tae mt , Sh mt Af ee mL ire 5 RPL vat - Book WS Coprichte NO COPYRIGHT DEPOSIT. Oya SAS) WY ee ee ere Beh ee HY Mea eran NCS TR Ue a se wy ‘ Lp’ i Ty 4 we i: hs Vi } Ae HAS | 3) tr ne Ny aul , } ane ‘5 mig ny) ‘ if i at? rl , aA ; a bh Pr Aucusr 21, 1824 —JuLy 2, I9II THe NEW METHOD. OF EDUCATION WITH ILLUSTRATIVE EXAMPLES, EXTRACTS FROM SCHOOL DOCUMENTS, AND A CATALOGUE OF THE NORMAL HIGH SCHOOL By WILLIAM L. WHIT’TEMORE With MMemortal Address THE TUFTS COLLEGE PRESS Igil Copyright, 1911 THE TUFTS COLLEGE PRESS SChaAsv9v80 I OFFER THIS TRIBUTE OF GRATITUDE TO THE MEMORY OF LOUIS AGASSIZ MY FIRST TEACHER IN THE ORDER OF NATURE PUBLISHERS, NOTE The late Professor Alpheus Hyatt and others urged Mr. Whittemore to describe his school-room methods and put them into permanent form. With this desire of his friends in mind, he preserved much written work of many children, and several years ago published in the columns of a local paper the school exercises which, with some changes and additions, now appear as ‘“‘ Illustrative Examples.’ He published the ‘‘ Historical Sketch’’ in the same weekly newspaper, and in 1908 began to reprint these articles, together with certain school documents, under the title of ‘‘ The New Method of Education.’’ While this part of the book was in process he was at work upon ‘‘General Principles’’ which he did not live to complete. OCTOBER IQII. MODRESS IN MEMORY OF WILLIAM LEWIS WHITTEMORE fa THE PUNERAL SERVIGE IN THE UNITARIAN CHURCH Peer oRD. oN. Eh JULY 5.) 111 Pm ek L BERT -E. PILLSBURY MEMORIAL ADDRESS If this is a departure from the usual forms, it is an unusual occasion. William Lewis Whittemore, who disappears from this community with which he has been identified for upward of half a century, was a remarkable character. There is no other like him in the history of the town. He survived the genera- tion that first knew him here, and dwelt for the space of another generation among those who knew him little or not at all. Perhaps he was always best known and beloved among his own pupils. At the desire of some of them who would lay their wreath of remembrance upon his grave, I attempt to speak of him to-day as they knew him. About three score and ten years ago he came out of the Lyndeborough woods an untutored country lad, endowed by nature with a clairvoyant eye for science and a divine gift of instruction. Few teachers of pronounced genius have appeared in this country, or perhaps in any other. The genius of this man for teaching was as native and certain as the genius of Whittier for song or Powers for sculpture. It was recognized at sight by the greatest teacher, borrowed from Europe, this country ever knew, and the en- couragement of Agassiz helped to fix him upon the vocation to which he was unmistakably called. VIII MEMORIAL ADDRESS For his own education he seems to have selected teachers rather than schools. Among them he always spoke of William Russell with particular respect, but the most notable part of his training was at the Lawrence Scientific School of Harvard University, under the personal direction of Agassiz and Hors- ford. ‘They were so quick to see his merits that they opened to him not only the facilities of the school, but their private laboratories, with their personal assistance and intimacy. He studied the sciences with them, and the science of teaching, before it had occurred to people in general that there is such a science. Drinking at this spring, his thirst for a knowledge of scientific education was only stim- ulated. It became the object of his life, and he went abroad twenty years later for extended study of the educational systems of Europe. He first tried his hand as a teacher in the district schools of his own and neighboring towns, and after some years of this apprenticeship he came to Milford in 1855 and took charge of the high school. It was soon after the erection of the School street building, now discredited as the ‘‘old brick,’’ but then the wonder of the town. For the next dozen’ years Milford had, under his tuition, probably the best high school in New Hampshire, and if there has been a better anywhere I have never seen or heard of it. WILLIAM LEWIS WHITTEMORE IX There are no more competent judges of the merit of the school than the hundreds of his old pupils. They have had half a century, more or less, to prove what it did for them, and they are of one accord that he was the ideal teacher. He was a deep student of nature, especially of natural history and geology to which his tastes inclined, but equally adept and skilful in all branches of instruction. Of his views’ of scientific education I say nothing, as he has be- queathed them to the public in his own words. It is my purpose only to speak of him as we saw him. His methods in the school were a revelation then, and I suspect that in most schools they would be a revelation now. They were masterly, but never school-masterly. There was no cramming, no mem- orizing, no teaching or learning of anything by rote or rule of thumb. The school was a place for the | development of the mind. Every pupil had to do his own thinking and give his own reasons. It was of no use to know a fact unless the whole meaning of the fact was known. It was of no use to work out a problem unless every step in the process, every why and wherefore, could be explained. What is the longest river ? The Mississippi. But we could not leave the Mississippi until we knew all about it, its discovery, its traditions, its commerce, its part in the history of the country. What is a straight line? x: MEMORIAL ADDRESS The shortest distance between two points. In another school this would be the end of it, but on that straight line he would lay open the whole science of geometry. For text-books he had little respect, and they played but a minor part in his system. He taught from nature, from the fields, the woods, rocks, and streams, the home, the shop, the street, the daily newspaper, from which he used to read and draw us into discussion upon it. I remember that he took occasion of a thunder-shower one afternoon to tell us more about electricity than I have ever learned since in an age of electrical science. He wasa master of the neglected art of reading, for which he had every qualification, a rich and resonant voice, perfect utter- ance, and a soul in tune with the highest themes, and he rarely selected any other. He made the scripture reading with which he used to open the school the most impressive religious service I ever saw. It was usu- ally from the Old Testament, and to hear the tones of majesty in which he would deliver the Ninetieth Psalm or other favorites was like sitting at the feet of David. Perhaps his example was not less striking or fruit- ful than his precept. And of this let me say first, in view of the cigarette and cocktail type of school-mas- ter which has succeeded him, that there was nothing in his example that could not profitably be followed. WILLIAM LEWIS WHITTEMORE XI He had none of the fashionable vices that are now thought proper to be sown broadcast by the heads of schools and colleges. Raised a country boy in a backwoods town, little if ever in contact with polished society which did not attract him, he had the man- ner and the manners, no less than the morals, of a born gentleman, in the only proper sense of that much-perverted term. Native dignity, without a a sign or suggestion of the pompous or pretentious, was apartof him. Even the clothes he wore seemed to be a part of him, and it was an attire rarely seen in a country village then, or anywhere now. None who saw him in his prime will ever forget him. Would that I could sketch the picture as well as I remember it. Tall, lithe, straight as an arrow, quick of step and movement, a stately head, with piercing eyes and coal-black flowing hair and beard, he dressed habitually in faultless silk hat, black frock- coat, silk or velvet waistcoat, grey trousers and patent-leather shoes. These things appear out of place on some men. It did not seem as though Mr. Whittemore could wear anything else. He was the portrait of a gentleman, a figure at which people would have turned to look in the streets of any city in the world. Like most original thinkers, he was in advance of his time. The people could not follow so fast as he XII MEMORIAL ADDRESS would lead. Dissensions arose about the school. He was stigmatized as a theorist. There were people who would have called him a crank, if that term had been invented. Some of his innovations were so rad- ical as to attract sharp if ignorantcriticism. Finally, various petty discontents were brought together in a movement against him, hardly more creditable in form than in purpose, that resulted in forcing him from the school. Master of his own art, he could not encounter the town-meeting champions, and when the school was dragged into the pit of town politics, he retired from an ungrateful contest in which he would have esteemed victory no better than defeat. He met the new situation by opening in Milford a private normal school. It was popular and success- ful, but after a few years he abandoned it to his de- sire for travel and study in Europe. Returning home after a year’s absence, he was called to the charge of various schools and science classes, principally in Boston, and after many years in that field of service he retired from active work some twenty years ago or more, to spend the remainder of his days in this village. He was never taken at his true value, here or else- where. The world never found him out. Doctor of Science by higher authority than the universities, no WILLIAM LEWIS WHITTEMORE XIII college ever claimed his service, or gave him its degree. He was left to comparative obscurity, and his buried talents largely went to waste. It was not wholly the fault of those about him. To those who knew him well there was no more kindly or companionable man or ‘interesting character, but he was by nature and tem- perament shy and retiring if not reserved. He was too modest for self-assertion, and perhaps too sensitive for successful contact with the world. His tastes were the tastes of the scholar, for study, which leads to seclusion, and in his advancing age the hermit habit grew upon him until his life became almost sol- itary. He was never a ‘‘ mixer,’’ much less a ‘‘ hus- tler’’; indeed in his time these valued products of our own day had not appeared. He always felt the duty of service, but he never would put himself for- ward. He eould easily have been drawn into the public activities for which he had such superior gifts. He had only to be asked, and he was not asked. With an unsurpassed knowledge of schools and edu- cational systems, he was but once, I believe, made a member of the school committee. Familiar with books, and thoroughly understanding the educational and other uses of the public library, he was never placed upon the library board. A few years ago he made the town a generous offer of contribution to a street improvement near his premises, for which there XIV MEMORIAL ADDRESS was a crying need. Inreturn for his public spirit, the town gave him denial and detraction. He bore it in silence and without complaint, but it worked deeply upon his feelings and I do not think he ever recovered from it. Thus did his neighbors and townspeople deal with a man who would have adorned a chair in any college or brought distinction to any community that knew how to utilize him. It is not agreeable to recall these things, but we speak of the dead only for the benefit of the living. Neglect and injustice can hurt him no more. The measure of the public loss will never be taken, but the example stands, for instruction if not for reproof. Of Mr. Whittemore’s religious views I speak with difidence, but it is customary, and he would have nothing kept back. I suppose that we have all observed a tendency in the clergy, if my friend beside me here will pardon the remark, to make the departed a devout Christian who perhaps was never under suspicion of piety by his nearest friends. It may be a harmless hypocrisy, but stand- ing by the body of our old friend I would make no professions for him dead that he did not make for himself living. He was not what would commonly be accounted a religious man. If he ever was con- nected with any church, he had no active or visible connection with any in his later years. I think that WILLIAM LEWIS WHITTEMORE XV all churches and creeds were much alike to him, and I am sure that he had little respect for professions, and none for pretences, of piety. He rarely talked of religion, and I take the absence of lip-service as one evidence, at least, that he had a religious nature. He was a reader of the Bible. He must have felt in his soul the solemn majesty and authority of some of the Hebrew scriptures, and I believe that he accepted the precepts of the New Testament as a perfect moral code for a regenerated world, and tried to make them the guide of his life. He did what the prophet says the Lord required of him, to do justly, love mercy and walk humbly and without guile before God and man. Perhaps his view of outward religion is ex- pressed by the familiar lines in which Pope gave the world a creed to which increasing numbers adhere: ‘‘For modes of faith let graceless zealots fight ; His can’t be wrong whose life is in the right.”’ I cannot take leave of my old preceptor without acknowledging my great debt to him. With later experience of two academies, and a college, I can truly say that all I ever learned in schools and was able to keep, or found worth keeping, was learned from him. I see here to-day as many, perhaps, of his old flock as are likely to meet again in this world, and it cannot be unwelcome to them if I express what must be the common feeling, a sense of grateful and XVI MEMORIAL ADDRESS affectionate obligation for the lasting benefits received at his hand. He did not try to educate us. He did better. With deeper insight, he taught us to use our own faculties in educating ourselves, the begin- ning and the end of real education, and if we have not profited by the lesson it is no fault of the master. It is the good fortune of the teacher that the stuff in which he works is not of clay, but imperishable. His material is the human mind, the youthful mind, plastic and sensitive, ‘‘ wax to receive and marble to retain.’’? Every pupil becomes a new center of his influence, taking up his work, perhaps unconsciously, and carrying it out to a wider circle and on to a new age. His harvest is reaped only to be resown and gathered an hundred fold. Such was the happy lot of our old mentor and friend to whom we now bid fare- well. So shall he live again, long after his body has mingled with its native dust, as the seed of his sowing blossoms anew and bears fruit in regions which his foot never trod, for those who never heard the sound of his name. CONTENTS MemoriaL ApprEss INTRODUCTION PART I GENERAL PrincipLes anD HisroricaL SKETCH . PART II ILLusTRaTIVE EXaMPLeEs PARE I ScHoot Reports PAGE V—XVI XIX—XXII 1-36 I—1I0O0 INTRODUCTION VOTE UU Cr Grae . i A, Oe ree INE RODUCTION In 1852 the author was a student in Harvard College, and while working under the direction of Professor Louis Agassiz he became interested in the ‘*new’’ or scientific method of education. From that time, during nearly forty years, he labored as student and teacher to understand that method better, and to put it into practice in the school room. The purpose of this book is to state in brief what the author believes to be the principles of the new method of education and to give some idea by exam- ples as to how those principles were applied in his own school. The last one hundred pages of the book consist of school documents which have been reprinted in order to show through what difficulties the new method of education has been obliged to force its way to the small measure of success it has achieved in our public schools. People are satisfied with the old ways long after better ways have been discovered and demonstrated, not only in the domain of education, but in every field where progress is possible. As an illustration, the story of the locomotive may be told in a few words. About the middle of the seventeenth century several men from European Universities and Scientific Soci- XXII INTRODUCTION eties combined their efforts to utilize the invention of Hero, made eighteen hundred years before. As Hero could turn a wheel rapidly by steam-power, these men believed that by study and experiment. steam could be made to move a system of wheels and machinery and accomplish work. Their success was sufficient to encourage others to take up the work in the eighteenth century, among them James Watt, whose great genius and persistent work for many years gave to the world the modern steam- engine which is to-day doing the work of millions of men. In the early part of the last century another great genius, George Stephenson of England, added to the work of Watt, and in thirty years of wonderful suc- cess, the engine became a powerful locomotive, moving trains of cars from city to city. People who wished to travel could sit comfortably as in any house and travel further in one hour than they had ever been able to go in a long, tedious day. But there was only one in ten thousand who wanted any help from Stephenson. He was hindered in every way and derided by the best people of England for years after he had proved to himself that the power for a locomotive was in his engine. fg i GENERAL PRINCIPLES ENISTORICAL SKETCH GeV RALAPRENC TPLERS There are two, and only two, methods of education in the world — the scientific method and the literary method. All variations are easily classified in one or the other of these two methods. The basis of the scientific method, often called the new education, is all nature and all art. The basis of the literary method is books. Books constitute a very important branch Of art ; hence books are included for all they are worth, in the scientific method. But wherever books are made the basis of education, civilization remains nearly stationary. This has been the condi- tion of China for centuries, and of South America from the earliest European settlements. Books can never yield that kind of knowledge which has trans- formed European and American civilization during the last two hundred years. How did this broad wave of mental force which has given us all modern civilization, originate? What are the principles on which it depends, and what are the laws of its progress? The men who accomplished this work prepared themselves for it by reading a volume ever open to us all, a book in which the letters are suns and worlds, the forces which build the elements into living forms, and all the varied phenomena of nature. They 4 THE NEW METHOD were such men as Newton, Morse and Watt, and they worked mainly according to the method of the Arabian schools of the seventh to the tenth centuries. The principles of this method, the scientific method, are few and simple, and so in harmony with the laws of human development, that the youngest child in our schools is delighted in their daily use, and ascends the hill of science and sound learning without weari- ness, finding every lesson as interesting and health- ful as play itself. In accord with these principles the human race has made all its progress. In the following six or eight pages the attempt is made to suggest in a few instances the application of these principles to the mental development of the child and to the development of the race from barbarism. The objects which are the most essential to our well-being are those which are the most interesting : the rising and setting sun, the revolving stars and planets, a million species of living things, plant and animal, gems innumerable ‘‘of purest ray serene.’’ These objects all remind us that we inhabit a world of cause and effect — a world in which eternal and‘unchanging laws encircle us, and reign supreme. Since we live in a realm of law, how shall we study and comprehend it? We must go down into principles — into nature, and proceed at every step in accordance with the a Sees OF EDUCATION 5 nature of the child. Through the years between in- fancy and the school age, the child shows us in a de- cided way the direction in which nature impels him and guides his activities, and hence, the direction in which we ought to help him to go. To the child, the sky, the great blue dome which bends over the land- scape, is a real canopy directly over his playgrounds. Here he is delighted all day long in every object of sense —in every novelty of sound, color and form, in every bird, beast and insect, in the beautiful forms and colors of plants and flowers, inthe moving clouds ; and even the solid earth and sand and pebbles he treads upon —all are objects of interest, objects of study, and of wonder. Here in the realities of the world, so near at hand, are the perfect lessons for intellectual and moral culture, infinite in number and variety, created and perpetually renewed by Infinite Wisdom, for infinite good. Something of every science and art should be learned by children as soon as they can put it to use. This is the best, if not the only way of making facts permanent and always available. It is the child’s nature to observe, and as soon as he can talk he wants to tell every detail of his observation and experience. This oral report seems to be an essential part of his life. He continually brings the words he has learned into use, and this gives him complete success in ex- 6 THE NEW METHOD pressing his ideas in words. In school the child must soon begin to widen and improve his method by recording the results of observation in writing and drawing. ‘This very soon interests him even more than his oral method, which will still be useful to him. All nature is a unit, and the science of nature is only one science. The division of science into a dozen branches is right in the advanced stages of education, but in primary and grammar schools it is absurd, and fatal to progress. In all grades below the high school all studies are to be correlated, and learned as one subject. Children are always in- terested in this work, and they make easy and rapid progress inthe arts of reading, spelling, writing, com- position, punctution, drawing, and use of capitals, as well as in every branch of science. Whatever a child learns in school should be organized for his immediate use. Each lesson must involve principles which can be used, and will be used in the child’s free activities, in school and out of school. So far as it goes a child’s education must always be complete. From the beginning it must be a little system of philosophy for the child’s use: and it must be so pleasing and attractive to him, that he will always want to extend and widen it. The government of such a school is very easy ; for children OF EDUCATION 7 do not get out of order when their work is more interesting than play. The basis of a child’s education must be his own observation, and not the observation of another who has written a book or a reading lesson for him. He wants original ideas, not second-hand ideas. He is not satisfied with the shadows of ideas which come through words. By oral instruction and reading he may derive interesting and useful information, but information is not education, it is not inteliectual power, without which all education is radically de- fective. True education comes mainly through the inductive method. Every child, in the freedom of nature, intuitively educates himself in this method. He correlates and organizes impressions of all kinds through all the years preceding the school age, and he enters school with his education well begun. He has learned something of every branch of science, and at the same time has learned a language more thoroughly and in less time than the schools have yet been able to teach one. He has learned more of his environment than he will ever learn in school in the same length of time. The reason for his wonder- ful advance in education in these years of early child- hood, is because his method has been natural instead of artificial. Allthe great branches of learning should be intro- 8 THE NEW METHOD duced during the first week of school, not by separate lessons in each, but all combined in nature study. As all parts of the world are interwoven with each other, so are all branches of science intimately con- nected, and must be presented to the child as a single subject. Thetime for children to learn the spelling, meaning, and use of words is when they have occa- sion to use them to express their own original ideas. The same may be said of grammar, arithmetic, and all other branches to be studied before the age of twelve. True education from the first isa many-sided unit, and each side is kept bright by constant use. Among the popular criticisms upon our schools, there have been complaints of too many branches of study ; but really there is but one subject in the true method. It is natural for children to play; but in play they do many different things in a single game. They use the sense of sight, the sense of hearing; they walk, run, jump, talk, laugh and sing. Chil- dren’s play is made up of many parts, just as a lesson in school has, or ought to have, many parts or kinds of activity. In the true methods of school work, the teacher must observe the law of nature or his work will be a failure. He must do nothing for the child that the child can do for himself. General information may be derived from books and oral instruction, but these OF EDUCATION 9 can never give intellectual and moral power, which are the essential elements of true education. Until the child educates himself by his own efforts, wisely guided by the teacher, he will be very poorly educated. The study of nature in our schools awakens the child into intellectual life, and establishes in him the love of the beautiful, the true and the good. It en- ables the teacher to organize all branches of study into one symmetrical science, in which each branch helps to give meaning and interest to all the others. It converts the unnatural and wearing drudgery of the school room into the most delightful and health- ful work both for the teacher and the pupils. It gives us health and strength by alluring us into the pure air and varied scenery of the open landscape, for the observation of natural objects and phenomena, and the collection of material for study. The study of nature enlivens the imagination and awakens the latent energies of the child,— adds strength to his body, variety, activity and vigor to his mind. Besides saving the child from artificial stupidity so commonly produced by the arbitrary methods of the old education, it enables him to learn more in reading, writing, arithmetic and spelling in one week, than he can learn in a month in the common method. In our search for true methods in education we IO THE NEW METHOD find perfect models in nature’s method of educating the human race in its first steps in civilization. Na- ture does absolutely nothing for man that he can possibly do for himself; but the infinite sources of light and truth, with all their beauties and harmonies, are ever all about him, to educate him, to elevate his thoughts and help him to attain to wisdom. There was a time when our ancestors saw nothing around them but wild nature. There was no art. There were no tools of any kind to assist the savage in making a beginning in art. He had within him the germ of all art —the erm, of all science; but without the stimulus of environment that germ could no more expand and raise him out of his savage state, than the acorn can become the stately oak without the light and heat of the sun. The awakening of man’s dormant faculties into ac- tivity is and always has been the one condition of his improvement. Nature’s laboratories were in full operation preparing for the coming of man long ages before his advent. Although-the primitive man was ignorant of everything over head, around him, and under foot, the crust of the earth was a great storehouse of perfect material for the architect, the sculptor, the painter, the blacksmith, the copper- smith and the goldsmith. Just as long as man remained ignorant of the OF EDUCATION II properties of these things, and other products of nature, he was to remain a naked savage, sharing | the world equally with the wild and hungry beasts that howled around him. MHe was at liberty to wait a thousand years, or a thousand centuries. Houses to protect him by night from the lion and the tiger, and from the cold storm, would not spring up out of the ground for him. Nor would clothing or needles and thread, nor tools for the architect grow on trees. Nature had done all that ought to be done, and could wait for man to join his work with hers. Then, and not till then, could the arts have even the rudest beginning. This was the one condition of progress, and is to-day the one condition of progressive civilization. In the last analysis, man’s observation in nature, or what we call nature study, is the sure and only foundation and source of all civilization, the source of all science, all art. The savage who first observed that rocks are brittle, and can be broken down toa cutting edge, was the father of all sculptors. His stone hatchet, so useful at that time, is of no value now except as a curiosity and a help in the study of archaeology. We can hardly realize how rude were the beginnings of all man’s grandest achievements. Architecture is one of the oldest and most impor- tant of thearts. Through innumerable little improve- 12 THE NEW METHOD ments at long intervals, it has reached a good degree of excellence, and it is improving faster than ever. The barbarian who built the first house finished it in one day. With a modern axe he could have done it in one hour; but his axe was only a sharp stone, and he used his hand and arm for the handle. The primitive house had a ridge-pole, and that is the only part of it that has come down to our time. Each end of the pole rested on the branch of a tree, and for the walls of the house small evergreen trees stood leaning toward each other and the pole. The builder was well pleased with his house and thought it was’ perfect. But on a cold morning a month later the children were found covered with snow which had sifted through in the high wind. This set the architect to thinking how to improve his house and keep his family dry and warm. At last the way to do it dawned upon him, and soon he was bringing hemlock boughs to weave thick into the walls. For a while the house was again thought to be perfect. But on avery cold day a fire was needed, and the dry resinous boughs were soon in flames. The next plan was a fire-proof house. Rocks were piled one upon another for the walls; but open spaces . between them let in the cold air and snow. A happy thought the next rainy day resulted in plastering the house with mud. Soon as the mud was dry it crumbled away and left the walls as they were before. OF EDUCATION 13 After some study and experimenting with mud from several places a sample was found which contained a little clay mixed with the sand, and this became so hard and firm on drying that it lasted a long time. These little occasional improvements of many kinds continued for centuries, slowly improving the house, increasing the cost, and making the architect’s work more complex. Thus it has been with every branch of art and science from the rudest beginning, and thus it will continue, for every branch is progressive. x e PISTORICAL SKETCH The most wonderful of all civilizations that have yet appeared in the world is that of Greece. The Greeks not only originated nearly all branches of science and art on which modern civilization rests, but they dis- covered the methods which have made real progress in education possible. More than two thousand years ago the science of education was the culmination of their glory. At that time the school-masters were considered the true luminaries of the world, and they were honored above all other men. Only the bright- est intellects, the most learned, the wisest and best men could become teachers. About six hundred years before Christ the phi- losophy of the Greeks was becoming more philosophic. Each generation was correcting the errors of the past, and civilization was reaching a higher standard. Three men of learning and genius, Solon, the Law- giver, Thales and Pythagoras, philosophers and teachers, appeared at the same time. They gave their energies to the cause of education and philan- thropy. The disciples of these wise men became the teachers of Socrates; Socrates was the teacher of Plato; Plato was the teacher of Aristotle; Aristotle was the teacher of Alexander the Great, and the first to illustrate all the principles of the new education. 16 THE NEW METHOD With Solon, Thales, and Pythagoras, came the dawn of Greek science, which culminated in Theophrastus, Aristotle, Archimedes and the Athenian and Alex- andrian schools. Thus, three hundred years of un- paralleled progress had established in Athens, and in Alexandria, the educational methods found in the best schools of Europe and America at the present time. In many things the noted Greek teachers all differed ; but all agreed that real philosophy comes to us through the diligent search after wisdom in the book of nature ; and that all men ought to reflect in their lives the im- age of that order and harmony by which the universe is sustained and regulated. Theophrastus was the first scientific writer upon botany and mineralogy that the world ever produced. He wrote five volumes upon minerals, and ten upon plants. Aristotle was the father of zoology. He wrote fifty volumes upon the animal kingdom. Archimedes and Euclid were the greatest of ancient mathema- ticians, and have never been excelled. Pythagoras, Apollonius, Hipparchus, and Aristarchus explained the solar system as we understand it to-day. But their wisdom was completely smothered in Europe by the long dark ages. Aristotle was born B. C. 384. He was a pupil of Plato for twenty years in the great school at Athens, and then had charge of the same school. He soon OF EDUCATION Ey received a letter from Philip, the King of Macedon, as follows: ‘‘ Be informed, O Aristotle, that I have a son, and that I am thankful, not so much for his birth, as that he was born in the same age with you; for if you will undertake the charge of his education, I assure myself that he will become worthy of his father, and of the kingdom which he will inherit.’’ Philip’s son was Alexander the Great. Alexander was soon with Aristotle, and remained with him eight years, when he ascended the throne at twenty years of age. During these years Alexander fully appreci- ated his advantages and made remarkable attain- ments in all directions. He saw so much to admire in Aristotle’s methods that he became, from that time, an enthusiastic patron of learning; and his first act on the throne was to furnish Aristotle with material and all necessary appliances for the illustration of his methods in the school at Athens. ‘To accomplish this without delay, Alexander sent several thousand learned men to all parts of the known world to collect material for the illustration of every science. But to make a model school at Athens was only the beginning of Alexander’s influence ttpon education. Ambitious as a conquerer of nations, he was still more ambitious in making a better civilization for all men. It was Alexander’s ambition to conquer all nations, and combine all nations into one empire whose insti- tutions should all be permeated by the learning and Id THE NEW METHOD wisdom of Greece. He was maturing a mighty scheme for collecting all knowledge, for the increase of knowl- edge, and its diffusion throughout the world. The first move toward carrying out this plan was to invade and overthrow the rich and populous Persian empire. Persia had an area half as large as Europe, and next to Greece, was the most learned and cultured part of the world. It included all that remained of the older civilizations of Babylon, Egypt, Assyria, Chaldea, and Mesopotamia. The largest armies ever led to battle had been the Persian armies under Xerxes and Darius for the invasion of Greece. In the spring of 334 B. C., Alexander, with an army of only 40,000 men, crossed the Hellespont, and en- tered the Persian empire. Slowly he moved toward Egypt, conquered every city on the way, and defeated the army of Darius numbering 700,000 men. While in Egypt he founded the city of Alexandria, which he designed for the educational metropolis of the world. Soon after this Alexander renewed his march toward other great cities of Persia. After crossing the Euphrates he again defeated the army of Darius, numbering a million men. The gates of many opulent cities, with all their treasures, were now open to the Greeks. ‘Thence, the victorious army marched easter- ly to the Ganges river, conquered all that remained of Persia, invaded India, defeated King Porus, and took possession of thirty cities of India. OF EDUCATION 19 Of all military campaigns, this was the most re- markable, both in its purposes and its results. To thousands of learned Greeks the march through Persia was much more than a military campaign. It wasa thorough scientific study of the country through which they marched. At times it was like a grand excursion for sightseeing, recreation, and scientific observation, over a large, rich and populous country, abounding in the wonderful in nature and art. As soon as Alexander had conquered Egypt and the better half of Asia, he prepared to continue his march to the shores of the Pacific and take possession of all Asia in a single campaign. But his army had left their homes eight years before, and refused to march any farther except toward their native land. Alexander yielded to the wishes of his faithful warriors and soon returned to Babylon, which he in- tended to make the capital of the prospective new empire. In the midst of great plans for the recon- struction of his vast dominions, the completion of his educational plans, and the future conquest of the rest of the world, came Alexander’s death, in the thirty- third year of his age. The result of Alexander’s conquests in Asia and Africa we are to consider only in its educational in- fluence. But the grandest movement in education that the world has ever seen had already been formu- lated. Alexander had made Ptolemy the governor of 20 THE NEW METHOD Egypt, to have control of the educational interests of the world. On the death of Alexander, Ptolemy be- came king of Egypt. For carrying out the plan of Alexander, Ptolemy had in his treasury $400,000,000 in gold and silver. The magnificence of the buildings reared for the Alexandrian school I will not attempt to describe. They were built by the greatest architects of Greece, and adorned by the greatest sculptors the world has ever known. Surrounding these buildings were botan- ical gardens, filled with the living representatives of the flora of all nations ; zoological gardens represent- ing the living forms of the land and the sea; great temples filled with paintings, sculpture, and every art of the known world. Still more important than these was the library of 700,000 volumes, by far the largest library of antiquity. In short everything was done that could help to make a school for the collection of all knowledge, for the increase of knowledge by scientific investigation, and the diffusion of knowl- edge throughout the world. Under the reign of the Ptolemies the Alexandrian school,continued about three hundred years, until Egypt became a Roman province. During this time it had reached its greatest excellence. The students were from all parts of the world, and the average number for three centuries had been twelve thousand. Under Roman dominion the school was not kept OF EDUCATION a up to the high standard of its illustrious founders, or the luxury and indolence of the East had taken the place of the love of learning. But the methods of that school had been carried by its patrons to various parts of the world, and had taken root in many a schoolin Arabia and Persia and in Europe. 3ut the long dark ages, that followed the downfall of the Roman empire, blotted out of all Europe nearly every trace of the intellectual light that had originated in the Greek civilization. But in Asia, where Alex- ander a thousand years before had collected the gold to establish the great school, the science of the Greeks had been kept alive, and under its influence the Arab- ians and Syrians became a progressive people. Before the ninth century they had excelled in learning all the nations of the world at that time, and they held that position for many centuries. Although Alexandria was partly destroyed, and what Caesar had left of the great library was burned, the ultimate effect of the Arabian wars of conquest in the seventh century was to stimulate intellectual activity, and greatly accelerate the progress of sound learning. For the conquering armies, after they had well-nigh destroyed the results of Greek learning and culture, as they saw the ruined palaces, adorned with every art, as they thought of the half million rare books which they had destroyed, they became more thoughtful, and repented of their wanton destruction 22 THE NEW METHOD of the very source of all the splendor of the ruins that surrounded them. They soon began to cultivate the civilization of the conquered people, and restore to the world what they had destroyed. Books were collected at great expense from all sources, and trans- lated into Arabic. Schools and colleges sprang up, and learning revived in every part of the great empire. In the early part of the eighth century a Spanish noble requested Musa, the governor of Egypt, to send a military force to Spain to correct the tyranny of King Roderic, the usurper. Seven thousand men led by the brave general Tarik soon landed at Gibraltar, and in two years had taken nearly all Spain. Tarik established in Spain the best known civilization, giving all Kurope the means of rising above the thral- dom of ignorance and barbarism, and eventually bringing the dark ages toa close. From time to time thousands of the cultured families of western Asia and northern Africa were attracted to Spain by the genial climate, beautiful scenery, and fertile soil. Schools, colleges and universities were founded in the Alexandrian methods. A high civilization sprang up and flourished for nearly eight centuries. It became the best civilization in the world at that time. It held that position until Hurope had founded, on the Arabian models, learned societies and academies in every capital and large city. OF EDUCATION 23 The most enlightened artisans of Asia were induced to settle in Spain and introduce the arts of civilized life. The improved productive arts soon brought the comforts, conveniences and necessities of life within the reach of all. The decorative arts furnished orna- ments and elegance in dress and furniture. Spain became the garden and market place of Europe. _The neat, polite and well-dressed people made a strik- ing contrast with merchants from France, Germany and England, dressed in sheepskin or the untanned hides of other animals. The wealth, learning, elegance and refinement of Spain, nearly equaled that of the best parts of Kurope at the present time. Cordova, the capital of Anda- lusia in the tenth century, had a population of a mil- lion. hey had alibrary of 600,ooo volumes. Seville, Toledo, Grenada and sixty other cities and towns each had a large library, some of them rivaling that of Cordova. Here, after a precarious existence for centuries, was the beginning in Kurope of that modernized Greek civilization which was to spread over the entire con- tinent. One man in ten thousand saw the promise of better days for Europe from this source, and sent his sons to the Cordovan schools. Every student on re- turning home became the nucleus of a secret society for the promotion of learning. Menof worthy motives and independent judgment began to increase in all 24 THE NEW METHOD the populous centres. But there was no safety for such men till the seventeenth century. Still the work went on with increasing numbers and greater bold- ness. Learned societies were established on a larger scale, and more openly. The intellectual element had become uncontrollable. The Academia Secretorum Nature was founded at Naples in 1560; the Lyncean Academy in Rome, 1603; the Royal Society, London, 1645; the Accademia del Cimento, Florence, 1657; Royal Academy of Sci- ences, Paris, 1666. These and many other learned societies were all organized on the Greek models. Only the Greek methods have ever produced such men as Copernicus, Galileo, Kepler, Newton, Napier, and Javoisier. These and other illustrious names were the peers of. Archimedes, Ptolemy, Apollonius, Euclid, Aristotle, and Hero. Historians have never given due credit to the Arabians for what they did in the darkest part of the dark ages to save the results of Greek civilization from oblivion. National vanity and a difference in race and religion explain their treatment in Christian Europe. But their religion led them to be temperate in all things, tolerant, kind and true to all men. It led them to cultivate neatness, elegance, courage, chivalry, justice, and personal honor. But all Europe combined to destroy them. Each century diminished the Arabian territory, and what could not be done by OF EDUCATION 25 war, was done at last by the fires of the inquisition —the most cruel device to stifle liberty ever organized by barbarians, or by half civilized fanatics. Thus perished millions of Arabs, Moors and Jews, after having been a model for European progress from the earliest efforts of Europe to rise out of the darkness of the middle ages. Four hundred years ago there was not a newspaper nor a common school in all Europe. In the best parts of Europe only one person in a thousand could read and write. In other parts, including England and all northern Europe, not one in ten thousand could either read or write. Very few people cared to know these useful arts which all civilized nations now consider so essential. The first permanent newspaper in Europe was published in Italy soon after the middle of the sixteenth century. Seventy years later the ‘‘ Gazette de France’’ was published in Paris. The newspaper followed close upon the common school. Our English ancestors had neither of them till the middle of the seventeenth century. The art of printing, the common school, and the newspaper, in a general way mark the end of the dark ages which ruled over Europe more than a thousand years. We can hardly realize the condition of our ancestors three hundred years ago. Their houses were built of sticks and reeds covered over with mud. There was no chimney to carry out the smoke, and no glass 26 THE NEW METHOD to admit the light. Their tables and chairs were logs of wood set on end. Their beds were bags of straw seldom renewed, anda log fora pillow. Their clothing was made of leather or the untanned hides of animals, with no underclothing. Their food was chiefly beans, peas, fern roots and the bark of trees. Their houses and door-yards were filthy beyond expression. Only one child in four lived to be twenty. There were no sanitary conditions anywhere. The population was constantly thinned by pestilence, want, and the most appalling barbarities. The church was an organ for extorting money, and the clergy were the most crimi- nal class of people. The ignorance, superstition and anarchy that ruled in Europe through the middle ages were not quite but almost universal. A few thousand families, scat- tered here and there over Europe, lived from genera- tion to generation in a civilized way as far as it was possible in the midst of conditions worse than bar- barian. They remembered the achievements of their ancestors in the ancient empires that had passed away, and through their own efforts they had long hoped to see the dawn of a new civilization for the future of Europe. Five centuries of anarchy, war and confusion had been endured, with no change ex- cept increasing violence and barbarism. In the tenth century a ray of intellectual light ap- peared in the south-west of Europe but it served at OF EDUCATION 27 first only to make the surrounding darkness more apparent. A foreign race had settled in Spain in the eighth century, and had established great universities for the promotion of science and civilization. They had made Gibraltar the stronghold, not only of military power, but of intellectual and moral force. Here they built a line of colleges and universities, extending from Gibraltar a hundred miles toward the Pyrenees, and opened their doors to the young men of all nations. Practically, the Alexandrian school of the Ptolemies had been reconstructed by the learned men of Arabia, Syria, Asia Minor, and Egypt, and carried into Spain. They had restored the great Alexandrian library so far as possible, and transferred it to Cordova, the Spanish capital. The glimmering of light, radiating in the tenth century from the Arabian schools in Spain where the best families in Europe were educating their sons, hardly seemed like the dawn of a new civilization for all Europe, but such it is proving to be, not only for Europe but for America, and eventually the whole world; for some parts of Asia and South America are already under way in the new education. From the tenth century to the fifteenth, the schools of Spain attracted young men from all parts of Europe. On completing their studies they carried to their homes the spirit of the Spanish Arabian schools, which was 28 THE NEW METHOD at that time the spirit of the ‘‘new education’’. In the course of time these men began to organize for educational purposes, France, Italy, and Germany taking the lead. Academies of art and science sprang up, only to be closed by the ecclesiastical power. Men who wished to pursue science must do it in solitude and silence, if they would escape the cruelties of that ignorant and intolerant age. But the time came when the light of science could no longer be smothered, for it had been kindled in too many places, and the darkness of the middle ages must disappear. From Spain an influence had gone forth over Europe that the fires of the inquisition could not destroy. The astronomy of Pythagoras had been revived in Arabia and was silently taking deep root in Europe. In the interest of commerce, sailors and merchants were se- cretly consulting astronomers as to the size and shape of the earth, and a better passage to India. Intel- lectual activity was increasing in every part of Europe. The spirit of individualism and adventure had been awakened by the three great voyages. People were eager to hear the news of the day, the wonders of science, the stories of the new world, of the mountains of gold in Peru, and of silver in Mexico. The two impulses, the intellectual and the moral combined, which finally brought the dark ages to an end, did not spring up at once. Both were germinat- OF EDUCATION 29 ing inthe ninth century. Both were annually rein- forced and enlivened by the exodus of a thousand young men from the Arabian schools. Both impulses were taking deeper and deeper root in the nations of Europe six hundred years before they culminated in establishing the principles of modern European life. Thus the spirit of improvement which had its be- ginning in the schools of Spain in the darkest part of the dark ages was the cause of the common school and not the consequence of it, as many have supposed. The common school had its beginning in southern Europe in the sixteenth century, and in the northerly parts a hundred years later. What learning there was at that time, except that derived from the Arabian schools, was confined to bishops, monks and other ecclesiastics. Men who knew the methods of true education could have no voice or influence in organ- izing the school, or formulating its methods. The schools at first were reading schools and nothing more. The priest of the parish was the teacher because nobody else could read. But when a genera- tion of readers had grown up, any one who could do the necessary flogging could teach school. The expectations of the reading schools have never been realized. At the end of the sixteenth century there was disappointment everywhere. In the next century arithmetic and writing were introduced, but at the close of the century the disappointment was no 30 THE NEW METHOD less than it had been a hundred years earlier. Before the middle of the eighteenth century many people be- came out-spoken in their criticisms of the schools. They claimed that the method must be radically wrong, for in two centuries the public school had done but little toward raising the people out of their ignorance and degradation. The first of the noted writers on this subject was Rousseau in France. In 1749 he wrote that the children learn nothing but words and no real knowl- edge, that books rob a boy of his mother wit and he becomes a machine and a dunce. He said that what real knowledge a child receives comes through the senses, which are the basis of the intellectual, and that books are useless until the child is ten years old. The next distinguished advocate of better methods in education was Henry Pestalozzi of Switzerland. He opened his first school at Neuhof in 1775. Pes- talozzi rejected as worse than useless the book learn- ing which prevailed in all public schools at that time. He said that a man who has only book learning is less susceptible to truth than a savage. For nearly a hundred years Germany has been the educational centre of the world. She is exerting a great and increasing influence in all the progressive and most highly civilized nations, by illustrating the true or at least the best known methods of educating a child. It becomes us, then, to inquire how Germany OF EDUCATION 31 has gained the intellectual lead of the world, and how we may put German wisdom into our own schools. During the first few years of the last century Europe was shaken to its centre by the repeated vic- tories of the French and allied armies under the lead of Napoleon Bonaparte. Upon the defeat of the Germans in the battle of Jena, in 1806, and the en- trance of Napoleon into Berlin a few days later, the despair of Germany was complete. The last days of that year found all Germany without one ray of hope for the future of their country. But in the early part of 1807 it began to be manifest that national vitality was still there; and it soon began to show itself in a spirited manner in the management of such social affairs as Napoleon still allowed them to control. It was during this period of subjugation and despair that a few of the ablest and best patriots were already devising the means of national reconstruction. ‘They had lost all hope of immediately improving their con- dition. Their hope of ultimate success was in armies stronger physically, stronger intellectually and mor- rally: men who could utilize all their strength through an educated will. In allowing Germany to control her own educational interests Napoleon struck a chord that has never ceased to vibrate. In a public lecture at Berlin in 1807, the noted philosopher Fichte used these words: ‘‘ That we are no longer able to offer an active resistance is obvious 32 THE NEW METHOD to every one. Howthencan we regain and defend our national existence? In no other way than by raising up a worthy posterity. There remains for us no sphere in which we can act as an independent state, except that of education. And I have only this hope to live for, that I shall convince some Germans that it is education alone which can save us from all the evils by which we are oppressed.’’ At this lecture were high officers of state, kings, queens, princes, min- isters of education, and noted teachers to represent the new education, then in its infancy in the public schools of modern Europe. The applause of the great audience became enthusiastic as the philosopher promised not only deliverance to Germany through national educa- tion, but declared that it would result, in the end, inthe emancipation and reformation of the entire human race. To the question whether there is any known method of human development sufficient for such a result, the lecturer said there is; ‘‘a method which had been invented by Henry Pestalozzi, which is now successfully carried out under his direction, at Yver- don, in Switzerland.’’ As this method of eventual deliverance through education was clearly set forth and fortified by argument, it took strong hold of the public mind. It seems that several other distin- guished men had already been thinking of the new education as the surest foundation of national strength, and the true palladium of liberty. OF EDUCATION 23 Soon after this meeting in Berlin, Nicholovius, the Prussian minister of education, wrote to Pestalozzi as follows: ‘‘ At last my venerable, unforgotten friend, I have the pleasure of seeing some rays of thy light penetrate into the schools of my fatherland. What I have dreamed at thy side, what we have dis- cussed in letters, will soon become realized as a work of absolute necessity. With us the march of events has ruined everything, yet courageous men are already bent upon reconstruction. Ob help us to foster the work which thou hast founded. May thy life be spared in order to complete thy work as far as possible.’’ Carl Ritter, soon after a visit to Pestalozzi’s school, wrote to him thus: ‘‘I cannot tear myself away from the mountain scenery of Helvetia without devoting to thee, O Father Pestalozzi a silent tear. May it tell how deeply I feel what thou art to humanity. How could I ever forget the time I have spent amidst thy new creations. Even had I gained nothing by it but a renewed faith in humanity, I would consider myself amply repaid. ‘“My ardent desire to see the champion and martyr for truth and love, and to be refreshed at the living source of his life and example, has been granted; and I return with enlarged feeling into this cold vortex of life. Ithank thee venerable father, for thy affec- tion. It has taught me a warmer and purer love: It has strengthened my arm for the struggle with the 34 THE NEW METHOD world, which every one, to whom life is more than death must undergo. But blind humanity passes by the law of nature, until a Newton shows its applica- tion in mathematical science, a Lavoisier through the maze of experimental philosophy, and a Pestalozzi in the wider field of human development.’’ In 1808 the Prussian government sent twelve well educated and carefully selected young men to Yver- don, to learn the details of Pestalozzi’s principles and methods. Nicholovius said to them: ‘‘ The object of sending you to Pestalozzi is not merely that you may study the external or formal part of his system, but that you may warm yourselves at the sacred fire which is glowing in the bosom of that man, who is full of power and love; that you may walk with a similar spirit in the path of truth, and in the observa- tion of nature ; that you may become simple as children in order to obtain the key with which to open the © sacred temple of childhood; that you may learn to simplify the elementary part of each science by leading the child directly into the realities of the world through the use of his own faculties, and thus strengthen his mind, by vigorous nourishment, for the application and popular use of knowledge.’’ These students made rapid progress at Yverdon, and on their return they established normal schools which in a few years furnished a large number of earnest and competent teachers. By these and other means the schools of OF EDUCATION eis Germany were organized on a new basis, and a hope- ful and vigorous life was felt throughout the land. In 1813 the allied armies defeated Napoleon in the battle of Leipsic, and Germany was again free. Almost as soon as a generation had grown up in the new education, Germany had occasion for using all the power her armies had gained through its means, to show the world whether there was any reality in her dreams of power to preserve her liberties through an improved method of education. In 1870 France declared war against Germany. Germany did not hesitate for one hour. Full of life and energy, Germany once more grappled with the great power that had invaded her homes sixty years before. The best-educated army the world has ever seen immediately moved toward the proud capital of France. Two hundred miles from Paris the two great armies met. Forthe French it was utter defeat in every battle. Ina short campaign of seven weeks, the Germans had taken 260,000 prisoners of war, and turned the red battlefields into great cemeteries for the dead soldiers of France. Paris itself was soon invested, and France, which had been the terror of all Europe for a century, was completely broken. It was to be expected that a method of education originating among German-speaking people, would spread much more rapidly where their language is used than in countries speaking different languages. 36 THE NEW METHOD Not until 1830 did the government of France make any attempt to introduce the new education, and her public schools had fallen far behind those of Ger- many. Then a vigorous movement was made in France to raise public instruction to a better standard by the appointment of Victor Cousin as minister of education. He began his work by first making himself acquainted with the best school systems of Europe. In his report he was emphatic in the statement that the schools of Germany are far superior to all others in Kurope. He recommended the immediate recon- structiou of the schools of France on the German models. He seemed almost to feel obliged to apologize for studying and recommending the school system of a rival nation. He told France that she ought not to lose the experience of Germany — that national rivalries and antipathies would here be entirely out of place. .He fartherssaid: “‘I amas great an enemy as any one to artificial imitations, but let us not reject a thing because it has been thought good by others. We constantly imitate England in many ways, and to our great advantage. And why should we blush to borrow something from kind, honest, pious, learned Germany, in what regards inward life, and the nurture of the soul.’’ But the system advocated by Cousin was only par- tially carried out, and primary education in France has never attained to the standard of Germany. Pee at PEEL USERATIVE EXAMPERS GRADE I. THE First DAy IN SCHOOL, AND WHAT WAS DONE BY CHILDREN SIX YEARS OLD. SONG. Morning’s golden light is breaking; Tints of beauty paint the skies; Happy song-birds now are waking, Let their songs to heaven arise. This is a fine morning to begin your first day in school. Afterthinking a moment you may tell a few of the interesting things you saw on your way from home. Bessie —I saw a bird’s-nest up very high in a tree. fTelen —I saw a little boy playing in the sand. Ida —I saw a white rock on the wall. Join —I saw some red clover and some white clover. Did any of you find out what makes it so light that we can see all these things so nicely? May raise your hand if you can tell what makes it so light every day and so dark every night. /da —'The sun rises every morning and makes it light. Does the sun stay in one place after it rises ? May — As soon as the sun rises it goes up higher 4 : THE NEW METHOD and moves along all day in the sky and gets to the place where it sets, and then it gets dark ina little while. May tell all you know about the sun. Nina — The sun is round. Olive — The sun is very bright. -:lla — The sun rises in the east. John — The sun lights up the world. Flenry — ‘The sun warms the ground and the air. Edith — When the sun sets it makes the clouds red and yellow. Jane— The sun makes the sky and the clouds look bright and beautiful. The sentences above, given orally by the children, were taken for their first lesson in reading. In the afternoon their reading was selected, as given below : — “Seas roll to waft me, suns to light me rise, My footstool earth, my canopy the skies.’’ — Pope. ‘“The sun rides through the azure sky, And beams upon us from on high.”’ — Romaine. “From blue to red, from red to gold, from gold to gray, So turns the sky, so fades the light, so ends the day.” —Ermy. ‘The rising sun had newly chased the night, And purpled o’er the sky with blushing light.”’ —Dryden. OF EDUCATION 5 The present approved method of learning to read has resulted from the proper combination of all that is good in every method that has ever been used. No method has been entirely wrong, but the worst of all methods is that which was used almost universally in Europe and America until quite recently, and is still used in many places. It wastes the time and energies of the child on the least important of all the details of learning to read. Under that method, simply the name of each letter was first learned, and that gave no direct clew to the sound of the letters, or the pronunciation of words. The child must learn to pronounce words at sight by the same general method by which he has learned the looks and name of hundreds of other things which he can name at sight without hesitation. The true order is to observe the whole thing before we investi- gate the different parts and the smaller details of the parts. In learning to read the sound of the letter is much more important than its name, but both should have careful attention from the beginning. SPECIMENS OF WORK DONE LAST PART OF First YEAR. The first move toward explaining the principles of the New Education will be the presentation of a few 6 THE NEW METHOD samples of work in all the grades, exactly as written by the children while the object described was before them for their inspection. It is hoped that these records will, to some extent, show what modern ap- proved methods are. School work should begin by learning things near at hand, especially the things that concern people of all ages. Nothing is nearer to us than the air we breathe, the light, heat, and other influences of the sun, the earth we tread upon, and the vegetable world around us. These are the sources of life, health, and true culture. They are the foundation of our industries and our wealth. THE LANDSCAPE. ‘* A Jandscape is all the land and everything the land contains as far as we can see in all directions. When we are in a valley we can see but a little way, and if we wish to see a large landscape we must go tothe top of a high hill or a mountain. Yesterday we all went to the top of a high hill to see the landscape that surrounds our school. On our way we saw fields of grass and corn, pastures full of sheep and lambs, lawns and gardens, woodland with many kinds of trees, squirrels, birds and butterflies. When we were at the top of the hill we saw the great landscape reaching to the horizon in all directions. OF EDUCATION if The largest things in the landscape were thé moun- tains in the west and north, and the great hills in the east.’’ NINA. TBH SEY. ‘“The sky is the largest sight that we can ever see, and one of the most beautiful of all sights. It seems to be just as broad as the landscape, and it reaches down to the horizon all the way around. The sky looks like a great hollow dome, or canopy perfectly rounded in every part. It contains the blue air that keeps every plant and animal alive, and the beautiful clouds always changing their color and shape. The sun and moon are in the sky a part of the time, and the stars are always there, but we can see them only in the night because they are so far away.’’ DoRA. THE TRILLIUM PLANT. We all had a beautiful Trillium plant to study this morning, and we are going to describe it in writing. The Trillium grows about six inches high, and it is a very interesting little plant. The lower part of the stem is pink, and it shades off into light green in the upper part, and dark green at the top. ‘* The plant has only three leaves and they grow in a whorl near the top. The leaves are large for a little plant like this. They are more than three inches long and half as wide. They have a great many 8 THE NEW METHOD veinlets growing out of the veins, and they divide the leaf into little parts of many funny shapes. The leaves are ovate, and they have an entire margin and a sharp point at the apex. ‘““The Trillium has but one flower, but it is large and beautiful. The flower has three sepals, three petals, and six stamens. The petals are mostly white, but each one has several pink lines running half way up from the calyx. The Trillium plant grows in all the New England states and in Canada.”’ WILL. ‘We have just had a short lesson on a very com- mon little butterfly, called the Colias philodice. It is a very beautiful and interesting insect. Like all other butterflies it has.four wings, six legs and two antennae. The wings expand about two inches. The general color of the wings is yellow, of the brightest shade.” All the wings have a black or very dark border all around them. On the forewings the border is much wider than on the hind wings. Near the middle of each front wing there is a small black spot, and a little place in the center of it is trans- lucent. On the hind wings there is an orange spot, and all around it there is a ring of dark yellow. Along the border of all the wings there are yellow spots in a row near the edge. These butterflies live OF EDUCATION 9 only about thirty days, but they seem to be very happy while the sun shines, and they go from flower to flower for the honey.’’ ROSIE. ‘“The weather has been very changeable ever since sunrise. Early this morning the sun was shin- ing, the air was clear and the sky was blue. There were no clouds except a few cumulus clouds near the zenith, and they were as bright and beautiful as pos- sible as they changed into many curious shapes. Just at school time it grew darker, but cleared up in a little while, and then grew darker once more. At recess time the whole eastern horizon was bright blue, with a few lovely stratus clouds from ten to twenty degrees high. ‘The wind blows gently from the west now, at the rate of a mile an hour, I should say. We used some thistle-down in the garden to see which way and how fast the air was moving. Just before recess we had several nice and very inter- esting experiments to show us the properties of the air.’’ BESSIE. THE BUTTERCUP. ‘“The early buttercup is an interesting plant. It grows only a few inches high. It blossoms very early in the spring, and the flower is bright yellow. The calyx has five parts, and the blossom has five petals. The petals are about half an inch long.’’ JOHN. ice) THE NEW METHOD ‘“The Clintonia is a very beautiful plant. It is generally found in damp woods. It grows nearly a foot high. At the top it bears four or five large nodding flowers. The Clintonia grows in the six New England States, and westerly to the Mississippi River.” BESSIE. ‘“The Sanguinaria plant, or Blood Root, is very beautiful. It grows in very rich, damp soil, and blossoms quite early. The sap of the roots and of all other parts of the plant is red and bitter. The leaf has eight lobes, and there are rounded sinuses be- tween them. The flower is white. It has two sepals, eight petals, and about twenty-four stamens.”’ IDA. ‘“The Uvularia is a very interesting plant. It grows in damp shady places and is about eight inches high. Near the top it divides into two parts. One part has only leaves — the other part has leaves and one large flower. The flower has six light yellow petals nearly an inch long.”’ SUSIE. ‘The Potentilla argentea is a verysmall plant. It grows in dry, hard ground where most other plants never grow. This little plant has very pretty yellow flowers from June till September. The flower has five sepals, five petals, and many stamens. Each leaf has five leaflets. The under side of the leaf is OF EDUCATION II much lighter green than the upper side. .There are a few small teeth on the margin of the leaflets near the apex.”’ May. ‘“The Aspidium spinulosum is a very beautiful fern. It grows in the woods. It will grow in past- ures where there are a few trees to shade it a part of the time. The frond has a graceful lanceolate form, and it is twice pinnate. In good soil this fern grows about fourteen inches high.’’ JANE. THE WEATHER. ‘‘“This is a very pleasant day. The wind is very nearly west. The sun is shining brightly. ‘There are a few stratus clouds near the western horizon, and some cumulus clouds near the zenith. Both these kinds of clouds are fair weather clouds. We can see the beautiful blue sky in many places through the clouds. ELLA. THE WEATHER. ‘At recess this morning the air was very still, and there were no clouds at all. At noon there were stratus clouds just above the horizon, cumulus clouds half way to the zenith, nimbus clouds down low in the east, and high above them over a large space there were cirrus clouds of many shapes, and there was a cold east wind.’’ OLIVE. 12 THE NEW METHOD "Tt ig very warm today and the sun shines about half the time. ‘The other half of the time the sun is behind a large cumulus cloud. ‘‘ Yesterday it was very foggy all day and the sun- beam could not get through the fog. The sun is so far away I should not think the light could go so far even when the air is clear.’’ EDITH. ‘‘We had three very interesting experiments this morning to show that air swells or expands when it is warmed. When we think there is nothing in a dish or a bottle it is always full of air. The ap- paratus used was a round flask of thin and very clear glass, a bent glass tube in a cork, and a small glass tunnel in acork. Water was poured into the tunnel, but it would not run through into the flask until a part of the air came out.’’ HENRY. ‘«’T’he sun rises very early now, and soon we shall have the longest day of the year. Soon after sunrise this morning the dew-drops were very thick on the grass and on all other plants. ‘‘Just as the sun went down last night some of the clouds in the west were brighter than gold. One cloud had four or five shades of red. The lightest shade was pink and the darkest was crimson.’”’ NINA. GRADE. II. THe LITTORINA SNAIL. ‘Tt lives in shallow water around every sea north of the equator. The shell is quite pretty. Itis nearly an inch long and half as wide. The body whorl is yellow, and is covered with rows of little ridges. The apex is very sharp, andisof adark yellowcolor. The aperture is round and one side of it is light green. The inside of the shell is white, and I can see some parallel, raised lines there. The snail is a very slow one, for it can go only four inches a minute. It is an herbivorous snail, for it eats nothing but sea-weeds.’’ IMA. THE CYPRAEA ONYX. ‘“The general color of thisshell is brown. ‘The body whorl is light brown, with a spot of white on the back near the middle. On the body whorl near the aper- ture there is a stripe of dark red. One part of the stripe is light brown. The aperture is quite wide. The outer lip is dark brown, and there are seventeen teeth on it. The teeth are red and the spaces be- tween them are dark brown. ‘* This shell is found in the shallow water of the 14 THE NEW METHOD Japan Sea, Yellow Sea, Blue Sea and China Sea; also on the shores of all the Japan Islands.’’ EDIE. ‘‘The Strombus gigas is a very big shell. My shell weighs three pounds and a quarter, and it is nine inches long and seven inches broad. It has ten whorls and the body whorl is very large.’ Each whorl has seven or eight spikes, or spines. Each spine on the body whorl is an inch high, and on the next whorl half as much as that, and the next the half of that, and it goes on that way till they get very small. There are seventy-nine or eighty spines on my shell. The aperture is pink, and near the edge of the outer lip it is salmon color, and it is scalloped all the way. Where the spines show inside it is hol- lowed out, and the hollows are very dark pink. This is the prettiest shell that I have ever studied — it is so large and handsome. ‘These shells were found on the shores of Hayti. They are also found on the shores of Cuba, Jamaica, Porto Rico, all the Bahama and Caribbee islands and all other islands in the Caribbean Sea.’’ IDA. “When I got up this morning it was very cold indeed, and the window was covered with frost. Although the sun shines very brightly, it does not make the air warm. There is a very strong west OF EDUCATION 15 wind, but it does not very often blow any clouds across the sun. Last night the nimbus clouds began to gather in the south and east and it soon began to snow very fast. The flakes were large and very per- fect in shape. They were all the same beautiful shape, and had six sides more symmetrical than any one could possibly draw them. The snow in the public garden is a foot deep, and the wind drives it about every way; and the drifts are the highest I ever saw. ‘‘In our science lesson after recess we had an experiment ona mineral called Iceland Spar. It was put in water and the water had no effect upon it, but when muriatic acid, which looks just like water, was poured in, it instantly drew away the atoms of the rock, one from another. I enjoy these lessons and experiments very much indeed.’’ MINA. ‘‘ The Tapes literata belongs tothe family of Ven- eridae. It is two inches long and one inch broad. Its color is light brown with dark brown spots. The lines of growth are slightly raised, and parallel to the edge of the shell. The hinge is very small and is not in the middle. ‘This shell is found on the shores of India, Andaman and Nicobar Islands, Ceylon, Mal- dive and Laccadive Islands. ‘The market place is at Colombo, the capital of Ceylon.’’ ANN. 16 THE NEW METHOD ‘‘Our lesson in shells today was upon the Natica mamilla, a shell from the family of Naticadae, a fam- ily which none of us ever has studied before. This shell is a remarkably pretty one, for it is pure white. The body whorl is very large in comparison with the spire. ‘The shell is less than an inch long, and it is, shaped like a semi-circle. It is quite thin at the edge, but it becomes quite thick at the middle of the body whorl. ‘This shell may be found on the shores of all the Islands north of South America, in the Caribbean Sea.’’ THE CyPREAE RETICULATA. “This is a very pretty shell. It 1s found om the coast of the Celebes Island, and all other East India islands. The shell is about an inch and a quarter in diameter and nearly four inches in circum- ference. On the back of the shell there is a very light green stripe running the whole length. In the aperture there are short, brown ridges. The shell is mostly covered with. white spots and dark brown stripes.” JAMES. ‘The Trochus niloticus belongs to the family of Turbinidae. The spire is a perfect cone about three inches long and two and a half inches broad at the base. It has five whorls. It is a very beautiful OF EDUCATION 17 shell, for the outside is covered with a pearly enamel, and when it is held in the light it is iridescent in many places. ‘‘’This shell is found on the shores of the China Sea, the Yellow Sea, and around the Philippine Islands and the Formosa Islands.’’ Lucy. SHELLS OF TORRID ZONE. ‘The Cassis testiculus resembles in many respects the Cassis vibex. It is somewhat smaller, being only about two inches long, and about an inch and a quar- ter in thickness. It is of a pink-white color, deeper in some places than others. There are grooved lines running around the shell parallel to the suture, and rows of ribs crossing them at right angles. The outer lip turns back like that of the Cassis vibex, and has brown stripes crossing it at right angles to the edge. The aperture is longer and narrower than that of the Cassis vibex, and there are larger teeth on the inside of the outer lip. The inside of the shell is white. The inner lip is white, and has teeth, which are smaller than those on the outer lip. At the base of the aperture there is a deep canal. ‘The spire is of a lighter color than the body whorl. ‘The apex is sharp, and is white. The suture is not deep. This shell is found on the shores of Ceylon, the Lac- adive and Maldive Islands, Sumatra, Borneo, and New Guinea.’’ BESSIE. 18 THE NEW METHOD THE WEATHER. ‘This isa warm sunny day. This morning there were large nimbus clouds all along the southwestern horizon, and I felt sure it would rain; but after a few hours the whole sky was quite clear, and the color of the sky was a very pretty shade of blue. ‘““Vesterday morning I could see no clouds but some long stratus clouds in the west, and a few cumulus clouds up very high. As both of these are fair weather clouds, I was sure it would be fair all day; but a little before the middle of the afternoon it rained hard, and there was a strong wind. ‘‘One of our problems today was to find the weight of calcium, carbon, and oxygen in a pound of calcite.”’ JOHN. THE WEATHER. ‘‘Tt is not a very fine day, and the sky looks as if we should have rain. This morning it was snowing when I came to school. The flakes were small and were driven about and broken by the wind. ‘The nimbus clouds were heavy and dark, but I could not see them very well because the sky was dark, too. ‘“T saw a few snow crystals that were not broken. They had six sides and six points. Every part was made very beautiful by other little crystals all over the larger parts. Waterisamineral. Like all other OF EDUCATION 19 minerals it has its own forms. ‘The dew and rain drops are globes, because all the atoms are drawn toward the centre... . ‘‘This is a pleasant day, though the wind is from the north and it is quite cold. There are a few stratus clouds in the west, and several large cumulus clouds high up inthe sky. The blue sky is almost hidden except along the horizon between the long stratus clouds. The ground is covered with snow and ice. The temperature this morning was eight above zero. ‘“ We had very interesting experiments this morn- ing to show how much the air expands when it is warmed. A flask that holds one cubic inch was warmed, and we saw the bubbles of air as it was forced through a long glass tube into another flask.’’ JOHN. ‘“This morning it was very cloudy and misty and dull, and I thought it would rain, but when I came to school it was so cold that I thought it would snow, and a little before recess it began to snow lightly but now it is snowing hard and fast. ‘* After recess we had a very nice experiment which surprised us all. A very little of a bright red powder was put into a small test tube, and the tube was heated two or three minutes. The powder had been separated into oxygen, which filled the tube, and 20 THE NEW METHOD mercury which we could see inside of the tube in little globes at the top of the tube.”’ SUSIE. ‘“The wind is blowing quite hard today, and it is very cold. The sky is all covered with thick, dark and gray nimbus clouds, and although it was very pleasant this morning and the sun was shining very brightly, now it is dark and looks as if it would rain very soon. ‘“We had experiments after recess to show that shells are composed of oxygen, calcium and carbon, the same as all marble and limestone. Forty-eight per cent. of a shell is oxygen, 40 percent. is calcium, and 12 per cent. is carbon. “Tn our arithmetic lesson we found the weight of each element in several shells which were weighed before us for our problems in arithmetic.’’ CorRA. ‘““'This is a warmand sunny day. ‘Thesky is blue, and half covered with large white cumulus clouds. We have had a lesson upon a very beautiful mineral called calcite. It looks like ice, but not so clear, but it is translucent. ‘The sides of a crystal are either square or oblong. ‘The sides have two obtuse angles, and two acute angles. A crystal of calcite is a rhom- bohedron, for a cube has all right angles. ‘Calcium is a rare metal. It is yellow, and it OF EDUCATION 21 costs ten times as much as gold. Carbon isa black element generally, but a diamond is crystalized car- bon, and it is the hardest of all minerals.’’ DAvip. ‘“At recess the wind was easterly and the sky was mostly covered with dark nimbus clouds. ‘The wind blows at the rate of about seven miles an hour. I think it will snow before night. ‘This morning we had several experiments on the most abundant of all the elements. Its name is oxy- gen. A coarse white powder like salt was put into a flask and heated in the flame of alcohol. The "oxygen was separated from the powder and forced through a tube into some glass jars. Then a piece of iron wire was put into the jar and it burned, mak- ing a very bright flame, and sparks went out every way.”’ JOIE. ‘“It is very pleasant today, and is much warmer than it has been for some time except yesterday, when the ice was melting and dropping from the houses. Today, though the sun is shining, the ice is hard and smooth. Yesterday the sky was covered with very interesting cumulus and stratus clouds. They all had a reddish tinge, but were ornamented with many other colors and shades, and a great variety of shapes which were changing all the time. 22 THE NEW METHOD Weare never tired of studying the sky, because it is always beautiful and always changing. The sky now is of a very pretty blue with soft white clouds in some parts of it. They do not seem very far up in the sky.”’ SARAH. THE BLACK CHERRY TREE. ‘“There are forty kinds of cherry trees in the world, and ten of them grow in the United States. The wild black cherry is one of our best timber trees. The wood is light and pretty. It has a great deal of silver grain, and the rays are long, fine, and close to- gether. The color of the sap-wood is white. The heart-wood is light red, with darker stripes running through it. The wood is used for bureaus, tables, school desks, window sashes, posts for stair rails, and many other things. The bark is gray outside, but the inner bark is light yellow next to the wood, and darker near the outer bark. ‘The leaf is ovate and comes to a point at the apex. It is finely net-veined, and the margin is very finely serrate. ‘This tree grows in all parts of North America be- tween the Gulf of Mexico and Slave Lake, Hudson Bay and Hudson Strait. But it grows best half way between Hudson Bay and Gulf of Mexico. There, all through the basins of the Missouri, Mississippi, and Ohio rivers, it grows a hundred feet high and five feet in diameter.’’ GEORGE. OF EDUCATION 23 ‘* For study in science today we have Pyrite, which means fire-stone. One of our specimens is massive, and the other is in small crystals. Each crystal isa perfect cube. A cube has six equal sides, eight cor- ners and twelve edges. Pyrite is harder and heavier than any other mineral that we have studied. When broken it has a rough surface and a bright yellow color. When I turn it in the light it glitters like gold, but there is no gold in it at all, for it is 47 per cent. iron, and 53 per cent. sulphur. One of our problems to-day was to find the amount of iron and sulphur in a pound of pyrite. We all found it to be 3290 grains of iron and 3710 grains of sulphur. For the proof we add these, and it makes a pound or 7000 grains. ‘Our pyrite came from Ceylon. It is also found on the islands of Sicily, Sardinia, Cyprus, Corsica, Candia, Ceram, Gilolo, Borneo, Java, Sumatra and New Guinea.”’ j ANNA. PLANTS. ‘‘The Iris versicolor, or-common blue flag, is a very beautiful plant. ““Tt grows from two feet to three feet high, but it is never found growing on dry land. It grows best in very damp ground where the soil is rich and dark colored. 24 THE NEW METHOD ‘‘Tt is an endogen plant; that means that it keeps growing up out of the middle like corn and wheat and all kinds of grass. ‘“The stalk is always crooked, and it is not quite round, but it is oval shape. Some of the leaves are nearly a foot long, and they are parallel veined. ‘* The flower is very large, and is purple in color. The flower has three sepals, three petals, three stamens, and three pistils.”’ EDITH. BUTTERCUPS. ‘The Ranunculus bulbosus is a very beautiful little plant. It grows about ten inches high, and is gen- erally found on-dry, rocky hills. ‘“'The root looks like a turnip, and there are fine fibres growing out of it. ‘‘There are many fine white hairs growing on the stalk. The flower is bright yellow. It has five sepals, five petals and nearly forty stamens. There are a great many pistils and they are green. The stamens are yellow. The petals are half an inch long, and there are parallel lines running lengthwise on both sides. This plant is one kind of buttercup, or crowfoot. NINA. THE HILLS AND VALLEYS ‘‘ Today the air is soft and warm, and there are no clouds inthe sky. Yesterday we went into the woods OF EDUCATION 25 ona high hill. The hill is covered with large trees of many kinds. We found sugar maple, beech, oak, poplar, white ash, and many other trees and shrubs. I think the white ash trees are the prettiest of all, they are so tall and straight. The leaves have come out on the sugar maple trees, and the buds are open- ing on some other trees. ‘The wild red cherry tree grows only about twenty feet high and its trunk is from three to six inches in diameter. It is very common in all the river basins in Maine, New Hampshire and Vermont. It blos- soms in May and is then a very showy tree. Inthe last part of summer it is made beautiful again by its bright red fruit. ‘The leaves of the red cherry are about three inches long and about half as wide. They have a serrate margin anda sharp apex, and both sides are bright green.”’ EuRA. THE ASPIDIUM NOVABORACENSE. ‘“The Aspidium Novaboracense, or New York shield fern, as it is sometimes called, is found chiefly in New York state, but it is found as far south as the James River, west to Ohio and Lake Huron, and north to the Gulf of St. Lawrence. It is found grow- ing in both sun and shade, though it prefers a damp, shady spot. It grows generally about one foot and a 26 THE NEW METHOD half high and nearly three inches wide in the broad- est part —the middle. ‘* The stipe is about four inches long and is grooved on its upper side. ‘« The pinnae are sometimes nearly two inches long and half an inch wide. There are twenty-two pairs of pinnae on the rachis — some are opposite, but most are alternate. ‘The pinnae are divided into pinnulae or lobes; there are about forty-four pinnulae on the second rachis and they are all opposite.”’ ISA. GRADE III. THE HEMLOCK TREE. ‘“The Hemlock is one of the best of our forest trees. It is a graceful and very useful tree. It makes the best timber for the frame of a barn ora house. The bark is used for tanning leather. The wood is good to burn in a tight stove, and to heat an oven. ‘“This tree grows best at about forty-five degrees north latitude, where it is found ninety feet high and three feet in diameter. It grows as far north as sixty degrees, but it does not grow nearly so large there. ‘‘ The wood is white, and between the yearly rings it is yellow. It comes apart easily between the rings because there are no strong rays to hold it together. In the best places it grows a quarter of an inch thick all round the tree in one year. Where the tree does not have a good chance it grows so slow that we can scarcely count the rings, because they are so thin. ‘‘’The bark on old trees is an inch thick, and there is a new layer every year next to the wood. The outer bark is gray, or dark brown. The inner layer is white with a yellow tint. Between these two lay- ers there is a crimson layer and a light brown layer. 28 THE NEW METHOD All through the bark each color shades off into the next color. ‘‘’The hemlock tree has the smallest leaf I ever saw on any tree. It is only a third of an inch long, and the sixteenth of an inch wide. So it takes 48 leaves to cover a square inch. They grow alternately all around the stem. ‘The shape is linear and it hasa round base and apex. ‘The leaf is flat and straight. The upper side is dark green and glossy. ‘The under side has several white lines with parallel green stripes between them. Although the tree is an evergreen, the leaves stay on only about three years, and new leaves come on every year as the twigs grow out longer. ‘‘ The seeds are brown on one side and gray on the other. The length is the sixteenth of an inch, and half as wide. Each seed has a yellow wing about the shape of that of a house fly, and the same size. The cone is an inch long and half as wide. There are about thirty scales on one cone, and two seeds to a scale.’’ JOHN. THE SUN. ‘‘ About two and a half years ago, the first day we ever went to school, we learned some very interesting things about the sun. The sun has lighted up the sky and landscape beautifully every day since, and it OF EDUCATION 29 is almost a thousand days, for in two years there are 730 days, and in half a year, over a hundred and eighty. ‘The girls and boys in our class are now learning more about the sun by setting stakes in the ground and sighting over them, to see how much it changes its place to rise and set each day. We have found that soon after we have the shortest days the sun rises earlier and farther north every day, and sets later and farther north every day. None of us under- stands just how this is brought about. It cannot be the daily motion of the earth on its axis, so it must be its yearly motion round the sun that causes it in some way.”’ IDA. THE SPONGE. ‘We are now studying the lowest branches of the animal kingdom—the Radiates and Protozoans. Every one is familiar with the looks of a sponge, and most people who go to the beach have seen the Sea- Urchin and Sea-Anemone. ‘‘ The sponge, as we see it every day, is the skele- ton of an animal. ‘The flesh of the animal looks like jelly: When the sponge is alive, the jelly covers every part of the skeleton just as the bones are cov- ered in other animals. The sponge is the largest of all the Protozoa, and there are many species of them, most of which are so small we cannot see them. 30 THE NEW METHOD While the sponge is alive it is always attached to a rock. On the top of the sponge are two large holes which have smaller ones branching into them. ‘The sponge is the most ignorant of all animals. It cannot see, hear, taste, smell nor feel, and it seems to know nothing at all. It has no blood, and only water cir- culates through the tubes. It lives on little animals that flow into it through the small tubes with the water. ‘“The Sea-Anemone belongs to a class a little higher than the sponge. It has feelers all around its mouth, and they look like fine sea-weed. The feel- ers can contract and expand when they like, but their movements are very slow. There are many species of these animals, and some of them come from eggs, and others from buds that grow out as they do ona trees” HENRY. FERNS. ‘“The Aspidium thelypteris is a very pretty fern and it grows in damp places, generally on the banks of brooks or rivers in the eastern United States. They do not grow in groups but one alone in a large patch of them. It is usually from one to two feet high and about five inches wide. ‘« The stipe is about five inches long and is slender. It is covered with fine hairs and on the under side is OF EDUCATION 31 grooved. The frond is generally about twelve inches long. ‘The pinnae are remarkable for being nearly the same length, until near the apex. ‘They are about two. inches long and there are usually about nineteen pinnae on each side of the rachis. The pinnae are divided into lobes which are cut down nearly to the mid-vein. ‘The veins are very fine and are all forked. The sori are very small—of a dark brown color, and there are from five to ten on each lobe. ‘Most ferns do not have a common name but this is called the lady-fern.’’ NINA. A GENTLE SHOWER. ‘“We were glad yesterday afternoon to have a gentle shower without lightning and thunder. The rainfall was nearly half aninch. It made the ground moist and nice for the roots of trees and grass and all other plants. ‘“Rvery plant has a great many roots so small that we can hardly see them. ‘The fine roots draw the water from the soil and it goes to every part of the plant and makes it grow.”’ JANE. Nimbus CLoups. “The sun is not shining at all this morning. Nimbus clouds cover more than three-quarters of the sky. ‘The air is not clear and I think it will rain be- 32 THE NEW METHOD fore many hours. Nimbus clouds are rain clouds and they are down lower than the other kinds. Sometimes there are fair weather clouds over the nimbus clouds and much higher up. Through an open place in the sky I saw a small cumulous cloud up very high above the storm cloud.’’ Mary. ‘This is a bright beautiful morning. There are cumulous clouds up about forty degrees high, and stratus clouds twenty or thirty degrees above the horizon. Both are fair weather clouds and it will not storm until we have some nimbus clouds. ‘““We had some interesting experiments at ten o’clock to show that there is carbon in sugar. Car- bon is the same as charcoal, and we saw it taken out of the sugar.’’ IDA. THE CASSIS RUFA. ‘“The Cassis rufa is a very handsome shell. It is very large indeed. It has the aperture on the face, like all the Cypraea shells that we have studied. The aperture is very large. It is a little more than three inches long, and the teeth are in the inside of the aperture farther than in Cypraea shells. ‘The back of the shell is covered with nodules of a grayish brown color, while the shell is red and white or orange and white. ‘The very top is more of an orange OF EDUCATION 33 color. ‘There are seven whorls to my shell, and they reach to the apex which is very small indeed. The outer lip is turned up and it has dark brown lines on it. The lines are very broad and they grow darker towards the apex. The canal turns back and there is a deep cavity just behind it.’’ Lov. ‘‘ The Cypraea arenosa is an interesting shell though not so pretty assome. It is nearly two inches long and over an inch thick. In color, on the back, it is of a light reddish yellow, with five lines of deeper red running across it. These lines are about a tenth of an inch wide; but they do not show very much at a distance, for the color is not a sufficient contrast with the rest of the shell. Around the edge of the shell there is a raised line about a quarter of an inch wide, and it seems to be pure enamel. Its color differs enough from the rest of the shell to make a good con- trast; for it is a very pretty fawn color, and it has some small white dots over it.’’ IMA. ‘“The Harpa minor isa beautifulshell. It is about an inch long and three-quarters of an inch wide. This shell has five whorls and the body whorl is larger than all the others. ‘* The outside of the shell is rough, and it has many colors. There are different shades of red, blue, 34 THE NEW METHOD yellow, and light and dark brown. ‘There are twelve large ribs, and each one has a great number of lines crossing it. Some of the lines go across straight, and in some places the lines slant and look like little waves. ‘“'The inside of the shell is very smooth and white with afew dark brown spots. There are twelve kinds of Harpa shells, and this is, or was when it was found, the smallest known Harpa. Harpa minor means smallest harp, for the ribs make the shell look like a harp. These shells come from the water around the Philippine Islands.’’ JorE. ‘‘We have been learning some very interesting things to-day about the mineral kingdom. The natural shape of water and mercury at common temperatures is a perfect globe. But in very cold weather water freezes, or crystallizes, as we have seen it on the window panes, and in snowflakes. ‘All the minerals that form the crust of the earth have a natural shape of some kind called a crystal. We saw several very pretty ones to-day, and we made a drawing of a quartz crystal, which is a six-sided prism with a six-sided pyramid at the end.’’ BESS. THE WHITE ASH. ‘“’The Fraxinus Americana or common White Ash OF EDUCATION 35 is a very finetree. It grows well in all parts of North America between forty and fifty degrees north lati- tude. It grows well in Canada and all around Lake Superior and all the other great lakes. In the west- ern part of Massachusetts it sometimes grows more than a hundred feet tall, with a trunk more than four feet in diameter, and sixty or seventy feet high with- out a branch. ‘The wood is white, very tough, and very elastic and strong. It is used for wheels and all other parts of wagons. It is good to burn, and it is put to more other uses in this country than any other tree. It is used for the handles of rakes, pitchforks, hoes, shov- els, and many other tools.”’ FELDSPAR. ‘“This morning the air was clear, the sky was deep blue, and there was not a cloud to be seen, but before noon the sky was completely covered with two or three kinds of clouds, and it soon began to rain. Yesterday afternoon at recess time there was a long cirrus cloud which stretched entirely across the heav- ens from horizon to horizon. ‘‘Our science study to-day was on a mineral called feldspar. Next after quartz, it is the most abundant of all minerals, and it is found in every country in the world. Feldspar is made up of four elements, 36 THE NEW METHOD which are oxygen, the most abundant of all the sev- enty elements, silicon, the next most abundant after oxygen. ‘These two elements make up three-quarters of the weight of feldspar, and two remarkable metals make up the other quarter. ‘‘ Another way of stating this, as we do when we work problems in arithmetic about this mineral, after we see our specimens weighed, is this: In one hun- dred grains of pure feldspar there are 46 grains of oxygen, 30 grains of silicon, 14 grains of potassium, and 10 grains of aluminum. ‘Then in one pound, or seventy hundred grains, there are seventy times these numbers, and the oxygen is 3220 grains, silicon 2100 grains, potassium 980 grains, and aluminum 700 grains. All these parts added make the whole, or 7000 grains. ‘“When feldspar is broken the break follows the cleavage planes which run through it in two direc- tions which are at right angles to each other. These planes have a bright pearly luster. Feldspar is not quite as hard as quartz. Its degree of hardness is six, and quartz is seven, and the diamond is ten, which is the hardest thing in the world. ‘Talc is the softest of all minerals. Its degree is one in a scale from one to ten. Feldspar is slowly ground by natural processes, and converted into clay, which is made into pottery, and the finest of it into porcelain, another name for OF EDUCATION a7 which is china. Feldspar helps very much to make the soil fertile, and by holding the moisture it keeps the soil from drying up in a dry summer. ‘* We have had at least a dozen very brilliant ex- periments with the four elements which make up all feldspar. Potassium was thrown into water and it instantly set the hydrogen in the water on fire, while the oxygen set the potassium on fire, and both burned together.’’ WHEAT. ‘‘For nature study this morning we have the ma- ture wheat plant. My specimen is forty inches high. Its color is a beautiful shade of light yellow —the real straw color. The nodes, or joints, begin just above the roots, and are all just about twice the dis- tance from the next; for instance, the first is one inch from the root, the second two inches from that, the next about four inches from the second, and so on allthe way up. The nodes are perfectly solid, while the rest of the stock is hollow, and at every nodea long, narrow, parallel-veined leaf grows out. The nodes are of a little darker color than the spaces in between, which are called internodes. The inter- nodes are largest in the middle, and taper all the way from the middle to the nodes. ‘“The spike or head of the wheat is about three 38 THE NEW METHOD inches long, and is of the same color as the stalk, and there are spikelets growing out alternately on the rachis all the way up. The rachis is the stem that runs through the spike, and it is all zigzagged, first curving to one side and then to the other, with a little notch at each bend. ‘‘’The spikelets are made of many parts. First on the right and left, is a little boat-shaped husk, called the glumes. The glumes are about one-third of an inch long. Then come some more little husks of nearly the same shape, called paleae. The seed, or kernel of wheat grows in the cavity between the two paleae, and is completely covered by them. The kernel is of a brown color and it has a groove run- ning the whole length. ‘There are many varieties of wheat, and the kernels of different varieties vary in size and hardness, and the color of the flour. ‘‘ Wheat is one of the most valuable of all plants. The seeds are made up of twelve elements so com- bined into several compounds as to make the best of food. Wheat will grow in nearly all parts of the world except the frigid zones. But it does not grow well in the torrid zone, except high on the mountains where the climate is cool. A belt of land a thousand miles wide, extending across America, Europe and Asia, with its southern boundary half way between the OF EDUCATION 39 equator and north pole, contains nearly all the best land for wheat in the world. ‘The best wheat area in America begins at the Rocky mountains, extends due east a thousand miles to the great lakes, Michigan and Superior. Another wheat area equally good begins at the Ural moun- tains and Ural River, which form the boundary be- tween Europe and Asia, extends west one thousand miles to the Carpathian mountains and the Baltic Sea. It extends from St. Petersburg, the capital of Russia, one thousand miles to the Caspian and Black Seas. This area is drained by three large rivers — the Volga, Don and Dneiper. This great field is all in Russia, and the great Russian wheat and flour markets are Warsaw, Moscow, and St. Petersburg. ‘The English markets for Russian wheat are Dover, London, and Liverpool. The French mar- kets are Havre and Paris. In Germany, Hamburg on the Elbe, and Berlin, the capital, are great mar- kets for wheat.’’ ELLA. GRADE IV. THe ACER PENNSYLVANICUM. ‘This beautiful little tree has two common names, viz. striped maple, and moose-wood. It grows in the basin of the Mississippi River all the way between the fortieth and fiftieth degree of north latitude. ‘*On the Appalachian Mountains it grows south as far as Georgia, and north to Canada. ‘“The striped maple generally grows only ten or twelve feet high, but where the soil and climate are just right it grows thirty-six feet high and seven inches in diameter at the base. The use of the moose-wood is for inlaying work and other ornaments, and also for the food for moose. ‘They eat the bark and twigs for the sweet sap in them. When they take too much of the bark off it kills the tree. ‘The wood is very heavy and white. The heart wood shows the silver grain better than the sap wood. On the end where it is cut off, the rays are very fine, close together, and very straight. The fibers of the wood are not easily separated. ‘The bark of the striped maple is thick and fibrous. When dried, it is light reddish brown next to the wood, and black, striped with dark brown and OF EDUCATION AI green outside, with little raised places all over it. On the branches the bark is light and dark green, red, white and yellow, with a great number of small rings, and some large rings where branches had been. ‘‘ The leaf of this tree is about six inches long and four inches wide. In summer the leaf has a light, delicate green color, and in autumn it turns to a deli- cate yellow with red spots. The tree has a great many leaves, and they are large for a small tree. They grow opposite, never more than two in a place, and where there was a pair of leaves last year there is a branch this year, and leaves are growing on it. All the leaves have either three, five or seven veins close to the stem, and many veinlets grow in all di- rections from these, making a net-veined leaf. The margin of the leaf is doubly serrate, and the apex is very sharp. The lobes are sharp and the sinuses are rounded at the base. ‘“The seeds grow in large clusters of forty or more. The clusters hang downward twined in among the leaves. Inthe spring the tree has a flower to every seed. When the blossom falls off the seed begins to form, and it is the same color as the leaf, and in autumn it turns yellow and falls off. ‘The seed is in the shape of a half ball, and is an eighth of an inch in diameter. It has a wing an inch long and quarter of an inch wide, and it is net-veined. After the out- 42 THE NEW METHOD side shell is taken off, a brown seed can be seen, and if the outside of this is taken off, the whole tree can be seen. ‘There are two leaves, and between them the trunk with the root on the end. All parts of the little young tree are a light yellowish green color.’’ DAVID. DEWDROPS. ‘‘’This morning there was a very heavy dew, and I could see thousands of rounded dewdrops on the grass. It was a beautiful sight, for the dew sparkled in the light and I could see nearly all the colors of the rainbow. The dew comes from the air. There is always water in the air, and the whole atmosphere always contains water enough to cover the earth sev- eral inches deep. When the air is made cold enough the water in it is formed into perfect little globes or drops which are perfectly round like the little globes of mercury we saw some time ago in the experiments in chemistry. When the drops of water are formed in a cloud and fall to the ground we say it rains ; when the drops are so small we cannot see them they form the dew on the grass and trees. In warm weather when we have a pitcher of water with ice in it the dew collects on the pitcher, but we do not see the little globes fall.”’ HELEN. OF EDUCATION 43 THE Rock MAPLE. ‘* The Acer saccharinum, or Rock maple, is a very beautiful tree, especially inautumn. There are forty species of maple in the world, and five of them grow in Massachusetts. The largest rock maples grow a hundred feet tall and six feet in diameter at the base. It is one of our best shade trees and it reaches its great- est size and perfection in Vermont and New Hamp- shire. The wood is white and very solidand hard. It makes the very best wood to burn, and it is highly prized for all kinds of nice furniture on account of its beautiful silver-grain. ‘“The leaf of this tree is four or five inches long, and it has many sharp points. In color it is bright green and very glossy. The leaf is net-veined and the veins are yellow. ‘The stem is about an inch and a half long, and there are several small grooves run- ning the whole length. The pith rays are very fine and lighter in color than the rest of the wood. The annual rings are quite thick, and the inner part of them is light brown. The ducts, if any, are so fine that they can hardly be seen. ‘The seeds are round and grow together, separated only by the stem. They have wings of a light buff color, and the wings have many fine veins. The sap of the rock maple tree contains sugar, and if twenty pounds of the sap is boiled away, there will be about A4 _ THE NEW METHOD a pound of sugar. ‘The trees are tapped for the sap about the first of March.’’ RADIATES. ‘Our science work for to-day is the study of the Starfish and Coral Polyp. Both of these belong toa very low class of animals, called Radiates. ‘“There are hundreds of species of Polyps, and they all live in the ocean, and most of them in or near the Torrid Zone. ‘They differ very much in size, shape and color. Some are microscopic, and some are six inches, or even a foot in diameter. ‘The Polyp is a tube with a round disc and mouth at the top, with a row of feelers around it. The feelers draw in particles of dirt, or animal and vegetable substances which are the food of the Polyp. These animals never move from their place, and when they die the skeleton remains and helps to make the coral. Coral is of many colors and forms, and many kinds are very beautiful. Polyps have done some good, for they built up the Maldive and Lacadive Islands of coral, which is becoming limestone and marble.’’ THE OSMUNDA CINNAMOMEA. ‘“This is one of the most beautiful ferns we have studied, and it is as interesting as it is pretty. It is found in all the states east of the Mississippi River, OF EDUCATION 45 also in Mexico and Central America, and’in Colom- bia, Venezuela and Brazil. Alsoin Asia, the Bahama Islands, Hayti and Cuba. It grows from two feet to five, and is generally found in shady, low places. Its common name is Cinnamon Fern, from the color of the wool. ‘“ The stipe is from six inches to two feet long, and is a light green color. Near the base it is covered with dark brown spots, and it has two or three deep grooves running the whole length. The frond is from one to three feet in length, and from half a foot toa foot in width. It is a light green color. ‘The pinnae are from two to six inches long and nearly an inch wide. ‘There are about thirty-six on the rachis and they are all opposite except near the apex. They are divided into lobes which are cut down nearly to the mid-vein. ‘They are covered with very fine hairs, and where they join the rachis there is some wool. The wool is found along the stipe, and is a bright cinnamon color, from which the fern takes its name.’’ EDNA. THE MITRA EPISCOPALIS. ‘“We have just finished a very interesting lesson on the mitre shell. It belongs to the family of Volu- tidae. This shell is about three and a half inches long and three-quarters of an inch thick. It looks 46 THE NEW METHOD like a bishop’s cap, and that is what its name means. The general color of the shell is white, but there are large bright red and yellow spots all over it. ‘“There are two rows of spots nearly a fourth of an inch square. Just above these there is a row of smaller spots, and again above that there is a row of much larger spots which are all different shapes. Then, on the next whorl, there is a row of the small spots, and above that there is a row of five-sided spots. Below the row that I first described there is one rather large line of spots, and below that the lines are so near together that they run into each other. The last two whorls look as if they were made of glass. ‘“'This shell has very fine lines running parallel to the suture, which run just as the spots do from whorl to whorl. This shell is very thick and heavy. It weighs 1468 grains. Like all other shells, it is com- posed of oxygen 48 per cent., calcium 4o per cent., and carbon 12 percent. It is found on the shores of Ceylon, in shallow water not more than a hundred feet deep.”’ ELLEN. BOTANY. ‘“We are studying a very interesting little plant this morning which belongs to the Rose Family. This is a very large and important family of useful OF EDUCATION 47 plants. It contains nearly a hundred genera and more thana thousand species. It includes all kinds of roses both wild and cultivated, — all pear, cherry, and apple trees, — all raspberries, blackberries, and strawberries, — all peaches, plums, and apricots. ‘“’The Spiraea tomentosa, or hardhack, is the species we have for study. This little shrub grows about two or three feet high. The stem is quarter of an inch thick near the ground and only half as large in the upper part. The branches and leaves are alter- nate. The leaf is ovate and has a serrate margin and a sharp apex. It is dark green on the upper side and very woolly on the under side. The flowers grow in a large cluster at the top. ‘The cluster of flowers is an inch thick, but it tapers very symmet- rically all the way up and comes to a sharp point. This plant is sometimes called steeple bush, because the cluster of flowers resembles a church steeple, and I think its formis a perfect model for a church tower.”’ EDITH. THE Conus MARMOREUS. ‘The Conus marmoreous is a very beautiful shell. It is found most abundantly near the Equator, on the ‘shores of Borneo, Sumatra, Celebes, Gilola, Singa- pore, and Amboyna. It is found as far north as the Mediterranean and Marmora seas, and as far south as 48 THE NEW METHOD the Cape of Good Hope. It is never found in fresh water, but the best place for it is in salt water about from two hundred feet deep to the shore. There are three hundred and seventy-one different kinds of Cone shells living, and eighty-four kinds fossil. ‘The shell is about three inches in length, and one and a half in diameter. It is covered with angu- lar white spots on avery dark brown background. The spots are edged with a light orange color. The spire is very short and the apex is very blunt. The aperture is long and-narrow, extending the whole length of the body whorl. The inside of it is white and a delicate pink. The suture has little teeth about one-eighth of an inch apart, and the same in height. These teeth are white. The surface of the shell is very smooth, and it is quite thick and heavy. The body whorl is about four times as large as all the other whorls taken together, and the base is grooved. There is alittle notch at the end of the aperture, near the suture. ‘‘’The mollusk lives on the flesh of other mollusks and occasionally on seaweed. It likes a warm climate and hollow rocks with a very little water. It travels very slowly.”’ EL EAR THE WIND. ‘‘’The air is very still this morning. I could not OF EDUCATION 49 find out which way the wind was till I began to watch the smoke coming out of the chimneys. ‘There were clouds just above the horizon in every direction, but I could not see them move at all. About a quarter of a mile south of.me there was a very tall chimney, and the dark gray smoke went up exactly straight about sixty or seventy feet, I should say, and then it went almost horizontally towards theeast. Of course I concluded that the wind was west. Soon I began to look for other chimneys, and I found that the smoke was going in a slanting way to the west from all short ones, while it went in the opposite way from the highest ones. My experience this morning re- minded me that one day last week I saw clouds high up near the zenith moving in three different direc- tions. One cloud went south, another northeast, and another west. This last went very fast and I found that it was not up nearly as high as the others.’’ EMMA. THE APPLE TREE. ‘“This tree belongs to a large class of very im- portant and useful plants called the Rose Family. The family contains nearly a hundred genera and a thousand species of plants. These plants furnish by far the greater part of our most delicious fruits, some of which are the peach, quince, apricot, pear, plum, 50 THE NEW METHOD cherry, strawberry, raspberry, and blackberry. ‘The family also ornaments our orchards and gardens with the most beautiful and fragrant blossoms from early spring till the end of summer. It includes all the wild roses, such as the sweet brier and the Rosa Car- olina, all cultivated roses, the flowering raspberry, the spiraeas, and many other plants. ‘« The largest trees in this family are the pear, apple, ‘ cherry, the wild sugar pear, and the mountain ash. The apple tree does not grow tall, but spreads out very broad. ‘The trunk is thick and short. The branches are long, and they grow out horizontally from the trunk. The tree is very easy to climb, and it makes a beautiful sight when it is in full bloom, and again when the apples are ripening. ‘«'The blossom is a beautiful color of light pink and white. Just under the five petals there are five green sepals, and five small bracts underthem. ‘The flower has twenty stamens and all its parts but the calyx drop off in a few days, but the sepals always remain, and may be seen on the end of the apple opposite the stem. In the apple there are five carpels, or seed- boxes, and two seeds in each.’’ EDITH. SAMPLES OF WORK DONE IN THE GRAMMAR SCHOOL GRADES GRADE V. * Tue Hemiock TREE. “The Abies Canadensis, or common hemlock spruce, is a very beautiful evergreen tree. It grows best at about forty-five degrees north latitude, grow- ing there about eighty feet in height and two and one-half feet in diameter. It is found as far north as fifty-one degrees and as far south as forty-one. It is the most graceful tree of the cone bearing fam- ily, and lives to be three hundred years old. It grows as far west as the Pacific Ocean, but not very plenti- fully. It is not found in the Old World at all. ‘The bark is very rough and in some places it is of a bright crimson color. ‘The inner bark is of a dark brown color and is very fibrous. On an old tree the bark is very rough, but on the branches and twigs it is always smooth. Onan old tree the bark is some- times an inch thick. ‘The wood is not very heavy, and is fibrous. The heart-wood is a very little darker than the sap-wood. The wood splits very easily, because the rays are so 52 THE NEW METHOD fine that they cannot hold the fibers together very strongly. There are no ducts. The wood is used mostly for timbers for barns, and sometimes for fuel. It is not very often used for fuel, for it snaps a great deal. ‘«’T’he leaf of the hemlock spruce is something like that of the pine. It is linear, and is about one-third of an inch in length. There area ereat many differ- ences between the leaves of the hemlock and pine. The pine leaves grow in clusters, while the hemlock leaves grow singly. The pine leaves are four-cor- nered, while the hemlock leaves are flat. ‘They are both alike in remaining green all winter. The hem- lock leaves grow on a small stock, or stem, and very thickly together. They sprout out of a tiny bulb, and there are three sets of them. One row grows pointing upward, and on each side there is a row pointing outward. The leaves are a very bright green color, and glossy on the upper side, but on the under side they are a light green with tiny white lines. ‘The under side is also glossy. The margin is entire and has tiny white hairs. ‘“The cone of the hemlock spruce is about three- quarters of an inch long, and half an inch thick. It consists of many very small scales, which are of a dark brown color. ‘The seeds are about one-fifth of an inch long, including the wing, which is of a light OF EDUCATION 53 brown color and very thin and delicate. The seed- vessel is oval-shaped, and of about the same color as the wing.’’ THE BIRCHES. ‘“The birches are very beautiful trees, growing in cold climates. They grow very tall toward the north, but toward the south they are smaller. The best place for them is about sixty-five degrees north latitude. ‘There are twenty kinds of birch in the world, and six in Massachusetts. ‘They do not grow much farther south than the New England states, or farther west than Wisconsin. ‘There is one kind that grows on the island of Terra del Fuego. The tallest birches grow about one hundred feet high.”’ THE BETULA PAPYRACEA. ‘“The Betula papyracea, or paper birch, is a very graceful tree. The wood is nearly white and is made up of small fibers. The pith-rays are very fine, but some of them are quite long. The annual rings are rather broad and far apart, so that we can easily tell the age of the tree. ‘I‘he wood is used for a variety of things, such as bureaus, table-legs, hat-blocks, and will burn very nicely. When it is split, the ducts can be seen quite plainly on the end. ‘The bark is pure white, or nearly so, and is very thin. It 54 THE NEW METHOD will split into pieces as fine as the thinnest tissue paper. It has also little lines about half an inch long and one-eighth of an inch thick and perfectly straight. ‘They are not in a straight line, but are irregular. The leaf is ovate, or egg-shaped, and varies from two to about four or five inches in length. The margin is doubly-serrate and the apex is very pointed. The base is rounded and for about half an inch each side of the stem there are no notches. ‘The mid-vein is very large and also the veinlets, but the veinlets can hardly be seen. The leaf is net-veined, and on the upper side it is much darker than on the under side. The veins can be seen much more plainly on the under side than on the upper. The leaves turn yellow in the autumn, and grow lighter and lighter until they drop off. The stem, or petiole, is about half an-inch long, and is quite thick. ‘The seeds are contained in a tassel- like cone, and there are hundreds of them in a single cone. The cone is called a strobile. The strobiles vary in shape on the different kinds of birch, some being larger on one kind than those of another. ‘The seeds are of two different shapes, one kind being very similar to the leaf of a cactus, being covered with very, very fine hairs, that we cannot see without a microscope. The other kind is in somewhat the shape of a butterfly, having a body, two wings, and OF EDUCATION 55 something like antennae. ‘The strobile is the name of the whole cluster of seeds, which combined make a cone-like appearance. It is about one inch or more in length, and is of a light reddish-brown color in the autumn.”’ THkr ASPIDIUM MARGINALE. ‘“We have had a lesson today upon a very interest- ing and beautiful fern, the name of which is the Aspidium marginale. It grows about fifteen inches in height, and bends very gracefully. It resembles the tree fern, that grew thousands of years ago, more nearly than any other fern growing in the United States. ‘The stipe is about five inches in height, and is of a , pale yellow color shading into brown near the base. There is a deep, broad line on the upper side, be- sides smaller ones. There are a great many dark brown dots on the under side. The stipe is flat and rough, and is much wider at the base than at the part nearest the frond. There is a good deal of chaff on each side of the stipe near the frond, and it is of a light brown color. ‘The root is about a foot in length, and resembles the roots of a great many other ferns. It is covered with small rootlets which are really the stipes which grew a great many years ago. 56 THE NEW METHOD ‘“'The frond is a little more than twice the length of the stipe. The upper side is of a bright, dark green color, but on the under side it is much lighter col- ored and very smooth and shiny. ‘The rachis is not winged, but has chaff growing out on each side, which when pulled out leaves a little dot, like those on the under side of the stipe. There is also a broad line near the center of the rachis, as on the stipe. The pinnae are alternate, and grow nearer together near the apex than near the base. ‘There are twenty- four on one side of the rachis and twenty-three on the other. Those pinnae near the middle of the frond are about three inches in length and one-half an inch in breadth, while the two lower pinnae are only about two inches long, and the upper ones are so small it is difficult to count them. ‘The pinnules are alternate, and have an entire margin. They are about a third of an inch long and one-fourth of an inch broad. They are as broad at the base as they are at the apex, the latter being round and broad. The veins are of a dark brownish-green color, and the apex of the pinnae curves upward. ‘The Aspidium marginale takes its first name from the sori, which is covered with a little napkin that is in the shape of a shield, Aspidium in Greek mean- ing a little shield, and its last name, marginale, from OF EDUCATION 57 the sori growing very near the margin of the pinnae. The veinlets are forking. ‘“The Aspidium marginale grows on rich hillsides, and between rocks in rich soil. It is found in all the states east of the Mississippi river, excepting Florida. It also grows in Canada as far north as fifty-two degrees north latitude, and as far west as Lake Winnipeg.” TITANIUM ORE. ‘““This is a very sunny, beautiful day, warm, and very clear air. The wind blows very gently toward the east at the rate of about three or four miles an hour. ‘The sky is of a bright shade of blue, and is partly covered with stratus and cumulus clouds. We had a very pleasant recess out today, and when we returned we had our second lesson on minerals this year. The subject was Titanium ore. ‘“'This is a very pretty mineral when broken, but on the outside it is rather common and plain looking, as the colors are dull. When it breaks it has sharp angular corners and sparkles a great deal when held in the light. In one hundred grains of Titanium ore there are sixty-one grains of Titanium, and thirty- nine grains of oxygen. ‘Titanium is a metal nearly as valuable as gold, and it crystallizes in cubes. It is very rare, and very few people know how to obtain 58. THE NEW METHOD it from the ore. Oxygen is an invisible gas, that constitutes the greater part of the air, and makes all animals live. It is in water and a great many things. ‘Titanium ore is very hard and heavy, and is used for painting on porcelain, and for giving the proper tint to artificial teeth. It was discovered one hundred years ago that there was a metal in it, and chemists worked on it for fifty years before they - named it. When first broken, it shows crystals that are sometimes of eight, twelve, or sixteen sides, and sometimes of no definite shape. In places where it is broken, it is of a reddish-silver color, and some- times of a dark silver color. But the lighter color is the purest, the other having a very small quantity of iron that colors it. There are some bright red spots on the broken places. Titanium is worth two hundred and forty dollars a pound, and burns with a more beautiful flame than any other metal. Titanium ore is found on the Ozark Mountains, in Arkansas, the Alleghany Mountains in the eastern part of the United States, the Himalaya Mountains in Asia, the Rocky Mountains in North America, the Andes in South America. It is also found in England and Spain. ‘‘ This ore is never found in large quantity — seldom if ever, more than a few ounces at any place.’’ GRADE VI. THE BEECHES. ‘“’The Beeches are a very beautiful family of trees growing in moist, rich soil. There are sixteen differ- ent kinds of beech trees in the world, but only one in Massachusetts. There are six. different kinds that grow on the Andes mountains in Chili. They grow on the islands of Tierra del Fuego, New Zealand, Van Diemen’s Land, and in the western part of Asia, the northern part of Europe and America. But the tallest are found in western Massachusetts and in Ohio, growing there about one hundred feet high and from two and a half to three feet thick. They also grow along the banks of the Ohio river.’’ THE AMERICAN BEECH. ‘The Fagus ferruginea or American beech is a very beautiful tree. The wood is of a reddish-brown color near the pith, but near the bark it is much lighter. It is quite heavy and is composed of very fine fibers. The pith-rays are rather thick, and can be seen only on two opposite sides. On the other two sides the ends of them can be seen. ‘The tree we studied to-day is a little more than fifty years old, and for that reason it is more red than a younger tree 60 THE NEW METHOD would be. ‘The wood is used for plane stocks, chair- posts, saw-handles, and sometimes for shoe-lasts. The bark is light and dark gray on the outside, but golden-brown on the inside. It is very brittle, rather smooth and quite thin. ‘There are very small black dots on it, and there are no fibers. ‘“’The leaf varies in length from about three to five inches and is net-veined and feather-veined. It is of an ovate shape, with an accuminate apex. The mid- vein is covered with very fine hairs, which can be seen more plainly on the under side than on the upper. On the under side the veins are raised from the leaf. The margin is coarsely serrate, and there is a notch at the end of every veinlet. The margin is fringed with very fine hairs that can be seen very plainly. The stem, or petiole, is very short and crooked. ‘The upper side of the leaf is much darker than the under side, and much smoother. In the spring, and especially when the leaf is unfolding, the under side is covered all over with hairs, and looks very pretty. The bud that contains the leaf forms in the autumn and remains on the tree all winter until they unfold in the spring. The leaves turn yellow and brown late in the autumn, but, unlike those of some other kinds of trees, they remain on until killed by frost, late in the winter. The seed of the beech tree is the beechnut, which is held and fas- OF EDUCATION 61 tened by a bur. The bur has four lobes and they are on two opposite sides. ‘They are covered with little prickles on the outside, but on the inside they are very smooth. The beechnuts themselves are very smooth and there are generally two nuts tc each bur. They are triangular, having three sharp sides and coming to a very sharp point. The nuts are very good to eat, and in France they press great quantities of them for the oil, which is good for flavoring different articles of food. The stem of the bur is soft and covered with very fine hairs like the edge of the leaf. The nuts are very small, being only about half an inch long, and each one of the three sides are about the same length. They are a little larger on some other kinds of beech. ‘The stem of the bur is only about one-third of an inch long and about one-eighth of an inch thick. When the nuts are in the bur the two flat sides come together.’’ THE OAKS. ‘“The Oaks are not a very graceful class of trees, but are very majestic and strong. ‘They are distin- guished for their great rough bark, the beauty of the leaves, for growing very tall and large, and also for growing very old. Some of them have been found one thousand years old. ‘They are found in the 62 THE NEW METHOD northern part of Africa, in Europe, in Asia, and North America. ‘They are also found on the islands of Borneo, Celebes, Sumatra and Java. ‘There are about one hundred and forty-four different kinds of oak trees in the world, twelve of which grow in Mas- sachusetts. They do not grow at all in the North frigid zone, as it is too cold for them, but mostly in the north temperate zone, with a few kinds in the torrid. ‘They very rarely grow below the Equator, and only a short distance. ‘They grow as far north as Hudson Bay, and all over North America below there. But they grow best on rocky mountains and rocky hills.’’ THE QUERCUS RUBRA. ‘The Quercus rubra, or common red oak, is excelled by none of the oaks in point of strength, majesty, and beauty. It grows best in Massachusetts, but grows very well in the adjoining states. It does not grow farther north than the southern end of Hudson’s Bay, or farther south than South Carolina. They grow west as far as West Virginia. They grow about ninety feet high at the tallest and four feet thick. The wood is of a light reddish color, and is composed of fibers. It is of a darker color near the pith, and the wood near the pith is called heart-wood, and that near the bark is called sap-wood. ‘The ducts are OF EDUCATION 63 quite large near the bark, but grow smaller as they reach the pith, until they can hardly be seen. ‘They are on the annual rings. The pith-rays are quite large and wide. The annual rings can hardly be seen, as they are so perforated with ducts. The wood is used for a variety of things, such as shingles for barns, sometimes for ships, and timber. It is very good for floors, but it is very .hard to dry. Wood that has been kept eighty years in a house will not be dry, and if burned, the sap will ooze out. The bark is of a light gray color and thin. ‘“The leaf is about four or five inches in length, and three inches broad at the widest part. It has nine lobes, and the sinuses are very deep and rounded. | Hach lobe has a very sharp bristle, and from two to four bristles on the sides. "The apex is rather accu- minate, and has a bristle at the end. ‘The leaf is oval-shaped, growing larger near the apex. ‘The petiole is red on the upper side, but is yellow on the under, and is not quite round. ‘The mid-vein shows much more plainly on the under side than on the upper, and also the veinlets. The under side of the leaf is much the lighter. In the autumn the leaves turn to a brownish-red color, and that is one reason why the tree is called the red oak. ‘They never turn yellow. The leaf is net-veined. ‘“The acorn is about one inch long and three- 64 THE NEW METHOD quarters through, and looks as if it had been highly polished. The apex is large and rounded, and ‘around it for about one-quarter of an inch there isa little white silky skin. ‘The shell of the red acorn is thicker than that of the white oak, and will not shrivel up. If we cut off the shell, we find, by pinch- ing a little, a crack by which we can pull apart the meat, and we find that the two parts are connected at the bottom by a hinge. When the acorn sprouts in the ground, this hinge forms either the trunk or the roots of the tree. The cup is composed of little scales which are pressed in so hard as to present a very smooth appearance. It is of a reddish-brown color and quite shallow. ‘The inside of the cup is of a brown color. On the bottom there is a little cushion, which is what the acorn rests on: It is white and brown. The inside of the cup is very smooth, and around the edges it is of a bright orange color and is full of little cells like honey- comb. This orange-colored line is the inside of the scales. The stem is very short and rough, but quite thick.’’ THE STROMBUS LAMBIS ‘“The Strombus lambis is a very curious and beau- tiful shell, but entirely unlike any other species of Strombus we have ever studied. It is of a reddish- OF EDUCATION 65 brown color on the outside, but the inside of the outer lip and aperture is of a bright salmon color. It is very thick and heavy. There are seven whorls, but the upper whorls are very indistinct and difficult to count. On the body whorl there are three rows of knobs, but the one nearest the suture is twice as large as the other two rows. ‘These rows of knobs run parallel with the suture and are about one-third of an inch apart. They form, when they reach the outer lip, long spines or claws. ‘There are six claws, and the two upper ones are about one inch long, while the others are about three-quarters of an inch long. The upper one grows out very near the apex, but curves toward the apex in such a way as to nearly cover it up. This gives it the appearance of being the continuation of the apex. The two upper claws are somewhat straight, but the others are straight only about half way, and then curve upward. Between the lines that form a portion of the claws, there are other raised lines running in the same direction. ‘The claws are hollow. ‘There is a canal about an inch long, at the lower end of the aperture. The base of the shell curves in, near the upper end of the canal. This part of the shell is very thin and brittle, and also translucent. ‘There are rounded knobs on the edge of the outer lip, which are of a yellowish white color. The pillar is of the same 66 THE NEW METHOD color as these knobs, and is very smooth. There is a light pink spot on the side of the shell near the pillar. The suture can not be seen. ‘‘’The mollusk lives in shallow water around the Japan Islands, the Philippine Islands, Borneo, Sumatra, Java, Celebes, Gilolo, Ceram, Amboyna, Timor, Sumbawa, Sumba, Socotra, Ceylon, the Maldive and Laccadive Isiands, the Comoro Islands, Madagascar, Mauritius and Reunion, and on the coasts of China, Hindostan, Beluchistan, Persia, Arabia, Turkey, Somali, Zanguebar, Mozambique, Zulu Land, Natal, Caffraria. and Cape Colony: There are one thousand of the Japan Islands, and they are very mountainous, some of the mountains being two miles high. The best market-places for the Strombus lambis are at Tokio, the capital of Japan, Borneo, the capital of Borneo, Manila, the capital of the Philippine Islands, Colombo, the capi- tal of Ceylon, and Tananarivo, the capital of Mada- gascar. There are sixty-five different species of Strombus, and we have studied five, the Strombus Canarium, the Strombus lentiginosus, the Strom- bus pugilis, the Strombus melanostoma, and the Strombus lambis.”’ ASBESTUS “This is a very beautiful day, but considerably OF EDUCATION 67 cooler than any day we have had this week. The wind blows quite roughly toward the northwest, and at about the rate of eight or nine miles an hour. It takes a good deal of dust along with it, as we have not had any rain for several days. ‘The sky is of a light shade of blue, and there are a great many beau- tiful cumulus clouds, some of them being rather dark colored. We did several problems in Interest before recess this morning, and then we went out and had a very nice time. When we came in we had a lesson on a mineral called Asbestus. ‘“This is a very interesting as well as beautiful mineral, more beautiful than any we have had this year. It is called fibrous asbestus, because it is made up of fibers. It is always found between two banks of other kinds of rock. ‘The fibers are of a greenish-white color, and will not burn. For this reason the Greeks and Romans used it to make nap- kins of, as when they became soiled, the way to clean them was to put them in a hot fire, which would burn the dirt off. They also used it for wicks for lamps, which they kept constantly burning in their temples to the heathen gods and goddesses, and it was known to burn for hundreds of years without consuming. For that reason the Greeks named it asbestos, meaning in the Greek language, not to be consumed. The people now use it for firemen’s 68 THE NEW METHOD gloves, and other things. It is of various shades of ’ green, beautifully mixed, and when held in the light it sparkles like very bright silver. When the fibers are separated, which is very easily done, they can be twisted into a very strong cord. They are very fine, and it irritates the skin if rubbed against it. It is composed of oxygen, silicon, magnesium and cal- cium, but the percentage is not known for certainty, as it is very difficult to analyze. Each little fiber is a crystal. It is very heavy, but it is not known what the degree of hardness is. It is a variety of Horn- blende, and the only variety that is used for anything. It is found on the Alleghany Mountains in the eastern part of the United States, Sierra Nevada Mountains in the western part of the United States, the Sierra Madre Mountains in Mexico, the Apennines in Italy, the Atlas Mountains in Morocco, in the northwestern part or Africa, the Himalaya Mountains in Asia, and the Hecla Volcano in Iceland. The market-places for asbestus are at Little Rock, the ‘capital ‘ot Arkansas, Harrisburg, the capital of Pennsylvania, Reykjavic, the capital of Iceland, Mexico, the capi- tal of Mexico, Sacramento, the capital of California, Rome, the capital of Italy, Calcutta, the capital of Hindostan, and Morocco, the capital of Morocco. Also Quebec, the capital of Canada.’’ GRADE VII. THE OSTRYA VIRGINICA. ‘“The Ostrya Virginica, or common Hop-horn- beam is a very beautiful tree. It is also quite grace- ful, as the twigs are very small. In most parts of America it is called iron-wood, but in Maine, New Hampshire, Vermont, and Massachusetts it is gener- ally called lever-wood. It grows best at about forty- three degrees north latitude, growing there about forty feet high and one foot in diameter. It is found in all the states east of the Mississippi and as far north as the Strait of Belle Isle, the East Main and Albany rivers and Lake Winnipeg. It is the only kind of Ostrya growing in North America and there are only about six in the world. ‘‘The bark is thinner than that of any other tree we have studied, and the outer bark is quite rough. The outer bark is of different shades of brown mixed with black, while the inner bark is of a golden brown color and very fibrous. ‘“The wood of the hop-hornbeam is of a light color, but the heart-wood is very nearly the color of the black walnut. It is very hard and heavy and is com- posed of very fine fibers. It is also very hard to split. The rays are very fine, and the ducts can hardly be 70 THE NEW METHOD seen. The annual rings can be seen very plainly. It resembles the moose-wood, birch, and rock maple very much. It is used for the cogs of mill-wheels, mallets, and binding-poles. ‘“The hop-hornbeam tree has a very beautiful leaf, greatly resembling that of the birch. It is about three inches in length, and about one inch in diam- eter. It is of a pointed ovate shape and has a doubly serrate margin. The apex is very sharp, and the veinlets are parallel. ‘The seed of the hop-hornbeam is about one-half of an inch long, including the sack which encloses it. This little sack is very thin and brittle, and is of a delicate brown color. ‘The seeds themselves are only about one-quarter of an inch long and quite hard. The seeds grow in clusters, and the clusters are about one inch and a half in length. ‘The seed has a very sharp apex, and is covered with fine prickly hairs. The sack is net-veined, and is translucent. The clusters of seeds greatly resemble hops, which accounts for its being named hop-hornbeam.”’ SIDERITE. ‘‘This is a cold but pleasant day, and the sun shines brightly. There are no clouds in the sky. This morning there was a slight haze in the air, OF EDUCATION 71 making distant objects look indistinct. There is a gentle west wind blowing now. ‘“We have had a pleasant lesson on a mineral called siderite. This beautiful and interesting min- eral is of a dark golden brown color, with cleavage faces running in three directions. It is a kind of steel ore. Massive siderite has rough surfaces, with the cleavage faces in small pieces. Siderite crystal- lizes in rhombohedrons, but is rarely found crystal- lized. It is composed of three elements, iron, oxygen, and carbon. Forty-eight per cent. of siderite is iron, forty-two per cent. is oxygen, and ten per cent. is carbon. Iron is the most useful of all metals, and the most abundant of all elements after oxygen, silicon, and aluminum. It is used for a great many things. Oxygen is the most abundant of all elements. It is an invisible gas, and supports fire, and all ani- mal life. It makes up eighty-nine per cent. of water, and forty-five per cent. of the whole crust of the earth. Carbon is the same as charcoal, and the dia- mond is pure crystallized carbon. It is a very use- ful element. The luster of siderite greatly resembles that of feldspar, but it has a little of a metallic luster, besides the pearly. Some very smooth cleavage planes are slightly iridescent. ‘The degree of hard- ness is four, a little more than that of galena, which is about three. The specific gravity is four, about 72 THE NEW METHOD half that of galena. Siderite is often found in cryo- lite, and my largest specimen contains some of that mineral. I have a specimen of siderite which is of a much lighter color than the other, and contains some copper and iron pyrite which is in some places irides- cent. ‘The copper pyrite is of a very bright golden color, shading to red in some places. Siderite, when held in the light, sparkles very beautifully, owing to the cleavage faces. ‘‘Tt is found in Maine, New Hampshire, Vermont, Pennsylvania, and Ohio, but not in large quantities, it being found most plentifully in Connecticut and in Greenland. It is also found in England, Germany, Austria and Russia.’’ THE STROMBUS MELANOSTOMA. ‘