand. This will establish the con- nection between the flat map and the relief map, and the relation of both to the actual facts. Always look for the reality behind the map ; some never see it. In conclusion I may refer the teacher who is in ear- nest to Frye's book, " Child and Nature," published by Ginn and Company. This admirable handbook covers the whole ground of home geography. Form and size of the earth. The teacher should provide herself with a globe. As a small globe on a wire stand can be bought for twenty-five cents from school-supply firms, the cost is not prohibitive. The diameter and circumfer- ence of the earth may be made more real to the class by putting such problems as these for solution : At the rate of twenty-five miles per hour, in how many days could a railway train go round the earth ? If a man were to start on January 1, 1909, to walk round the earth at the rate of fifteen miles per day, on what day would he complete his journey ? Give many such problems until a definite mean- ing is given to the circumference of the earth by associat- ing with it ideas of time. Apply the same procedure to the diameter. To make more real the conception of the earth as a globe floating in space, get the children to observe the 10 AN OUTLINE FOR TEACHERS full moon and then tell them that the earth is just such a globe as the moon, only it is forty-nine times larger. Have them observe the changes of the moon as suggested in the text. Such observations will prepare the way for the full comprehension of the relation of the earth to the sun. In what direction do the horns of the new moon point, towards the sun or from it ? What about the waning moon ? It is surprising how few have ever really noticed these things. Note the path of the moon through the heavens. How does it compare with the apparent daily path of the sun ? Such observations do more than quicken the seeing powers of the pupil ; they enlarge the imagination and prepare him to picture the earth as a globe, lighted on one side and dark on the other, revolving in its orbit round the sun. Continuing the idea of the earth as a unit, it is described as a ball of rock, three quarters covered with the waters of the ocean, while the other quarter is mainly covered with the rotten rock we call soil. The air is then treated as not only forming the outer envelope of atmosphere, but also as penetrating to the depths of the ocean and down into the soil. This unity of treatment is the great merit of Frye's geographies, and should not be lost sight of for a moment by the teacher. Failure to realize this has caused many teachers to complain of difficulty in using the series. It is, of course, difficult to teach intelligently that which is not understood. Do not omit the weather record suggested in the text. Upon the basis of personal observation of the facts may be built later the idea of the truth underlying these facts. The important fact in Lesson 17 is that when the spot of earth on which we stand is so turned to the sun that its rays are most nearly vertical, the heat is greatest, because the rays have less space to cover. If just before the TO ACCOMPANY FRYE'S GEOGRAPHIES 11 opening of the morning session, the children note how long their shadows are, and compare with the length of the much-shortened shadow at noon, they will see that the bundle of rays in the first case had far more ground to cover and consequently could not warm it as much as at noon, when the space covered by the same bundle is so much less. Discuss fully the points suggested in the Helps. This whole topic is one of the most important in geography. Lesson 18. Poles and equator. Take a ball. Get the children to see how hard it is to locate any point on its surface. Now turn it slowly, holding it between thumb and forefinger. The class will soon notice that every point on the surface moves except those directly beneath the thumb and forefinger. We have now two points fixed, the poles. It is then easy to draw with a piece of chalk a line halfway between these poles. This line is the equator. On the ball draw some more lines parallel to the equator, and others from pole to pole. It will be clear that a mark on the surface can now be easily located. To illustrate day and night, place a lighted candle on the table and have the children observe that just one half of the ball is in the light and the other half is in the dark. By putting a mark on the ball and then rotating it from west to east, it can be demonstrated that a person standing on the mark first catches sight of the light on the eastern horizon, and then, as the ball continues to rotate, sees it rise higher and higher till it passes the zenith and finally disappears in the west. The teacher will exercise the utmost care to preserve in these demonstrations the true points of the compass. These and all other hints here given are meant to be merely supplementary, and in no sense are they to be used as substitutes for the text. 12 AN OUTLINE FOR TEACHERS With the general idea of the earth as a ball warmed and lighted by the sun thus made definite, the next step is to locate upon this globe the continents and the oceans. Seasons and zones. The daily observations of tempera- ture above referred to will follow the change of the seasons. Add to them observations of the altitude of the sun at noon at intervals of a fortnight throughout the school year. On September 22, or as near to that date as possible, note particularly the altitude of the sun and the length of the shadow of a pole permanently set up for this purpose in the schoolyard. Impress upon the class the fact that on that day'the sun is directly overhead at the equator. Referring to the diagram of vertical rays of the sun on page 17, deduce the temperature which must prevail at the equator. Again, on December 20, observe the sun's position and compare the shadow. It is now vertical over the tropic of Capricorn, far to the south of the equator, and consequently we receive but slanting rays from the low sun. On March 20 show that it is again on the equator, while an observation taken as near as may be to June 21 will fix the tropic of Cancer. Gradually the true import of the meaning of the change of the seasons will dawn upon the pupils under this constant appeal to observation. Without this constant veri- fication the whole subject will remain a bewildering mass of words. Do not expect too much from the pupils on this topic. If they understand it after several years of recur- rence to this point, they will have done well enough, and more than most of us. Plants and animals. True to the central idea of treating the earth as a unit, the distribution of plants and animals is now considered. The children learn of these in refer- ence to the belts of heat, and recognize how both plants and TO ACCOMPANY FRYE'S GEOGRAPHIES 13 animals find the homes that best suit them under the different climatic conditions of the world. It will- be found that much interest will be aroused by bringing to the school specimens of coffee berries, tea, tropical fruits, etc. After a brief description of each, affix it to a large sketch map drawn for this purpose on a sheet of manila paper. In like manner, pictures of the animals mentioned in the text may be cut from magazines, etc., and pasted on this map at the proper points. Races of men. The same unity of treatment leads the children to recognize the essential oneness of the human race. Color, size, hair, etc., may differ, yet all are men, capable of development. The lessons on laws and government are meant to show that all men are members of some community or other, and as such have both their rights and duties. Govern- ment exists to define and regulate the relations of men to each other. The second section now closes, having given a general view of the continents and oceans with their zones of heat and changing seasons ; also of the plant, animal, and human life that makes its home thereon. The next step is to descend from the general to the particular and to take up the continents more in detail. North America. Notice the order of the treatment and emphasize each point. First, the shape ; then the outline, which is broken and so helps on commerce ; next, the relief of the continent, which is aided by a fine relief map. The relief maps are a special feature of Frye's books, and are neither so simple as to fail in the desired impression, nor so complicated that they confuse the learner. Take up the relief map before the text is studied, so as to have the children see and interpret for themselves. 14 AN OUTLINE FOR TEACHERS Emphasize the unbroken massive Western highlands and the much lower Eastern highlands, broken into two groups by the St. Lawrence. This is a fact of cardinal importance and cannot too strongly be insisted upon. Then let them note the Great Central plain, reaching from the gulf of Mexico to the Arctic ocean. Mold this map in sand and have the children mold it, using as a model the simple relief map given in the supplement. Their previous work in home geography will have prepared them to discover the slopes to the Atlantic and Pacific and to locate the great rivers where slopes meet at their lower edges. The Missis- sippi and the Mackenzie are thus seen to indicate the slopes of the Central plain to the south and the north, while the Saskatchewan and the St. Lawrence occupy a depression which lacks but little of being continuous from the primary highlands to the Atlantic. Then notice that a depression in the Great Central plain in the north lets in the waters of the ocean to form Hudson bay, while a similar depres- sion to the south forms the gulf of Mexico. With the above simple facts clearly in mind the pupil has grasped the main plan of North America ; the details which follow, numerous as they may be, fall readily into their proper place and round out the concept of the continent. With regard to map drawing, have the children sketch the simple map in the supplement repeatedly until they can draw it readily and accurately from memory. As the best maps in school geographies do not pretend to be more than approximations to the truth of the outline, it is need- less waste of time to insist upon the painful reproduction of sinuosities of the coast line. Construction lines are hard to learn. If the teacher has but the courage to dispense with them, much time will be saved in map drawing and more real power gained. TO ACCOMPANY FRYE'S GEOGRAPHIES 15 Correlation of arithmetic and geography. The correla- tion of geography with spelling and language work has already been insisted upon. It is presumed that this cor- relation will be carried on throughout the whole study of geography, as far as practicable. The correlation of arith- metic with geography is no less important, for geographical facts as to length of great rivers, size of great countries and continents, population of great cities, cannot be learned without constant repetition. Call in the aid of arithmetic and this can be done easily, even in a crowded schedule, by the simple device of framing problems which, while recalling facts in geography, give ample drill in number work ; for example, In how many days could a boy walk from the source of the Missouri to the mouth of the Missis- sippi at the rate of 12 miles per day? The class looks up the length of the Missouri-Mississippi in the supplement and finds it given as 4200 miles. This number is too large for full comprehension, but when, by division, the pupil finds that it would require 350 days, or but 15 days short of a year, to make the journey, he has come much nearer to a proper notion of the length of this, the greatest river (in length) in the world. Vary the rate in successive prob- lems until each member of the class can give the length without hesitation ; then take up a fresh item. To understand these lengths, however, presupposes a definite knowledge of a mile, and this again the knowledge of the lesser units of length. The teacher therefore will see to it that the inch, the foot, the yard, the rod, and the chain are familiar to the pupils by repeated measurements made by themselves. Then with a string measuring 1 chain, or 4 rods, or 66 feet, measure a mile, driving down pegs to mark a quarter, half, and three quarters of a mile. There will now be a definite standard by which distances can be 16 AN OUTLINE FOR TEACHERS really judged. The time taken for this exercise will be well spent. By the scale of miles the pupils will find the length of North America (5700 miles), also the breadth from New York to San Francisco (3000 miles). Give problems similar to the above. Then vary as follows : In how many days could a man travel the length of North America in a railway train, moving at the rate of 30 miles per hour ? It is unnecessary to multiply instances ; the real teacher will catch the idea and develop it, and it is for the real teacher only that these lines are written. With regard to area, let each pupil measure a square inch, square foot, square yard, square rod, and acre. A useful device is to have four pupils measure a square rod and each take his stand at a corner of it, and so on with all the members of the class. A square mile can readily be estimated from the linear mile already measured. Find out how many square miles in your home county. The county superintendent could find out for you from the officials at the county seat. By division find how many times the area of the home county is contained in that of Virginia (42,450 square miles). This area of your home state should be the unit by which the areas of the continents and of other states and countries should be measured. Few know the exact area of their own state, and yet what more interesting or important item of geographical knowledge could there be than this ? How many times is the area of Virginia contained in that of the United States ? in that of North America ? How many acres in Virginia ? in the United States ? in North America ? etc. - Examples in addition, subtraction, multiplication, and division may thus be given as class work, as busy work, or TO ACCOMPANY FRYE'S GEOGRAPHIES 17 as home work, to the great enhancement of the definiteness of the geographical knowledge of the pupil and to the great increase of interest in the number work. The areas of the great river basins as given in the supplement may be treated in like manner, and numerous comparisons may be made between the population of Virginia and those of the various states of the Union and of other countries. Limitations of space forbid further dwelling upon this most important topic. With a general survey of the people of North America, its climate, its plants and animals, the broad view of the continent is completed. If the teacher has comprehended the unity of treatment of the subject by Frye and continu- ally directs the attention of the pupils to it, a vivid picture of North America in its broad and essential features, such as shape, outline, relief, drainage, climate, people, plant and animal life, will be indelibly stamped upon the minds of the pupils. And this is an end well worth, striving for. United States. The relief of the United States is first to be made clear. Notice that Frye emphasizes the natural regions and not the artificial political divisions. Use the relief maps on pages 49 and 50 continuously. The first sen- tence in Lesson 39 states that the Western highland covers one third of the United States. Look at once at the relief map and verify this statement, otherwise it will make but a faint impression. Compare the Eastern highland. How narrow it seems. Compare the length of the Pacific slope with that of the Atlantic slope. How easy it is for the children as they look at this relief map to see that there are but two great rivers on the Pacific slope of the United States, the Colorado and the Columbia, with two smaller ones, the Sacramento and the Joaquin, which drain the valley of California. Strike for the main features first. 18 AN OUTLINE FOR TEACHERS Let them notice the three ranges to the West, — Coast Range, Sierra Nevada and Cascade, and Rockies, with two depressions, the Valley of California and the Great Basin, lying between these ranges. The Great Central plain is divided into Western plateau, prairies, and Southern or Coastal plain, with but one mountain mass, the Ozarks, rising like an island from the lower levels. The Atlantic slope is recognized as a unit, stretching from the Appala- chians to the sea. In all, at this stage, Frye calls ori the pupils to recognize but nine natural regions as a ground plan upon which to work in subsequent lessons. A special chapter is devoted to the Great Lakes and the outlets for their trade by way of the St. Lawrence and the Erie canal. It would be better at this point not to spend too much time in learning the names of states and especially in memorizing their boundaries. Whatever is needed of this work will come later. The large colored map on pages 54-55 is mainly for reference. It may not be amiss to re- peat that the liberal use of the sand table by both teacher and pupils is the most economical way to teach the relief of the United States, as of any other country. The United States being now the unit, the same plan is pursued as in the treatment of North America and of the world as a whole. The relief is followed by a discussion of the people, showing how the physiographic configura- tion of the country influenced its settlement. Climate. The maps of temperature and rainfall deserve the most serious attention. Those who fail to see that Frye gives the cause first and then deduces the effects, will pass these maps by with but a perfunctory glance. The whole succeeding section depends upon the vivid reali- zation of the meaning of these maps. To neglect these and then expect to arouse any interest in the maps of products TO ACCOMPANY FRYE'S GEOGRAPHIES 19 is about as sensible as to throw away the key of your house and then complain that the door won't open. It is to be supposed that the directions for keeping a weather record (page 17) have been followed, and that the children are ready to understand the discussion of rainfall and tem- perature, having themselves made a series of observations on the subject. They will notice that the warmest part of the United States, which is colored deep red, partly, but not entirely, corresponds with the belt of heaviest rainfall. As it has already been developed that vegetation depends upon heat and moisture, they will expect to find cotton which needs a good deal of rainfall as well as a long warm summer in the southern part of the United States. A glance at the map shows that this is so. Corn needs warmth, but not so much as cotton, and also a fair amount of rain ; consequently the area which indicates 20-30 inches of annual rainfall almost exactly corresponds with the map of the corn belt. Forests are seen to match quite closely the area of rain- fall of 20 to 30 inches annually, except for the prairie region southwest of the Great Lakes. As the Rockies and Sierra Nevada and Cascades receive a good deal of rain they are, of course, covered with forest more or less heavily according to the amount of rainfall. The map of hogs matches that of corn, for of course this is their principal food. Lay great stress upon the location of the great cities which have grown up in connection with these great staple crops. Fix the state in which each is found, and especially notice the river on which it lies, if any. Discuss the loca- tion of Chicago and New York in connection with the various crops, and decide which have had most influence on the growth. Trace the water routes between these two. Have each pupil make a sketch map of the United States and 20 AN OUTLINE FOR TEACHERS color according to products, also affixing with glue a few grains of corn or wheat in the appropriate locations. A few such exercises give life and meaning to the maps, so that they are no longer mere blotches of color. Assist this process by a liberal use of the pictures available. If there is a flouring mill available, visit it ; so also with a sawmill or other manufacturing establishment. Use the utmost precautions against possible dangers to pupils from machinery by exercising the strictest supervision yourself and by assigning each younger pupil to the special care of an older schoolmate. Coal. A useful exercise in preparing for a lesson on coal is to visit a swamp and notice the black vegetable mud which has accumulated. Dry some of this and burn it. This will prepare the pupils for the idea that coal is a vegetable product. Locate the principal coal areas of the United States and predict future developments of industry. Iron. Compare maps of coal and iron. Find where they agree, and locate the cities which have sprung up from this fact. Notice how largely the South has been favored with regard to this metal, and deduce consequences. Notice absence of coal from the neighborhood of the rich deposits of iron ore round Lake Superior. Naturally, then, either the iron must be brought to the coal or the coal to the iron. Lead the pupils to imagine the immense traffic which must arise in carrying the iron to the lower lake ports where coal is abundant and cheap. Routes of trade and growth of cities. The two les- sons entitled " Routes of Trade " and " Why Cities Grow " afford an excellent opportunity to review the relief, drain- age, and climate of the United States with especial refer- ence to man and his occupations, which latter have been so largely determined by his environment. TO ACCOMPANY FRYE'S GEOGRAPHIES 21 Dwell upon the road or street -which passes the school- house, proceed to the idea of the nearest railroad, bring in the nearest navigable river or canal known to the children, and compare the cost of transportation on each. Discuss the advantages of good roads. Illustrate by a home example what is meant by a market for produce. Review the great cities, locating them and stating clearly what causes have made them great. The causal idea should never be allowed to drop into the background. It is this idea which dignifies the study of geography and makes it fully the equal of any subject in the school curriculum as a means of training the mind. Frye has shown how this idea is to be developed; it only remains for the teacher to follow his explicit directions. Groups of states. The hints given with regard to the study of the United States apply to that of each separate group. Get a clear mental picture of the position of each group in its relation to the whole country. Fix its relief, its drainage, climate, and products by review of preceding maps. Put questions and let the class have full time to work out the answers. By these means the idea of unity will be maintained. Bounding each separate state and com- mitting these boundaries to memory is a comparatively use- less exercise. Save the time for determining the industries which have arisen, the centers of population where they are practiced, and their influence upon the character of the people. Emphasize the fisheries and manufactures of New England, the mining industries of Pennsylvania, the agri- cultural staples of the South, rather than the comparatively unimportant towns which in so many cases are the capitals of the several states. South America. Follow with this continent exactly the same plan as for North America. Model' the relief and fix the primary highland, unbroken throughout its length, and 22 AN OUTLINE FOR TEACHERS the secondary highland, divided by the low plain of the Amazon into the Guiana, and the Brazilian highlands. Between these note the great Central plain, subdivided into llanos of the Orinoco, selvas of the Amazon, and pampas of the La Plata. To the south is the low wind-swept table-land of Patagonia. These simple features of the relief must be stamped upon the mind of each pupil. Every added detail will then fall readily into its appropriate place. At every point compare with North America, in position, outline, relief, rivers, climate, etc., giving resemblances and differ- ences. Give special object lessons on the cacao and coffee plants, also on rubber. Of the animals, the alpaca enters most largely into our daily lives. Emphasize those points which touch us most, letting the others hold a minor place. The fine illustrations should be minutely studied, used as subjects for composition and frequently reviewed. The figures given in the supplement as to areas, lengths of rivers, etc., will furnish ample material for drill in number work. Europe. Fix the position, outline, area, etc., of this con- tinent. Its somewhat complicated relief calls for a word of elucidation. Note the Pyrenees and Alpine highland, made up of Alps and Balkans, stretching from the Atlantic ocean to the Black sea. This is the backbone of Europe, and must be fully understood by each pupil before another step is taken. It will readily be seen that three great peninsulas stretch southward, — Spain, Italy, and the Balkan peninsula, made up of Turkey and Greece. To the north lies a much lower mass of mountains and plateaus drained by the Rhone, Rhine, and Danube. Locate these and by drill and description impress their names upon the minds of each pupil. All the rest is low plain, except for the outlying ridges of Scandinavia and the British Isles. These four TO ACCOMPANY FRYE'S GEOGRAPHIES 23 regions must be clearly recognized, if. any definite notion of Europe is to be gained. Note the winds which blow in from the Southwest, bringing the warmth of the tropics to moderate the climate of western Europe. Observe the closed basin of the Mediterranean, heated by the summer sun and shut out from the colder waters of the Atlantic. It is therefore like a huge tub of warm water in a room in winter time, keeping everything warm round about it. Trace the effect of the great wall of the primary highlands breaking the force of winds from the north. Compare with North America. Has North America any such wall of mountains running from east to west ? Note how easily the warm southwest winds can sweep in over low Europe, and even over the low mountains lying north of the primary highland. Compare the plants and ani- mals of Europe with those of North America and note the resemblances. British Isles. Special attention should be paid to the British Isles, so closely knit to us by the ties of blood, of history, and of trade connections. Emphasize the position of these islands on the western edge of Europe, well situ- ated for trade both with the continent of Europe and with America to the west, on the other side of the Atlantic. Develop the idea that oceans unite rather than divide nations, when man has once learned the art of navigation. For the rest of Europe follow the text-book. Asia. The relief of Asia will present difficulties unless the plan of the continent is recognized. Locate the chain of mountains running from the end of the Balkans at Con- stantinople, continuously through Turkey in Asia, Persia, and Afghanistan until it rises into the mighty Himalayas, the abode of snow. Thence it runs northeastward through China and Siberia, to Bering strait. This is the backbone 24 AN OUTLINE FOR TEACHERS of Asia. To the south will be seen the three peninsulas of Arabia, India, and Farther India, closely paralleling the three peninsulas of Europe, while to the east lies the lowland of China. The whole center of Asia is occupied by two vast plateaus, a lesser made up of Asia Minor and the plateau of Iran, and a greater composed of the highland of Tibet, the Middle Basin, as Frye terms it, and the desert of Gobi. These two great plateaus are joined by the comparatively narrow neck of the Pamir.. To the north stretches the great northern plain of central Asia and Siberia. The effort necessary to master these principles of the relief will be amply repaid by the clearness of comprehension gained as to Asia as a whole. Without this grasp of the relief Asia will remain a perplexing continent. How simple are now the main facts of the drainage. To the south, the Euphrates and Tigris in their fertile valley; the Indus and Ganges of the broad plains of northern India ; . the Mekong of Farther India; while the great Yangtze, Yellow river, and Amur drain the eastern slope. These eight rivers are all that are necessary to know at this stage. To the north- ward flow the Ob, the Jenesei, and the Lena through the vast plains of Siberia on their way to the Arctic ocean. To the east of the continent lie the great fringing chains of islands, the Philippines and Japan ; while to the south- east lie the great groups of islands of which the most important are Sumatra, Borneo, and Java. This is the plan of Asia, not too difficult for pupils trained to the intelligent use of relief maps by the study of North America, South America, and Europe. Practically the stress of study in this continent lies upon India, China, and Japan, three countries in which a high grade of civilization has been reached. TO ACCOMPANY FRYE'S GEOGRAPHIES 25 For the rest, the suggestions already given apply to Asia and need not be repeated. Africa. One glance at Africa will show that it is a great plateau with the primary highlands near the eastern coast and with the secondary highlands along most of the west- ern. Its rivers, the Nile, Niger, Kongo, and Orange, drain directly or indirectly into the Atlantic. The Zambezi alone runs into the Indian ocean after a course to the east. Locate the two great deserts, Sahara to the north and Kalahari to the south, with the vast forest region of the Kongo, flanked by grassy plains on either side, occupying the space between. These plateaus and deserts joined to the unbroken outline explain why Africa has lagged so far behind in civilization. Egypt, the gift of the Nile, alone has an ancient civilization and history. Especially dwell upon the Nile, from its sources in the great equatorial lakes and in the highlands of Abyssinia to its mouth in the rich delta. Tell about its annual over- flow and the rich crops produced. The Pyramids will illus- trate the ancient civilization of Egypt. Australia. Of this continent little need be said. Un- broken in outline, surrounded by mountain ranges near the sea, with a vast desert taking up most of the interior, Australia is the least inviting of all the continents as the home of man. The chief interest for the pupils will lie in the strange plants and animals of this continent and in the fact that a branch of the Anglo-Saxon race has occupied it and is subduing large portions of it for its use. Conclusion. When the study of Frye's " First Course in Geography " is completed, the pupil should have a fair knowledge of the world as a unit in its arrangement of continents and oceans, its climatic conditions as a whole, its plant and animal life, including the races of mankind. 26 AN OUTLINE FOR TEACHERS Its continents should be clearly in mind as to their sim- ple features of relief and drainage, products of the soil, and occupations of inhabitants. Lastly, the political sub- divisions are touched upon sufficiently. If the pupil leaves school without pursuing the study of geography further, he has at least a complete framework into which may be built the added items which will be furnished him by life's experiences and by the reading of books, newspapers, and periodicals. NOTES ON FRYE'S HIGHER GEOGRAPHY It will not be necessary to repeat the hints and elucida- tions given in the notes on Frye's " First Course." It will suffice to touch on those points which admit of more elabo- rate treatment on account of the greater age of the pupils. Soil formation. If possible study a ledge exposed in a railroad cut or alongside of a road. Notice the cracks that run both horizontally and vertically, breaking the rock up into more or less uniform blocks. Question on probable cause of these cracks. Has it anything to do with the cool- ing and consequent contraction of the earth ? Imagine a cold rain falling on these rocks in winter. Will all the water run off ? No ; some will soak into the cracks. If the cold continues, what will happen to the water ? If it freezes, what change will take place in the water ? Is a block of ice larger or smaller than the water from which it was made ? Why do you think it is larger ? Review the whole question of expansion of water in freezing. But how can the small amount of water in a little crevice move, by its expansion in freezing, so large a block of stone ? Tell the class that a huge iron bombshell was filled with water, the hole plugged TO ACCOMPANY FRYE'S CxEOGRAPHIES 27 securely, and the shell then exposed to the cold of a winter's night. When the water froze, the shell was split in two. If these blocks are pushed apart by the expansion of freez- ing water in the crevices, it is easy to see that they will in time be forced from their resting place, and if on the face of a cliff, be dashed to pieces by their fall. Fragments of rock thus broken up by frost find them- selves at last in the bed of the stream, which generally is found at the foot of the cliff. Here they are ground against each other in times of flood. So important is the work of running water in grinding up rock to make soil, thac special attention must be paid to this point. Have the boys knock two angular pieces of rock together and note how soon the angles are worn off. Tell them that ten miles in a moun- tain torrent will round off all the sharp corners in a cubical block of granite. Further, that marbles are made by plac- ing cubes of stone in a revolving drum with water. In a very short time they are turned out as perfect spheres. The corners worn off in these instances are now soil, which is finely divided rock. Put a stone or brick in a pail of water. Notice how much lighter it seems in the water than in the air. Test this definitely with a balance. About one half the weight will appear to be gone. The water buoys up the stone. Con- sequently a stream can move along twice as large a stone as~ one would expect, and, in moving it, grind it to powder. The paragraph as to wind-blown grains of sand will be more striking if the teacher refers to the picture on page 29, of a desert rock worn smooth and round by blowing sand. The grains worn off by the drifting sand are, of course, soil. Search everywhere along the pavements and old walls for examples of grasses and little shrubs which have found a lodgment. Carefully root out these plants and notice how 28 AN OUTLINE FOR TEACHERS surprising a mat of roots has formed in the crack. Observe places where the roots of trees have upturned the pave- ment. These illustrations help to make clear the disruptive power of growing roots. Study some old moss-grown stump which can be easily torn to pieces. After such an illustration the pupils will readily admit that decayed wood makes soil. Pay particular attention to ant-hills and question as to the effect of these on the soil. Lead the children to see that the ants bring up the cold, dead subsoil and expose it to the sunlight and air, which soon make it fit for the use of plants. Examine the layers of soil on the side of a ditch. Notice the dark top layers full of vegetable matter and trace the roots as far down as possible. Plains. Search for examples of the different kinds of plain spoken of in Lesson 6. Flood plains a few inches broad formed in a plowed field after a heavy rain will serve as a basis for study. Note the terraces formed along their sides, marking the various stages of flood. Look into the quality of the soil. Compare with the upland. Note how much easier it would be to make a road along a stream where a grade has already been formed than elsewhere. Search for a little lake after a rain in the schoolyard. Observe how it dries up when the sun comes out, leaving a little level plain of fine, rather dark soil, compared with the coarser slopes round about. One glance will make real the advantages of a lake plain for farmers seeking homes. Be sure and locate a delta, if it is only an inch in length. All the characteristic features of a delta may be seen in some such tiny example. As for plateaus, they are to be seen everywhere that the rain water has washed down part of the surface, leaving the harder portions to maintain the old level. TO ACCOMPANY FRYE'S GEOGRAPHIES 29 Study the picture at the top of page 9 of deep valleys cut in a plateau. Note the layers of rock, almost perfectly horizontal on either side of the deep valley. Those layers were once continuous and there was no valley there. What has made the valley ? (The stream, now so deep down in the canyon that it cannot be seen.) Observe the broken masses of rock on the slopes, dislodged by the frost and gradually moving down the steep slopes, finally to reach the stream where it is rapidly ground to soil. Discuss the question of traveling in such a region. Encourage any effort at originality of thought on the part of the pupils ; it is, unfortunately, only too rare a phenomenon. Do not laugh at a thought, no matter how crudely expressed. Its very imperfections may throw light on defects in your past teaching. Mountains. No less important than the plains are the mountains. Let the children thoroughly grasp the idea that the surface of the earth which seems so fixed is really over great areas going up or going down. By using the illustration of the familiar seesaw, let the children see for themselves that if one end of a long slope sinks, as in the case of the ocean bed, the other end must go up, as in the case of the mountain chains which skirt the oceans. Place a long strip of thin wood on a table. Hold one end firmly on the table and have a boy bend down the other end until at length a snap is heard ; the wood breaks, a thrill runs through the wood and jars the hands of those holding the strip, while the even slope is broken by jagged edges where the wood is fractured. The strip on the table would represent the unyielding mass of the continent. The long strip would be the slope reaching far out beyond the coast line to the depths of the ocean. If this sinks the strain becomes too great, —there is a break and a jar of 30 AN OUTLINE FOR TEACHERS the earth's surface at the break. This is the earthquake. The broken edges rise little by little through repeated earthquake shocks continued through great stretches of time with long intervals of repose, until at last a mountain chain is formed. Hammer at the idea that mountain chains were slowly formed in the past and are being slowly formed in the present. Study those most instructive pictures, (A) and (B), at the foot of page 9. Model just such even blocks on the sand table, and by dropping water on them from above, wear them away till they look like (Z>). Then turn, say, to the scene in the Alps on page 145, or to the picture of the Andes on page 144. If some bright pupil sees that these ranges were uplifted as masses with even edges along the line of a great crack in the earth's surface, and that these even edges were worn away by the frosts and rains of ages until they rise in jagged peaks, then you may be sure that your work has been well done. What one bright pupil sees to-day all will see to-morrow, and what they see for them- selves will remain as part of the permanent equipment of their minds. Tides. The simple statement that tides are caused by the attraction of the moon may satisfy most pupils at this stage. If some ask further light on the subject, I would suggest the following procedure. Call up the smallest pupil in the room and clasp his hands with yours. Swing him round you at arm's length. The class will soon see that though you pull him round you in a circle, yet he also pulls you, but not to the same extent. The idea may then be presented that the earth pulls the moon and the moon pulls the earth just as really, though we cannot see any visible connection between the two. As the earth is larger than the moon, its pull is so much greater that the moon circles round it once TO ACCOMPANY FRYE'S GEOGRAPHIES 31 a month, just as the little pupil went flying round the teacher in a circle. So much for the pull of the earth on the moon.- But the moon also pulls the earth. Being so much smaller, it does not pull the earth enough to make it circle round it, but can pull enough to make the waters, which are freer to move than the solid earth, bulge up a couple of feet on the side toward the moon. As the earth turns round once in twenty-four hours, it will be seen that the bulge which is (theoretically) always directly under the moon must travel round the earth in twenty-four hours. . As to the high tide on the other side of the earth at the same time, explain that the moon pulls the whole earth a little towards itself. Of course it pulls the side of the solid earth which is nearest more than it does the water on the other side, eight thousand miles farther away. Conse- quently the solid earth is pulled away from the water on the farther side, which is left behind as a high tide. Shore forms. Study the picture on page 13, " Sea Cliff and Beach." How did the bowlders at the foot of the cliff come to be there ? (Dislodged by frost from the face of the cliff.) Imagine a storm with waves dashing furiously against the cliff. What will the waves do with the bowlders ? Will the bowlders weigh as much when covered with water as before ? Recall previous experiment. If these bowlders are flung against the cliff by the storm waves,, what will be the effect upon the face of the cliff ? What upon the bowlder ? What becomes of the material ground off both cliff and bowlder ? Look at the picture of " Bar and Lagoon," just above, for your answer. Rising and sinking coasts. Notice carefully the maps at the foot of page 12. The upraised region to the left has been gullied by running water and the eroded material washed down into the bordering sea, gradually filling it up 32 AN OUTLINE FOR TEACHERS and making a low coastal plain. Imagine this whole coast to sink, and notice how the low coastal plain would first be covered, and then the valleys which had been cut out of the plateau region would be flooded, leaving the ridges between still above the waters. The importance of under- standing these maps will be realized when we consider that the map on the left represents the coast of our south- ern states, which is a rising coast, while the sinking coast, or that to the right, is a representation of the New England coast on the Atlantic, or of the Pacific coast from Puget sound northwards. Restrictions of space forbid dwelling upon each topic. Let it suffice to say that each picture has its definite meaning and was put into the book for the purpose of teaching a definite lesson. Study the lesson in the text yourself beforehand. Ask yourself what paragraph of the lesson each picture illus- trates ; train yourself to answer all possible questions as to the meaning of each picture. The vigor which comes from thorough preparation will be felt in your handling of the lesson. This closes the discussion of home geography in the "Higher Geography." Next, as in the " First Course," the world is treated as a unit with regard to its land and water masses. The area of the surface of the globe, its land area, and its water area are essential items and should be memorized, or, better, impressed by repeated problems in number. Continents and oceans. The essential point in Lesson 11 is that the continents are massed round the north pole and diverge southward. Dwell upon the long,, narrow Atlantic with its northern prolongation, the Arctic, and trace all the great slopes which send the great rivers of the world, with few exceptions, to this ocean. Lead the pupils TO ACCOMPANY FRYE'S GEOGRAPHIES 33 to see that this ocean is an easily accessible highway for trade, abounding in bays, gulfs, and peninsulas, not too broad for.the ships of earlier days, which unites, not divides, the greater part of five great continents. Trace the great chain of high ridges which stretches from Cape Horn through the Andes and Rockies, down through the mountains of China, India, and western Asia, and on through the whole length of Africa to the cape of Good Hope. This is the primary highland of the world, or world ridge. From it the land slopes either to the Atlantic in a long slope or to the Pacific in a short slope. The advantage in clearness of conception which is gained by the mastery of this idea makes it worth careful tracing on the relief map and modeling on the sand table. The division of the earth's surface into land hemisphere and water hemisphere, introduced in the "Higher Geog- raphy," is of the highest importance in connection with discussions of winds, currents, and climate in general. General view of the continents. Eef er to notes on " First Course" on this point. The idea is the same, to give a comprehensive view of the continents as parts of the whole before their detailed study is taken up. Latitude and longitude. It may aid in the comprehen- sion of the fact that every circle is divided into 360° to tell the class a little of the history of this. Find the Euphrates and Tigris. Tell the pupils of the broad, level, fertile plains where the civilization of the Babylonians grew up. There the priests took their nightly stand upon towers raised above the green plain to study the motions of the heavenly bodies which they worshiped. It was difficult to note with exactness the points of ris- ing and setting of these heavenly bodies until the priests 34 AN OUTLINE FOR TEACHERS thought of setting up a ring of tall poles at some distance from each watchtower. The number of poles was set at 360 because this number had a greater number of divisors without remainder than any other number of practical size. Find its divisors and you will be surprised to see how many there are. This gives a great number of convenient fractional parts. But the spaces between the poles were still too large, so they subdivided these into 60 divisions, which we call minutes, and these again into still another -60 subdivisions, which we call seconds. Can you see why the number 60 was chosen ? Also, can you guess from what source we got our minutes and seconds on our clocks and watches ? It gives one a vivid sense of the dependence of the pres- ent upon the past to realize that whenever we measure a circle or look at a timepiece we are acknowledging our in- debtedness to the people of an Asian valley, of a period at least 3000 years before Christ. Let the children take any sphere, as a baseball, and locate upon it with chalk the poles, with the equator half- way between these poles, and as many other circles parallel to the equator as they can conveniently draw upon its surface. This will give them a practical idea of what is meant by parallels of latitude. Are all parallels of latitude of equal length ? Which is the longest of all ? How long is it ? How far apart are the parallels on the surface of the earth ? What is our latitude ? To give some reality to meridians of longitude, take the class out into the schoolyard exactly at twelve o'clock. Show the pupils that the sun is exactly south from where they are standing, and that a line from the north pole to the south pole, passing through the place where they TO ACCOMPANY FRYE'S GEOGRAPHIES 35 are at twelve o'clock exactly, would also pass through all the places on the globe that are having their noon at the same minute. As meridian means "middle of the day/' a definite signification is at once attached to this term. Draw up the class in a line extending east and west. Let each pupil imagine a line drawn from the north pole to the south pole, passing through his body. Each such line is a meridian. For convenience we select a prime meridian and count from it. The subject of longitude and time in arithmetic should be studied at this time, the arithmetical problems helping to clear up the geographical idea. Change of seasons. Frye states clearly that the three causes of change of seasons are the slanting of the earth's axis, the constant pointing of this axis to the north star (approximately), and the revolution of the earth in its orbit round the sun. To the admirable discussion of the subject in Lesson 19 let me add a word or two as to its presenta- tion. Set a candle or lamp on a stand in the middle of the room or of the platform. This will represent the sun. Eoll a ball on this stand round the candle, marking its circular path with chalk. The class will readily agree to calling this circular path the orbit in which the ball representing the earth has moved. Tell them that a plane is a level surface and they will iden- tify the surface of the stand as "the plane of the earth's orbit." Ask them to imagine the table suddenly to become invisible while the ball still keeps on its way, and they have taken an important step towards the comprehension of the terms orbit and plane, as applied to the earth. This is the initial step. Next, mark the north and south poles on as large a sphere as you can get hold of, and place it on the table on the orbit chalked out, so that its axis is 36 AN OUTLINE FOR TEACHERS perpendicular to the plane of the orbit. Develop the mean- ing of these words, axis and perpendicular. Holding the ball perfectly still, ask the class to tell how much of the surface is lighted by the candle. They will see that one half is lighted, or has day, while the other half is unlighted, or has night. Rotate the ball slowly till the class sees that the rotation of the earth on its axis is the cause of day and night. Question them until they see for themselves that if the earth merely rotated on its axis, there would be no change of seasons. Then carry the sphere round the lamp to represent the revolution of the earth in its orbit round the sun, carefully keeping the axis perpendicular to the plane of the orbit. It will be seen at once that the rays of light are perpen- dicular to the earth's surface at the equator and just reach to either pole. Further, that there is no change from day to day, throughout the entire revolution, in the amount of heat and light received at any given place, and consequently no change of seasons. Clearly, we have demonstrated that revolution in the orbit with the axis perpendicular to the plane of the orbit will not produce change of seasons. Now incline the axis 23i° from the perpendicular and repeat the revolution. The north pole will now be seen alternately inclined toward the light during one half of the revolution and turned from it for the other half. The class is now ready to admit that to have change of seasons not only must the earth revolve in its orbit, but it must also have its axis inclined 23^° from the perpen- dicular to the plane of its orbit. But this is not quite enough. Repeat what you have just done, but now let the north pole point, as you cause the sphere to revolve, to all points of the compass in succession. How apparent is it now that the north pole must always point to the same TO ACCOMPANY FRYE'S GEOCxRAPHIES 37 point in the sky to insure a regular change of seasons. The equal importance of all these three causes of the change of seasons will thus have been practically demonstrated. Repeat the demonstration. If some members of the class "don't see it yet/' have them perform the demonstration. Some such practical demonstration must be made if any real impression is to be made on the pupils. Memorizing the words of the text will be worse than useless. Make observations on the apparent path of the sun, the moon, and the planets. The fact will soon be noticed that they all move in much the same belt of sky. Later they will get the idea that the orbit of the earth lies in this same belt. Fig. 1 and Fig. 2 on page 24 on parallel rays of light falling on the globe are worthy of the closest attention. Verify by measurement the spaces covered by the parallel rays in Fig. 1. The enormous size of the sun should be realized. It is more than one million times greater than the earth. The following is the best illustration I have ever met with. At a distance of one thousand feet from the schoolhouse imagine a white-hot ball, nine feet in diameter, for the sun. In the schoolroom place a ball one inch in diameter for the earth. Two and one half feet from this put a ball one quarter inch in diameter (a pea) for the moon. Some idea is thus given of the insignificance of the earth as compared with the sun, and the pupils will realize that the rays from the huge sun must fall parallel upon the tiny earth, and that the apparent slant is due to the curvature of the earth. Remember what was said as to observations at the equinoxes and solstices in the "First Course." Repeat these observations as occasion arises. By their aid the position of the vertical sun at any day of the year can be readily imagined and the zones explained. 38 AN OUTLINE FOR TEACHERS Winds and rainfall. The idea of the earth as a unit is consistently maintained in the discussion of the winds and rains as world-wide factors of climate. The map of the winds at the foot of page 30 is the key to the understand- ing of this great subject. This map should be drawn on the blackboard and then sketched by each pupil until the main facts are firmly fixed. Note the northeast trade winds (dry) meeting at the equator the southeast trade winds (also dry) to form the belt of rising winds accompanied by heavy rains, known as the equatorial rainbelt. Then note that from about Lat. 30° N. the winds are southwesterly and rainy, while from about 30° S. the northwesterly rainy winds prevail. Disregard the polar winds ; they are neither well understood nor practically important, but the world-wide view of the tropical and temperate winds is to be learned thoroughly. Locate the equatorial rain belt, the trade winds, and the stormy westerlies on the continents from page 15 on. With this simple plan well in mind, let the class attack the upper map on page 31. Carefully trace the equatorial rain belt of the northern summer; notice that while over Central America and Africa it is distinctly south of the tropic of Cancer, yet over India and China it lies decidedly north of this line till it returns with an abrupt curve to the equator. Observe that the southeast trades blow across the equator towards this rain belt, bending toward the right after they have crossed the equator. This equa- torial rain belt is the belt of greatest heat and is north of the equator, — an important fact. The northeast trade winds can be traced along three quarters of the northern hemisphere, but fail over southern and southeastern Asia in the monsoon belt. Note this exception, but do not try to explain it at this stage. TO ACCOMPANY FRYE'S GEOGRAPHIES 39 Now question on the map. In what direction does the wind blow during the northern summer over southern Cali- fornia and northern Mexico? (From the northeast and over the land.) Is it a wet or dry wind ? (Dry.) What about the summer winds over the Mississippi basin, north of the gulf of Mexico ? They blow from the southeast, turning off to the northeast. How do the winds blow over southern Europe, northern Africa, and southwestern Asia ? (From the northeast, mainly over land ; and therefore dry.) What about southern and southeastern Asia? (The winds are from the ocean and consequently bring rain.) The class is now ready for the generalization that south- ward from about 35° north latitude the ivestern portions of the northern continents have a dry summer, while the cor- responding eastern portions have summer rains or are mon- soon regions-, — one in Asia known by this name and the other, less marked, in the eastern half of the United States where we live. North of this line of 35° north latitude note the prevailing southwesterlies and summer rains. These hints are not meant to take the place of anything said in the text. They presuppose the use of every word there set down, and merely dwell with emphasis on the important points. Now have the pupils look south of the equator on the same map. Note the dry southeast trades from Capricorn to the north, except where the mountains of Brazil, or eastern Africa, or of the islands between Aus- tralia and Asia cool the wind by sending it upward and so cause rain to fall. Notice further that from the tropic of Capricorn southward the winds are from the southwest, giving rain to the western coast of South America but missing South Africa and Australia, which are dry at this time, which is our summer but their winter. The extreme southerly points of South Africa and Australia, however, 40 AN OUTLINE FOR TEACHERS just come within the belt of these winter rains, so their winters are rainy. Now take up the map of winds and rains of the northern winter. The equatorial rain belt, which, as said above, is also the belt of greatest heat, is now mainly south of the equator. Over Mexico and north Africa the winds are still from the northeast and dry. These regions are therefore desert, as they get rain neither in the winter nor the sum- mer. Over southeast Asia the monsoons are from the north- east and from the land ; consequently the winter is dry, with slight exceptions to be noticed later. Southern California, southern Europe, and southwestern Asia, however, together with the regions north of them, are in the path of the south- westerlies and have winter rains. To sum up, then, the northern parts of North America and Europe have rains both winter and summer, while their southern regions have a dry summer and a wet winter. The southeastern parts of both North America and Asia come under a region of mon- soons caused by the heated interior of the continents, and have summer rains, and, in the case of southeast Asia, a dry winter. The gulf of Mexico is mainly responsible for the winter rains of the eastern half of the United States. In the southern hemisphere during our winter, which is their summer, the equatorial rain belt gives abundant mois- ture to northern Australia, the Kongo basin in Africa, and the Brazilian highlands, together with part of the Amazon and La Plata basins. All south of this belt is in the region of southeast trades and is dry, except where mountain ranges condense the moisture into rain. The extreme south- ern part of South America alone stretches into the belt of northwesterlies, and consequently has rain during their summer, as also during their winter. The great westerly winds, known as the " Roaring Forties," will be noticed TO ACCOMPANY FRYE'S GEOGRAPHIES 41 blowing round and round the southern hemisphere unhin- dered by opposing lands, raising huge waves, forty feet in height, — the highest in the world. " Make haste slowly " should be the guiding principle in teaching all this section of Frye's Geography. Point to a coast on a wall map of the world, and have the class from inspection of the maps in their text-books decide what winds and rains, if any, are due there both in summer and winter. Do not try to memorize a single statement. Each fact must be clearly demonstrated on the map repeatedly before it is safe to discard this help and rely on the mental pic- ture. But when the imagination is so well developed that the pupils in their minds can see the continents in their proper outlines and can feel the winds blow over them in due order, then the work has been done and well done. For those who never reach the high school much good will result from gaining so clear an idea of the wind belts of the world, and those who do go on will find the study of physical geography there awaiting them an interesting expansion of ideas already familiar. Ocean currents. Cause and effect may be studied in the map of ocean currents on page 32. Under the trade winds as a propelling force flow the equatorial currents from east to west, turned by the continents to the north and south respectively, and then carried on to the northeast in the northern hemisphere by the southwesterly winds and to the southeast in the southern hemisphere by the northwest- erlies. The great Antarctic eddy to the south will be seen to owe its eastward motion through the open expanse of ocean to the " Roaring Forties " referred to above. The effect of these currents upon the winds which blow over them and consequently upon the lands visited by these winds should be carefully traced. 42 AN OUTLINE FOR TEACHERS The unity of treatment is still farther carried out in the lessons on Races of Mankind, Religions, and Governments, but the remarks already made in regard to these topics in the "First Course" need not be repeated. Plants and animals. The greater fullness and richness both of description and illustration make these lessons fascinating to those who review these topics, already treated in the "First Course." Draw special attention to the map of the principal plant and animal regions on page «43 and locate the plants and animals under the regions there given : Northern, including most of North America, all Europe, north Africa, and most of Asia; South American, includ- ing Central America and southern Mexico ; African ; Qrien- tal ; and Australian. Draw attention to the boundaries of these regions : the Australian region separated by a deep channel through the islands, which from the earliest times has cut off this continent and its adjacent islands from contact with the higher and fiercer life of. Asia ; the Orien- tal, separated from the rest of Asia by the impassable bar- rier of the towering, snow-clad Himalayas ; the African, cut off by the barren desert of Sahara from north Africa ; the South American, but recently joined to North America by the rise of Central America and therefore still preserv- ing its individuality ; and lastly, the northern, showing a connection existing in former days between north Africa, Europe, and North America. Object lessons should be given on the spices and other foreign products, while the plants and animals of our own state should receive special attention. The principal stress should always be laid upon those plants and animals which are useful to man ; the merely curious should receive less attention. Use the illustrations to the full for oral and written language work. As far as possible develop the idea that the plant or animal TO ACCOMPANY FRYE'S GEOGRAPHIES 43 is adapted to its environment. The stripes of the tiger, so conspicuous when he is seen in a cage, match the stems of the bamboo in his native home so closely that he can with difficulty be detected even at close range. That means that he can steal upon his prey without being seen. The shaggy yak can stand the cold of high altitudes in the central Asian mountains, while his great feet, clumsy as they seem, are admirably adapted for safely climbing dangerous moun- tain paths (see picture on page 162). The giraffe lives on leaves of trees on the edge of the desert. Hence his neck is long, but so little flexible that only with the utmost difficulty can he pick up objects from the ground. The trees on which the giraffe lives are defended by dreadful thorns ; hence the giraffe is provided with a long, flexible tongue which delicately picks off the leaves without touch- ing the thorns. The polar bear is white, so that he can creep up unnoticed on the seal asleep on the ice floes. The spots on the leopard are like the patches of sunlight streaming through the spaces between the leaves of the tree, on the branch of which he crouches waiting for his victim. Sometimes an interesting connection can be traced between the plant and animal life of a region. In the short, bright summers of the Arctic regions millions of birds resort thither, make their nests, and hatch out their young. All about them the ground is covered with the flowers of the berries which grow there in countless num- bers. But just about the time the berries are ripe the birds have finished their summer task and are ready with their young, now fit for flight, to depart for the South. What do they live on in the meantime ? The answer is simple. No sooner are the berries ripe than down comes the early snow, and the berries, preserved in cold storage throughout the winter, are ready for use by the birds as the snow melts 44 AN OUTLINE FOR TEACHERS in the beginning of the following summer. These are but hints of the many interesting relations between life and its surroundings which the teacher may work out. Minerals. Get together as many specimens of minerals as possible. Each will be the text for a discussion. Assign topics for the children to work up at home. This will enlist the interest of the parents. If there are any iron works near by, visit them. A visit to a blacksmith's forge may prove very serviceable as a text on which to base the con- sideration of iron. Black mud from a swamp will help in the comprehension of coal formation. Get the boys to make charcoal by covering a little pile of sticks with turf and setting it on fire within. They may not succeed in making very good charcoal, but- they certainly will be interested in the process. Enlist their activities. I have made the formation of petroleum quite intelligi- ble and interesting by comparing it with a pot of soup on the kitchen stove. The meat and vegetables are the plant and animal remains buried in the layers of rock ages ago when they were soft. The pot and its lid are the layers of rock above and below the layers containing the remains. The tire in the stove is the heat of the earth, which is greater the farther down we go. Lastly, the petroleum, which is what we are after, is the fatty scum which rises to the top of the soup as it simmers on the stove. We need only take off the lid and skim off the fat, or, in other words, bore down through the overlying rocks until we reach the oil which has been cooked for ages out of the plant and animal remains. Highways of trade. Take for your text the nearest grocery or general store. Find out from what parts of the world the various articles came which are to be found on its TO ACCOMPANY FRYE'S GEOGRAPHIES 45 shelves. Discuss the hauling of these goods along the road from the nearest railway station or steamboat landing. That leads to the great distributing centers, generally seaports. Then treat of the ships or steamships which have brought the goods from all parts of the earth. This course of treat- ment makes real the whole subject of commerce. Canals should also be discussed as supplementing the work of the rivers in transporting goods. Referring to the map of the continents on page 14, it will be easily seen that it is of the utmost importance for the nations living on the Atlantic to find easy ways of getting into the great Pacific. The way round by the cape of Good Hope naturally presents itself, but a shorter way is through the Mediterranean and by means of the Suez canal into the Red sea, which connects with the Indian ocean, an extension of the Pacific. In the opposite direction a voyage round cape Horn brings ships into the Pacific. To shorten the distance the United States is digging a canal across the isthmus of Panama. There is another way. Let the class examine the map on page 14 to find it. Some one will notice the way to the north across the Arctic and out Bering strait. What is the fatal objection to this passage ? Tell the class something of the heroic sailors who strove to find a way round North America and Asia. Just here a short lesson can be given on the Mediterra- nean, the seat of the commerce of antiquity, lying between Europe, Africa, and western Asia. From it commerce crept across the isthmus of Suez, transporting goods on camels, then taking ship again on the Eed sea for the Ear East, or else moved through the straits of Gibraltar and round the western coast of Europe to the Baltic, or down the western shore of Africa for some little distance. 46 AN OUTLINE FOR TEACHERS Now have the children look between North and South America. Is there a mediterranean sea there ? What are its parts called ? Compare the Mediterranean as seen on the Commercial Map of the World, on page 190, with our mediterranean and note that each is made up of two dis- tinct parts with a great and fertile island at the narrowest portion of the junction of these parts. Find the name of the island in each case. Measure each and compare dimensions. They are nearly alike. Discuss the commercial possibilities of our mediterranean. Look for another mediterranean between Asia and Australia. Do you find it ? Is it like the other two, or different ? In what way ? What products come to us from this mediterranean ? Find them on the map on page 190 and look up the illustrations given on page 45. This lesson will do much to confirm the impres- sion already given of the earth as a unit. North America. As in the " First Course," review North America as regards position, outline, area, relief, drainage, climate, races of man, government, plant and animal life. These points need not be fully treated here. With regard to outline, the class would be advanced enough for such a topic as the following : Which part of the coast line is more broken, the northern or southern portions of both eastern and western coasts ? What about the northern coast bor- dering on the Arctic ? How shall we explain the differ- ence between the even southern lines of coast and the deeply indented northern shores ? Tell the children that ages ago the northern half of North America was much higher than now and consequently much colder. The snow accumulated and became packed into vast fields of ice cov- ering the whole continent down as far as New York and then westward down the line of the Ohio, up the Missouri, and out to Puget sound. Turn to page 10 and review what TO ACCOMPANY FRYE'S GEOGRAPHIES 47 is said of glacier action in the light" of this idea, especially studying the pictures. The glaciers riding over both hills and valleys of the older time rounded off the hills, as shown in the picture on page 10, and deepened the valleys. After ages of this the ice melted, the land sank, and the waters of the ocean flooded the valleys, leaving the ridges between as islands or promontories. The numerous islands in the Arctic to- gether with Hudson bay are thus explained in great meas- ure. A picture of such a drowned valley is to be seen on page 13, and another on page 19. The teacher must study the illustrations throughout the book so as to be ready to use exactly the right ones on occasion. The pupils will be highly interested in the fact that Long Island is nothing but a mass of loose rock and gravel together with soil brought down by an ancient glacier and left at its edge when it melted, as shown in the picture on page 10. Marthas Vineyard, Nantucket, and Cape Cod are also moraines, as they are called. Cape Ann, on the other hand, is a mass of ancient rock which the ice was unable to wear away. The map of New England on page 91 shows Nantucket Shoals. These were formerly part of Nantucket, but the ceaseless dash of the sea waves has worn away a large part of the island and is still wear- ing it away. The class will learn with interest that New- foundland was once joined to Canada, the St. Lawrence flowing through the lowlands between Newfoundland and Nova Scotia. The sinking of the land submerged these lowlands and allowed the sea to back up as far as Montreal, making this city a fine deep-water harbor, accessible to the largest ocean steamers. In like manner, for about 100 miles off the coast of New England and New York the land sank and. the ocean 48 AN OUTLINE FOR TEACHERS backed into the valley of the Hudson, making the harbor of New York what it is and giving depth and breadth to the Hudson, which would otherwise have been but a small, insignificant river. The Pacific coast from Puget sound up will now, on inspection, teach its own lesson to the class. Correlation of geography and arithmetic. To the use of the four primary processes in arithmetic in connection with areas, etc., may now be added drill in fractions and percentage. The length of North America is 5700 miles, the breadth from New York to San Francisco 3000 miles. What fraction is the breadth of the length ? ao oo _ |o _ io, What per cent is this ? io of io T o\) = iooo = 52i f €f Q . What fraction is the length of the Rio Grande of that of the ' Missouri-Mississippi ? \%%% = if = f. What per cent is this ? 3 f J_0_0 = 3 oo = 426 of . This idea admits of wide application and will be found to give precision to the geography and interest to the arithmetic lessons. It will be unnecessary to go over the lessons dealing with the United States in detail, the plan being the same as in the "First Course." The space thus saved may be devoted to correlating geography and history. Correlation of geography and history. Study the Relief Map of the United States on pages 68-69 together with the key on page 70. Between the Allegheny and Blue ridge will be seen the Great Valley, drained in the south by the Tennessee and its tributaries, and farther north by the Shenandoah, and traversed from west to east by the James, Potomac, Susquehanna, Delaware, and Hudson. This Great Valley is continued up the Hudson, passes over a low divide into lake George, then into the long, narrow TO ACCOMPANY FRYE'S GEOGRAPHIES 49 cleft of lake Champlain (see picture on page 88), and so down the Richelieu to unite with the valley of the St. Law- rence. The valley of the Richelieu, lake Champlain, and lake George form a deep pass flanked by the Green mountains on the east and the Adirondacks on the west. This is the gate- way of Canada and has played a most important part in American history from the earliest days of the French in Canada until the closing scenes of the War of 1812. Through it passed Champlain on the voyage of discovery which gave the lake his name. On its waters he and his party of Indians -met and defeated the Iroquois, and thus early in the day began that undying hostility of the power- ful Six Nations to the French, which effectually shielded the infant English colonies from the French advance. Through it passed the French and Indian scalping parties who attacked the outlying settlements of the English. Later the French built the strong fort, Ticonderoga, as guardian of the passageway between lake George and lake Champlain, and a bloody repulse which Amherst suf- fered before its walls taught the English to- respect its strength. Still later it fell, but only in the last days of the great struggle between the rivals for the dominion over North America. When the Revolutionary War broke out the British planned a masterly campaign. Clinton held New York for the ~ British with a strong force. Burgoyne with 10,000 men moved down through the gateway of Canada, while St. Leger with a sufficient body of troops moved from the shores of lake Ontario along the Mohawk River valley to join him. But the well-laid plan failed utterly. Howe was absent in Philadelphia, and held that place as if it really meant something to occupy the capital of the young confederation. 50 AN OUTLINE FOR TEACHERS Things were most critical for the Americans, for posses- sion of the Hudson river by the English would effectually cut off the New Englanders from their brethren to the south by land, and the English at all times during the war, except for the fatal period of Yorktown, held command of the sea. But the strength of the American defenses at the high- lands of the Hudson, where the narrow river runs between steep heights, effectually stopped the British ships from passing. The picture on page 92 shows where the continu- ation of the Blue ridge crosses the line of the Hudson, which has worn a deep gorge through the ancient moun- tains. Washington had early seen the supreme importance of this gorge in the Hudson and had fortified it strongly. Now by masterly stratagems and feigned movements he paralyzed two English armies, Clinton's at New York and Howe's at Philadelphia, keeping each in expectation of instant attack. In the meantime St. Leger, delayed by Herkimer at Oriskany, had been outwitted by Arnold and frightened into retreat. Burgoyne, who had lost a regi- ment at Bennington, was hemmed in at Saratoga and, cowed by the fierceness of Arnold's attacks, surrendered. Twenty-four hours too late Clinton moved forward to his support. Independence was virtually won the day Bur- goyne surrendered, and the Great Valley at its northern end was the scene of the campaign. In the War of 1812 a strong British army, supported by a powerful flotilla on lake Champlain, marched through this same gateway of Canada. A splendid victory won by Macdonough at Plattsburg annihilated the British flotilla, and the army hastily retreated. This brief outline indicates how essential to the com- prehension of history is a clear grasp of the physical structure of the land. TO ACCOMPANY FRYE'S GEOGRAPHIES 51 The War of Secession had for its theater in part this Great Valley, farther to the south. One needs but to name Jackson's valley campaign to indicate the strategical im- portance of this great level highway, in the possession of the Confederates, which led straight on to Washington. Not until the Shenandoah valley had been utterly wasted did the strength of Virginia begin to fail. Still further south in this same valley lie Knoxville, Chickamauga, and Chattanooga. These points must be won and held by the North if they wished to cut off the army of Virginia from supplies from farther south. When Chattanooga fell and the Confederates were forced to retire from its neigh- borhood, the way was open for Sherman to push on to Atlanta. From the opening of the war the command of the southern end of the Great Valley was the objective point of the- northern armies in the west. With this in mind the campaigns become intelligible. So much for the Great Valley and its important part in the history of the United States. Of course, a clear perception of the whole French con- flict is impossible without a study of the relief map of North America. Entering the Mississippi valley by the two great natural gateways, the St. Lawrence and the Mississippi, the French apparently needed only a chain of forts from Quebec and Montreal, through Fort Frontenac (now Kingston, Ontario) and Fort Niagara, down the Ohio where Fort Duquesne won such bloody renown, and so on to Natchez and New Orleans, to hem the English in effectu- ally behind the Appalachian barrier. The scheme was a. great one, and history shows that most of the successes were on the side of the French. But England at last pro- duced a general, and Wolfe at Quebec ended the dream of French dominion in North America. 52 AN OUTLINE FOR TEACHERS Another point in American history to be really under- stood only by a knowledge of the physiography of the region involved is the Gadsden purchase, which, for $10,- 000,000, secured from Mexico the land south of the Gila river. Why should so great a sum have been paid for a seemingly worthless strip of sun-scorched desert ? A glance at the relief map explains the motives of the statesmen who made the purchase. The Colorado river runs for hundreds of miles through the Great Basin in a general course from northeast to southwest. How terrible a barrier it is to communication from east to west may be seen by a glance at the great chasm of the canyon of the Colorado on page 66. But just south of the Gila river, the first boundary decided upon at the close of the Mexican War, lay an easy route from El Paso, Texas, down the Gila river to its junction with the Colorado, where the moun- tains stop and the way is clear to southern California. A railway now runs through this very valley, and the wise foresight of the authors of the Gadsden purchase is amply justified. But ignorance of the physical conditions of the region in question led to savage opposition at the time. In fact, without the perception of these conditions which a study of the relief alone can give, the Gadsden purchase remains a barren item in history, mainly interesting as a possible trap on examination days. Another instance from the Pacific slope. In the great stretch of coast from San Francisco to the entrance to Puget sound, about as far as from cape Hatteras to the most northerly point on the coast of Maine, there is but one opening of commercial importance, the mouth of the Co- lumbia. About the close of the eighteenth century it was known that a great river came out into the Pacific some- where on that coast, and the English captain, Vancouver, TO ACCOMPANY FRYE'S GEOGRAPHIES 53 skirted the shores in a vain search for its mouth. But a great bar made of the materials washed down by the river masked the entrance, and the prevailing southwesterlies kept up a steady roll of breakers which still further dis- couraged search. But where the Englishman failed, the Yankee Captain Gray succeeded. In 1792 he crossed the bar and gave the name of his ship to the river he had found, and at the same time bestowed upon his country, by right of discovery, the great states of Oregon and Washington. Surely the historical question is made both clearer and more interesting by calling in geography to aid in the discussion. Reference merely need be made to the break in the chain of mountains through which the Mohawk runs, giving an easy way for the canal which has raised New York to the rank of one of the greatest cities in the whole world. Geography and history must go hand in hand in treating questions such as these. Climate of United States. It is presupposed that the pupils have noted the winds and rainfall day by day, as requested by Frye. It will have been noticed that the pre- vailing wind is southwesterly. With this in mind notice on page 74 how a storm eddies across the United States. There is an area over the plateau between the Rockies and Cascades where the air is descending from above, and is consequently clear and heavy. From this center it streams out in all directions to areas of less pressure. One of these areas is seen southwest of lake Superior. From all sides the air rushes in, for another area of high pressure is seen over the country south of Hudson bay. A whirl is set up like that in a bath tub when the stopper is pulled out, only the air at the center rises while the water in the bath tub descends. But rising air is cooled by expansion, and the moisture is consequently condensed and falls as rain or 54 AN OUTLINE FOR TEACHERS snow, according to the season of the year. This center of moist air moves off to the northeast in obedience to the general law of moving bodies on the surface of the north- ern hemisphere of a rotating sphere, and a wave of cold, dry air streams in to take its place. This explains the suc- cession of waves of warmer and of cooler air which follow each other throughout the year. With regard to the all-important maps of products it need only be repeated that the relation between the cause (the climatic factors) and the effect (the crops) must be carefully noted. One instance of the close accuracy of the maps of products may be mentioned. In the map of cotton a strip is left uncolored along the shore of the gulf of Mexico, and yet the maps of temperature and rainfall would seem to indicate its fitness for this great staple. Corn also fails along this strip, as the map shows. But the maps of forest and of beef cattle cover this belt. The explanation is that the land is either low and swampy, unfit for cotton but good for marsh grass and swamp timber, or else so sandy that only pines grow there, which allow of fair graz- ing and supply good lumber. There is no map of rice, but if there were, these swamps, unfit for cotton or corn, would be seen to be the home of this valuable cereal. Groups of states. In treating the New England states dwell upon the admirable lesson on page 88, which shows how the glacier of the ice age filled up the channels of the older rivers with gravelly deposits so that they were forced over rocky ledges to the one side or the other of their former valleys in the search for fresh channels. These rocky ledges wear down very slowly, so that rapids and falls are formed which afford abundant water power- In the Middle Atlantic states the stress is upon the re- markable fact that the Hudson, Delaware, Susquehanna, TO ACCOMPANY FRYE'S GEOGRAPHIES 55 Potomac, and James run straight through the mountains on their way to the sea in apparent defiance of these barriers. The explanation is that the rivers were there first when the land sloped from the sources gently to the Atlantic. Gradu- ally the mountains rose athwart the path of the rivers, but so slowly that the rivers wore down their gaps as fast as the mountains rose. This will impress on the pupils the extreme slowness of mountain building and the tremendous excavating power of running water. Another cardinal point is the drowned bays of New York harbor and of Delaware and Chesapeake bays. The land was once much higher and the old coast line i was a hundred miles farther out to sea. The rivers wore out broad, deep valleys as they cut their way down to sea level. Then the land sank, the ocean flowed in, making fine harbors,, thus giving rise to cities like New York, Philadelphia, Baltimore, and Norfolk. For the southern states the stress is upon the rising coast with harbors only at the mouths of rivers, and these embarrassed by sand bars which hinder navigation. The people, therefore, turned mainly to agriculture upon the gentle slopes which fall to the Atlantic and gulf of Mexico. The rapid streams, however, which descend from the moun- tains give occasion for water power to develop electricity, the coming power of the world. The Mississippi valley is mainly to be considered as a comparatively gentle slope from either side towards its great central river, which drains the land and offers opportunities for cheap water transport till now too sadly neglected. Climatic conditions will explain the variety of crops. The mountain group of states mainly depend upon the stores of mineral wealth deposited in veins in earlier ages 56 AN OUTLINE FOR TEACHERS and exposed to man's view by the subsequent uplifting of the mountain ranges. Above all, trace the bearing of the natural conditions upon man's industries. These natural conditions have decided the location of the cities and towns. Locate these, then, always in the light of the natural products which are brought to these points as the market most easy of access and best adapted to further transportation. Other continents. It should not be necessary to review the other continents. Frye's plan is so symmetrical that it applies to all the continents as well as to North America. Use the sand map, make sketch maps, employ outline maps to be filled in by the pupils as the work on each county progresses, do not neglect the illustrations, bring to the class as many objects as possible to illustrate home and foreign commerce, and, above all, prepare your lessons carefully so as to bring out the main points clearly, and the result will be the acquisition by the pupils of the power of independent, vigorous thought. Commercial map of the world. This most valuable map may be used as a test of all the knowledge acquired in pre- vious study of the world. Let me give a sample of a lesson. Suppose a ship starts from England (locate by latitude and longitude) loaded with merchandise (consult text-book for probable articles of export) for Australia. She sails down the coasts of France and Spain, aided by the southward- setting eddy of the Gulf stream, which has crossed the Atlantic at the latitude of the Azores (trace course of cur- rent on map), until she comes into the region of the New England trades and corresponding north equatorial current, which bear her steadily across to South America. From cape St. Roque (locate) the Brazilian current (trace on map) and the southeast trade, blowing across her direct TO ACCOMPANY FRYE'S GEOGRAPHIES 57 path but helping far more than hindering, carry her down the belt of southwesterly winds (from about 35° south lati- tude), which waft her over to Cape Town (locate, as well as all following names of places, currents, etc.). Here she puts in for orders telegraphed from England and gets fresh supplies of food and water. Borne on by the strong unfail- ing westerlies, the " Roaring Forties," she soon flies over the southern edge of the Indian ocean until she reaches Mel- bourne, Australia, having kept just north of the northern limit of ice drift brought by the great Antarctic drift of waters from the south polar regions. Here she discharges cargo and refits, having gone fully 12,000 miles, most of the way favored by winds and currents. She loads up again with raw material for England's mills (find from map what it is), and also valuable metals which take up but little room. (What are they ?) She has been about three months on the voyage if a fair sailer. To return the way she came would mean head winds and opposing currents most of the way, so she spreads her sails and continues to the east across the whole breadth of the Pacific, passing to the south of New Zealand, rounds cape Horn, and bears off to Africa, having had the westerlies filling her sails the whole dis- tance. The west African current helps her up the coast to the northward until she gets into the southeast trades, which carry her with extra sails set back to South America, up the Guiana coast, aided by the Guiana current until she crosses the tropic of Cancer, gets into the Gulf stream, and, under the prevailing southwesterlies, speeds on across the Atlantic for home. She has gone fully 14,000 miles on her return trip, but has favoring winds and currents most of the way. I maintain that a pupil trained in the use of Frye's geographies, taught in the Frye spirit, would follow such a voyage with an eager and enlightened interest. 58 AN OUTLINE FOR TEACHERS Steamer voyages from England to Yokohama by way of the Mediterranean and Suez canal would be a fine review of waters passed through, lands touched at or sighted, and possible products shipped to their destination. Take another probable trade route of the near future. Notice the vast area of Canada in the Great Central plain, raising wheat in the southern portion and growing luxuri- ant grass and oats and potatoes clear up to Great Bear lake on the Arctic circle. Note how the Mackenzie with its string of huge lakes needs but a short canal to connect with the Saskatchewan draining the great prairies of western Canada. The products of all this region together with those of the Red River region find a natural outlet at Fort York on Hudson bay. From that point to Hudson strait the way is clear, unencumbered by the dangerous shoals and islands which fringe the eastern shore of Hudson bay. Reference to the map of North America on page 65 and of Canada on page 131 will give the details more clearly. It is true that Hudson strait is full of drifting ice, but it drifts in on one side of the strait and out on the other, so that the steamers can come in with the one drift and go out with the other with the minimum of danger. Referring to a globe, it will readily be seen how much shorter are the circles of latitude at 60° north latitude than at 40°, so that a steamship drops down from Hudson strait by a shorter route to Liverpool than if she climbed the rotundity of the earth from New York to the same point. From a point in Dakota fully 1000 miles may be saved by the Hudson bay route over the New York route, and this is enough to largely turn the course of trade from both New York and from Montreal, her growing rival. Trace in like manner the 14-foot water way to be made from Chicago to the gulf and discuss its saving, TO ACCOMPANY FRYE'S GEOGRAPHIES 59 remembering that water freight "is only a fraction of railroad charges. Notice on the map of Canada that a chain of lakes and rivers almost connects the continuous water ways of western Canada with lake Superior, and that a canal could easily be made to join them. Then trace the canal which Canada is digging from Georgian bay to the Ottawa, avoiding all the difficulties of Niagara and the rapids of Lachine in the St. Lawrence. A straight water way from the Rockies to Montreal would lessen freights for the summer months in favor of Montreal as against all ports more to the south, for England is the great market for most of the exports from North America, as, in fact, from most countries of the world. Exercises such as these will review the physical features of the world and will stimulate the imagination of the children. Discuss the Cape«to Cairo route through Africa; the rail- way from New York through Mexico and Central America, down the plateaus of the Andes, and across the pampas to Buenos Aires ; the Trans-Siberian railway ; the New York to Paris route by way of Bering strait ; the railway from Constantinople to Bagdad and ultimately to India. All these are possible, most of them are certain, and children now in school should know of projects which they will live to see in full operation. Time belts. This should be treated in connection with arithmetic, numerous examples being given. If the class be taken out into the schoolyard at exactly noon and face the south, they will soon grasp the idea that all places to the east of them have already had their noon, for the earth turns from west to east. Consequently the time is later to the east of them, while places to the west of them have not yet been turned round to the sun and have earlier hours than they. The rest is easy if this is once understood. 60 AN OUTLINE FOR TEACHERS International date line. This is the last but not the least difficult problem which awaits the pupil in geography. I suggest the use of a globe with the supposition that it is 12 o'clock noon at Greenwich on the day of the lesson. Work to the east and have the pupils see that for every 15 degrees of longitude passed over it is an hour later of the same day, until at 180° east longitude it is midnight of, say, September 30, 1908. Now proceed in like manner to the west. For every 15 degrees of west longitude it is an hour earlier than noon of September 30, 1908. At last 180° west longitude will be reached, and the first second of the first hour of September 30, 1908, has just begun. Here then is the same line, 180°, and on the one side of it we have the first second of Sep- tember 30, 1908, and on the other the last second of Sep- tember 30, 1908. Before going further, repeat this till all see it clearly. Now as the earth turns from west to east it is clear that when one more second has passed a new day has begun to the west of the 180th meridian. So that one could stand across the 180th meridian at midnight, or rather one second after midnight, and have one foot, the eastern, in the very begin- ning of September 30, 1908, and the other foot, the western, in the very beginning of October 1, 1908 ; so that at will he could step to the east into September 30 or to the west into exactly the same second of October 1. If he steps to the east over the line, he has gone back from October 1 to September 30 ; if he steps to the west over the line, he steps forward a whole day from September 30 to October 1. Let an hour go by, and now on one side (the eastern) of the meridian of 180° it is 1 o'clock a.m. of September 30, while on the other, the western, it is 1 o'clock a.m. of Octo- ber 1. The difference in date is exactly 24 hours, or 1 day, TO ACCOMPANY FRYE'S GEOGRAPHIES 61 to a second, and so on through the day. The rule for the nations of the world then is that as soon as noon at Green- wich has just- passed on a given day, a new day begins to count at midnight on the meridian of 180°. A device I have employed with success is to form exactly 24 pupils in a circle, one representing noon at Greenwich and each of the others to the east of him one hour later, and each one to the west one hour earlier of the same day. When this is thoroughly understood so that each can call out his hour, say, 9 o'clock p.m., September 30, have the. whole circle move a little to the east, to represent one hour of time. In a flash the pupil who represented at once the first moment of September 30 and also the last moment of September 30, sees that he is now 1 o'clock a.m. of September 30, and that the space to his west, between him and his next neighbor, must represent the first hour of October 1, and that he is also 1 a.m. of October 1. The teacher, representing a steamer, can now move in front of this pupil within the circle, and all will see that he passes in a moment from 1 a.m. of September 30 to 1 a.m. of October 1 if he goes from east to west, and vice versa if he goes from west to east. Conclusion. If the fundamental idea of Frye's geog- raphies — to treat the earth as a unit — be grasped by the teacher, sq much life will be infused into her teaching that geography will become perhaps the most interesting and profitable subject in the curriculum. Geography taught in accordance with Frye's method quickens the imagination, stimulates the powers of observation, cultivates the judg- ment, and develops the faculties of expression. If it be objected that some of the points are too hard for children, I may say that I know from personal knowl- edge that they have been taught with success to pupils 62 AN OUTLINE FOR TEACHERS in several states, and I, for one, decline to admit that the children of Virginia are not fully equal in mental caliber to the children of any state in the Union, be the same what it may. VIRGINIA SUPPLEMENT It is to be presumed that the state of Virginia will not be studied until the general features of the United States have been taken up and the Atlantic coast states gone over. The state can then be referred to its proper place in the continent and in the United States. Have the children locate it by parallels and meridians. AYhen the sun is ver- tical over Cancer, with how great a slant do its rays fall upon the southern boundary of Virginia ? on the northern boundary? When the sun is vertical over Capricorn (on what day is this the case?), what is the angle for Virginia? How many hours' difference in time between Richmond and Greenwich? Test in rapid review the pupils' knowl- edge of the zones as applicable to Virginia. Size is then taken up, — its length, breadth, and area. If the area of the state is not already fixed in the mind of each pupil, now is the time to do so by many arithmetical problems. The standard of measurement of area for each child in Vir- ginia should be 42,450 square miles. Next take up relief. Reviewing past knowledge, have the pupils tell you that Virginia lies on the secondary highlands of North America. Further, that it is on the Atlantic slope, that it falls to the sea by successive steps. Mold in sand and have them mold. Represent the mountain, piedmont, and tide-water sections. Name mountain ranges. Compare elevation with that of Rockies (much less than one half). Consequently they TO ACCOMPANY FRYE'S GEOGRAPHIES 63 are but little obstruction to the winds that blow from the interior, or vice versa. Probable cause — sinking of the Atlantic floor and consequent uptilting and crumbling of the layers of rock which underlie the state. Mountains are the uplifted edges of these strata. The parallel val- leys are to be then discussed. Piedmont region — pene- plain — very ancient mountains worn down by frost and rain of ages until an approximate plain is produced with here and there a monadnock of very hard rock remaining, which has resisted the elements. This peneplain is now trenched by the rivers and streams whose bottom lands lie below the general level of the plateau above them. Trace edge of Piedmont region in fall line, where rivers plunge over the outer edge of these ancient rocks, making falls and rapids. Discuss effect of these rapids on navigation of rivers. What cities are situated on fall line ? Why ? Use of waterfalls for manufacturing purposes. Tide-water Virginia reaches from fall line to sea. Rivers have broad bays at their mouths ; the land is level, sloping gently to Chesapeake bay. Outline very much broken. Dis- cuss effect of this on early settlement. Which would be easier to use, the bays and rivers, or make roads through the woods from one settlement to another ? What river runs into the head of Chesapeake bay ? (Susquehanna.) This river made Chesapeake bay. This statement will not fail to arouse the liveliest interest in the class. Explain that the land once stood at a much higher level, the coast line of the Atlantic being far out beyond its present location. The Susquehanna then cut out a broad valley nearly down to sea level, being joined by its tributaries, the present Potomac, Rappahannock, York, and James. These also cut broad valleys in the gently sloping land below the fall line. The great river passed between cape Charles and cape Henry, 64 AN OUTLINE FOR TEACHERS on through the lowlands to the distant sea. The land then sank and the sea water, backing in, drowned the valley of the Susquehanna and the lower valleys of its tributaries, transforming them into broad bays, and leaving the east- ern shore of Maryland and Virginia, which was too high to be drowned, as a peninsula between Chesapeake bay and the Atlantic. This brief explanation will give a vivid interest to the broken outline of Virginia on Chesapeake bay. The relief thus disposed of, have the pupils trace the drainage. It is understood that the class has not yet studied the text, but is merely making deductions from the map in the light of past study of Frye's Geography up to this point. This is most important. Do not deny to the chil- dren the luxury of doing their own thinking. At this stage they should be capable of very considerable efforts in close reasoning, if Frye's Geography has been well taught up to this point. The class will notice that there are several distinct sys- tems of drainage : the great rivers, Potomac and James, which rise in the Allegheny mountains or even to the west of them, cross ranges of mountains by means of deep gaps, and finally flow into the Chesapeake bay; the lesser rivers which rise in the Blue ridge and also flow into the Chesa- peake ; and lastly, the New river, with its tributaries, which rises east of the Blue ridge and flows west into the Ohio. This remarkable drainage calls for explanation. Here are rivers which instead of being turned aside by mountains actually cut through them. Water cannot run uphill, yet to cut through a mountain range it would seem that it must first have done so. Nor did these rivers find the gaps ready made. Examination of the walls of these gorges shows that the rocks on either side were once continuous TO ACCOMPANY FRYE'S GEOGRAPHIES 65 across the chasm and that the river has cut its way down to its present level. The explanation is that the rivers were there first when the land, but slightly upraised above the waters, sloped gently to the east both in the north and the south of Vir- ginia, and to the west in between these parts. Then the mountains slowly rose, but so slowly that the rivers, by means of their load of gravel, sand, and mud, were able to wear down their beds faster than the mountains. The greater rivers, as the Potomac and James, did this ; the lesser rivers were headed off by the rising Blue ridge and their upper waters flowed to the north, like the Shenandoah, to be a tributary to the Potomac, or to the south, like the Clinch and the Holston, to join the Tennessee. Between these the New river maintains its course through the op- posing ridges to join the Kanawha, and so on to the Ohio. As the great mass rose, the harder edges of the upturned strata remained as mountain ridges, while the softer strata wore away more rapidly and became the parallel valleys of Virginia and other states. The great truth is thus brought before the pupils that rivers make their own valleys. Do not be deterred by the fear that ideas such as the above are beyond the comprehension of the pupils. They are always delighted to trace the effect from the cause, and what the teacher really knows, that she can make clear to the - children. The winds and rainfall may next be taken up, referring to the previous sections of the geography which cover this topic. It will be clear that the prevailing drift will be from the southwest, but that the eddying whirl in which the air advances will bring the wind at any one point from different points of the compass in turn. Virginia lies open to the mild sea breezes from the southeast, but also to the 66 AN OUTLINE FOR TEACHERS colder waves from the northeast, while the barrier of moun- tains is too low to keep off the cold, dry winds from the northwest. Great changes of temperature may thus be expected, especially in winter. Next take up the effect of the Gulf stream passing not far from the coast, giving out abundant warmth and mois- ture to the breezes which blow from it to the land. As these breezes, thus laden with moisture, blow inland, they rise with the gradual elevation of the land, become cooled by expansion, and give out a copious rainfall. The logical deduction from this abundant rainfall (find amount in text and measure height on wall to correspond) is that Virginia is naturally clothed with luxuriant forests. A further de- duction from the steady descent from the mountains to the coast and from the abundant rainfall is that the state is rich in water power which, when utilized, will add enor- mously to her wealth. Let the pupils make these deduc- tions ; do not make them yourself. Still further review of what the pupils already know will show that Virginia is too far north for cotton, but lies in the corn and tobacco belt, the conditions of heat and moisture favoring these crops. In the higher parts of the state cereal grains and grasses find their appropriate place. The mineral wealth to be expected from the mountains may then be discussed. The historical element may now be taken up in connec- tion with the geographical features which determined so largely the course of the history of the state. The broad lands of the tide-water region, open to the sea by the great baylike estuaries, encouraged the formation of great estates. The climatic conditions favored the growth of tobacco, a great ready, money crop in great demand in the markets of the world. Labor being scarce, slaves were introduced TO ACCOMPANY FRYE'S GEOGRAPHIES 67 from Africa and found profitable. "The far western part of the state, however, cut off from ready access to the sea by intervening mountains, got its population largely from the north, the pioneers from Pennsylvania moving southward down the parallel and easy valleys which invited them on. Thus a diversity of origin was found between the two sec- tions, and as slavery was not found generally profitable in the western portion, a diversity of interests arose. This culminated in the formation of West Virginia as a sepa- rate state. The surplus population of tide-water Virginia, however, having possessed itself of piedmont Virginia and the Shen- andoah valley, moved on to the south till, passing through Cumberland gap, it transferred its ideals of life to the fertile lands of Kentucky. Having made this preliminary series of deductions as to Virginia from previous knowledge of the general conditions of North America and of the United States, the class is ready for the detailed study of the text of the Supplement, each paragraph of which will now be seen to be full of meaning. Note : — To Virginians not already familiar with the fact, it will be a matter of interest and pride to learn that their distin- guished scientist, Maury, first made clear to the world the sailing plan outlined on pages 56 and 57. Millions of dollars have been saved in freight and thousands of lives rescued from scurvy on board ship by his epoch-making directions. APPENDIX A few books on geography are here set down, which will prove helpful to the teacher. Frye's Brooks and Brook Basins. Frye's Child and Nature. Shaler's First Book in Geology. Shaler's Story of Our Continent. Jackson's The Earth in Space, or Astronomical Geography A longer list would prove bewildering. When these have been mastered, the teacher should turn to the manu- als of physical geography by Davis, Dryer, etc., for special information. 08 ". ■ ■ • ■ •• .--;•■..■•■ ■■■■ n til .. ; -