THE tl^"**" AMERICAN WHEAT CULTUEIST. % Initial tato CULTURE OF WHEAT, EMBRACING A BRIEF HISTORY AND BOTANICAL DESCRIPTION OF WHEAT, WITH FULL PRACTICAL DETAILS FOR SELECTING SEED, PRO- DUCING NEW VARIETIES, AND CULTIVATING ON DIFFERENT KINDS OF SOIL. Illustrated with Numerous Engravings of a Practical Character. By S. EDWARDS TQDD, AGRICULTURAL AND HORTICULTURAL EDITOR OF THE NEW YORK TIMES, AND AUTHOR OP " THE YOUNG FARMER'S MANUAL," ETC., ETC. NEW YORK : TAOTOR BROTHERS & CO., 229 BROADWAY. 1868. • ,r1m Entered according to Act of Congress, in the year 1868, by TAINTOR BROTHERS & CO., In the Clerk's Office of the District Court of the United States for the Southern District of New York. The New York Printing Company, 81, 83, and 85 Centre Street, New York. CONTENTS. CHAPTER I. PAGE Introduction to Wheat Culture — Botanical Description of Wheat — Description of Varieties, 9 CHAPTER II. Soil for Wheat, and Preparation — Culture and Fructification, . 120 CHAPTER III. Saving Seed Grain — Procuring Early Varieties — When to Sow- Wheat, 235 CHAPTER IY. Wheat Harvest — General Management of Wheat — Machinery, . 325 CHAPTER Y. Mildew — Diseases of Wheat — Insect Enemies of Wheat — Reme- dies for Insect Ravages, 406 PREFACE. My apology for writing a book on wheat is simply my desire to aid farmers in their efforts to produce more bountiful crops of this kind of grain. For more than forty successive years, I have had more or less practical experience in the cul- ture of wheat. I have studied the habit of the wheat plant far more, perhaps, than the great mass of farmers have con- sidered the subject to be of any practical importance. I have investigated the failures of the wheat crop, and endeavored to discover efficient and practical remedies. I have excluded from the book every subject that might leave the ambitious young farmer in doubt ; and have simply made a record of my own practical experience. There are scores of successful farmers who know most of what is con- tained in these pages. But the great mass of young farmers, who are just taking the places of their fathers, have yet to learn the important fundamental principles laid down in this work. Thousands upon thousands of active men, who know little about the practical part of raising wheat, will find in the following pages exactly the information they must have, before they can raise a bountiful crop of this kind of grain. Some of the articles were prepared originally by my pen, for the Independent, New York Observer, New York Times, and American Agriculturist. But after publication in those papers, they were rewritten and revised. I herewith desire to give honorable and honest credit for anything that has appeared in those periodicals and in this book also. With a few exceptions, the illustrations were originally pre- pared by myself for this book. The use of cuts on pages 1 1 , 25, 27, 28, 29, 30, 39, 99, 406, 407, 408, 415, has been kindly Vlll PREFACE. afforded by Moore, Wilstack & Baldwin, Cincinnati, O., and 62 Walker St., New York City, publishers of "Klippart's Wheat Plant." I have quoted a few pages from his work ; and I sincerely hope every reader will procure a copy, as it will be found an excellent introductory treatise to this book. I have aimed to bring out in these pages all the facts on wheat culture that young farmers will be ambitious to know. If they will peruse this book with care, they will find an answer to nearly every question that they may wish to have answered about wheat. Although my instructions are strictly elemen- tary, they are by no means superficial. Mere theories have been discarded. My aim has been to tell farmers how to raise good wheat, where their predecessors failed to get fair crops. If they follow my directions, success will crown their efforts. I have frequently referred to my first and second volumes of The Young Farmer's Manual. The first has met with an excellent reception. The second is just issued ; and is follow- ing the first. This Wheat Culturist may be called a third vol- ume, as they are intimately connected with each other. Illustrations of certain farm implements have been intro- duced for the express purposeof directing beginners where to procure reliable tools and machines that stand preeminently the highest in our country. Read the Index and Table of Contents. SERENO EDWARDS TODD, Office New York Times, New York City. t MCAi THE WHEAT CTJLTTJRIST. CHAPTER I. Introduction to Wheat Culture. " The sire of gods and men with hard decrees, Forbids our plenty to be bought with ease ; And wills, that mortal men inured to toil, Should exercise with pains, the grudging soil." Unremitting diligence is the price of material luxuries. The beautiful compensation principle seems to pervade the entire domain of all animated existence. Well- directed skill and industry are always crowned with a satisfactory reward. To do something — to make some- thing — to give material substances a variety of forms — to produce something useful out of certain useless sub- stances, is a consideration worthy of our highest ambi- tion. There is an indescribable satisfaction in doing qr+ something. There is a charm in industry. The man $2 who toils through a long summer's day to catch a single >"> trout experiences an enjoyment when partaking of his "*"" frugal meal which he could never feel were the same p-j fish taken by other hands. And the same is true of him C/3 who cultivates the soil to secure his daily bread. Were 1* 10 THE WHEAT CULTURIST. a field of wheat to spring up spontaneously, and were we not required to break up the stubborn ground and culti- vate it, and put in the well-selected seed, existence would not bring half the pleasures which it now proffers so freely. The all-wise Creator foresaw that it would always be better for every man, woman, and child to have some- thing to do, than to spend their days in idleness. For this reason, if we would have fine wheat for making excellent bread for ourselves and children, we must labor for it. It has been suggested by some writers that the diffi- culties attending the production of delicious fruits, and fine grain, seem to increase with developments in arts and science. As our day is, so shall our knowledge be. Our ancestors cultivated wheat with but little difficulty. As soon, therefore, as scientific men were competent to-devise remedies for the insect and other enemies in checking the growth of the wheat crop, the foes appeared. Science has taught us that, if we would have ripe fruit, we must destroy the insects which will devour the young fruit or kill the tree. And science has taught us that, when we would grow wheat, as we are unable to exterminate the hordes of insects that would feed upon the crop, we must cultivate and enrich the soil so as to make the plants grow faster than the insects can eat. Chemical Structure of "Wheat. In common parlance, when wheat is alluded to, the bran and the flour only are spoken of. The bran is the tough skin that envelops the part that makes the flour. Then, when we discourse farther of wheat, we say that the part that makes the flour is composed principally of starch and gluten. THE WHEAT CULTURIST. 11 Now, if with a sharp knife we slice up a kernel of wheat into thin sections, and examine it with a glass of greatly magnifying power, the various parts will appear similar to the ac- companying illus- tration, which rep- resents a portion of a kernel of wheat highly magnified. The part of the ker- nel represented by a a shows an ex- ceedingly thin por- tion of the external part of the bran. The section repre- sented by b reveals a second layer filled with minute pores. At c is a third layer, much more delicate than either of the others, which is so exquisitely fine, that its presence can scarcely be detected, even by the aid of a good glass. The part of the illustration at d, repre- sents the portion of the kernel which is composed prin- cipally of gluten. " These four layers constitute the bran. The gluten in the cells, d, appears to be a faint yellowish substance, very small grained, and oily to the touch and smell. The cells in which the gluten is Pig. 1.— Section of a kernel of wheat highly mag- nified. 12 THE WHEAT CULTURIST. formed are rather larger than any of the cells of the three layers just described, the walls of which are per- haps more delicate than any others in the entire kernel." Directly beneath the cells of gluten, cZ, lies the albumi- nous portion of the seed, which consists of hexagonal prismatic cells, which are rilled with ovoid granules of starch, shown at e. These granules of starch, f y are enveloped in several layers of cellulose, or cell mem- brane, which, when heated to excess in water, burst and exude the starch contained in them. Gluten affords large quantities of nitrogenous matter. Influence of Climate on Plants. A writer in the " Portland Press " gives some facts to show that a northern climate, within certain limits, is better adapted to those plants which yield food, than the warmer climate, where the same plant is indigenous. In order to succeed most satisfactorily, he thinks south- ern plants must be carried to a latitude north of the place where they grow. He writes : " That a northern climate is more conducive to health than a southern one, is generally admitted ; but that its influence upon the vegetable kingdom is more propitious to the perfectability of plants necessary for the sustenance of man and of beast, is a proposition perhaps not so ^generally noticed and adopted as it should be. In these cold northern regions we some- times need to be apprised of facts which will rebuke the spirit of discontent, and make us more reconciled to the climate in which Providence has cast our lot. " The influence of climate upon plants is unquestion- able. Those carried from the North to the South gen- THE WHEAT CULTURIST. 13 erally deteriorate ; those brought from the South are generally improved by the transfer. In the process of vegetable acclimation, nature indicates that plants should emigrate toward the fields and gardens of northern cultivation, rather than that northern cultiva- tors should emigrate toward south-born plants. The process, indeed, is slow, but it is sure. Tropical plants, which once could hardly exist beyond a vertical sun, have, by acclimation, been transferred to temperate lati- tudes, and made to yield larger and better fruits than they ever were capable of yielding in their native soils. " In general it is true that all cultivated plants yield the greatest products, and these of an improved quality, near the northernmost limit in which they will ripen. This is true of all the farinaceous plants, such as rice, maize, wheat, rye, oats, barley, and millet ; of all tuber- ous and bulbous roots, as potatoes, carrots, beets, turnips, parsnips, and radishes ; of all lint plants, as cotton, hemp, and flax ; of the salad family, as cabbage, lettuce, endive, and spinach ; of all the grasses, from timothy and red- top to lucern and the clovers, red and white ; of all the gourd family, from pumpkins and squashes to cucumbers, gherkins, and musk and water melons ; of all delicious and pulpy fruits — as apples, pears, peaches, nectarines, grapes, plums, cherries, currants, gooseberries, and straw- berries. It is also equally true of sugar cane, sorgo, and tobacco. Each and all of these most important products of the earth are improved by northern acclimation, and when brought as far into the high latitudes as they can be made to grow and mature, are found to produce in the greatest perfection and of a more excellent quality. The reason is this : the hot sun of a southern sky forces 14 THE WHEAT CULTTTRIST. the plants into a rapid fructification before they have had time to concoct their juices. The growth in stalk, vine, and foliage is too much for the composition ot fruit." It is stated by respectable authority, that wheat raised in Virginia is better for making white bread than northern grain. The wheat grown in Missouri and in California yields a flour that commands a higher price in market than the northern wheat. The flour of the California wheat is said to yield a larger percentage of gluten than wheat that was grown in latitudes north of the latitude of California. I pen these suggestions simply for the purpose of awakening in young farmers a spirit of investigation, with a view of encouraging them to take critical obser- vations on every subject connected with the cultivation of this valuable grain. Growing Wheat Then and Now. The question is asked with no little solicitude, why farmers cannot raise as good wheat at the present time as they did fifty years ago ? Then, a crop of wheat was as sure as a crop of Indian corn ; and, in numerous in- stances, three bountiful crops of wheat were taken from the same field, in three successive seasons. I well re- member, when a small lad, that my father raised three crops of wheat in one of his fields in three successive years ; and the third year, the growing grain seemed heavier than either of the preceding crops. Then, with miserable cultivation, and only a small quantity of inferior barnyard manure, a farmer could count upon a heavy crop of first-rate wheat, with almost absolute cer- THE WHEAT CULTURIST. 15 tainty. But now, many of our best farmers have met with so many serious failures and disappointments in their wheat crops, that they are sometimes exceedingly loath to try again. The true causes of failure have not, as yet, been satis- factorily unravelled. It is a remarkable fact, that the product of good wheat has not only diminished, but the quality of the grain has greatly deteriorated. Then, it was a common occurrence to see an entire crop of wheat as fair and plump as the best qualities of seed grain at the present day. Scientific farmers and in- telligent laborers have been anxiously inquiring after the cause; and one has assigned the ravages of the midge as the main cause, while others have attributed the failure of crops to the increased severity of climatic in- fluences following the removing of our extensive forests. Besides these causes, others have assigned another, to them, plausible cause, which is the diminution of those elements of fertility in the soil which are essential to the formation of the grain. But all these reasons have been satisfactorily refuted, in most instances, when taken alone. We must, therefore, attribute the failure — not to any single cause — but to a variety of such causes as have been mentioned, operating together to the great injury of the wheat crop. There is one observation in which I think every intelligent farmer will coincide with me, which is this : If a piece of new land be sowed with choice seed wheat, and a dense forest protects the field during the winter, and if the midge do not injure the growing crop, the yield will be about as bountiful as crops were forty years ago. These hints suggest what is required in order to succeed in raising a bounti- ful crop of wheat. 16 THE WHEAT CULTURIST. In the year 1861-62, I was ruralizing in Monroe Co., N. Y., when I penned the following suggestion, touch- ing the culture of wheat in the wheat-producing part of the State : In the county of Monroe, thirty or more years ago, raising wheat was attended with remarkably good sue cess. Indeed, wheat was the great staple with farmers for many successive years. Many old farmers with whom I conversed, pointed out to me whole farms, here and there, and many large fields, where the yield was seldom less than forty bushels of most beautiful wheat per acre; and, in many instances, the yield would be fifty bushels. But at the present time, on the same soil, the yield is expressed by any number from eight to thirty bushels per acre. " We cannot raise wheat now, as we could once," was the oft-repeated expression among old farmers ; and the reason assigned, usually, was -the " insects — the wheat midge makes such ravages in the crop." Thirty or forty years ago, they had all the advantages of a most excellent virgin soil, which was as well adapted to wheat as any other crop ; and had there been proper care exercised with reference to keeping the soil in a good state of fer- tility, by making and applying as much barnyard manure as was practicable, there never would have been such a decrease in the number of bushels per acre, as farmers now talk of. Old farmers have told that " here on these fields we once could raise three crops of wheat in succes- sion, and the third would be fully equal to the first." Of course, under such a system of farm management, the most productive soil that can be found in the country would fail to produce a remunerating crop, after so many years of hard cropping. I was assured that thirty years THE WHEAT CULTURIST. 17 ago they were sure of a good crop of wheat, even when the soil was very poorly cultivated. But now wheat was the most uncertain crop that they attempted to cul- tivate. • Winter Wheat — Triticum Hybemum. Spring Wheat — Triticum (Estivum. " In the rich soil, clean wheat we sow ; Out of the soil, fine wheat we grow ; In measureless store, we garner the sheaves When the kernels are ripe, and dry the leaves ; Out of the sheaves, pure wheat we beat ; Out of the chaff, we winnow the wheat." Edwards. Wheat is one of the most excellent of our cereal grains. Botanically, wheat is one of the grasses. But, from time immemorial, the wheat plant has been cul tivated for its excellent and fine grain. The origin of wheat is not positively known. Still, there is good reason for the belief, that, when " the Lord God made every plant of the field before it was in the earth" (Gen. ii. 5), wheat was one of the finest productions of His hands. And, there is no doubt, that this esculent grain constituted a good proportion of the best food of the antediluvians. The first allusion to wheat in sacred history is in Gen. xxx. 14, during the patriarchal age, by which we may infer that wheat was raised by the servants of Jacob. And, when the Lord sent the destructive plague of hail on the land of the ancient Egyptians, Moses has told us, Ex. ix. 32, that " the wheat and the rye were not smitten." In Numbers xviii. 12, wheat is alluded to among the offerings of the Israelites. In the days of the prophet Samuel, and during the reign of David 18 THE WHEAT CCXTUKIST. and Solomon, this grain is alluded to in such a manner as to convey the idea that wheat was a kind of grain of great value and excellence. See Ps.. cxlvii. 14, where " the finest of the wheat " is spoken of as one of the crowning blessings which the God of Israel lavished on his obedient people. And when Solomon dipped his graphic pen to portray the excellent graces of the Church, nothing would convey a more impressive and exalted idea of the beauty which he would describe than " a heap of wheat set about with lilies." (Cant. vii. 2.) Solomon sent wheat to Hiram, King of Tyre, when he was erecting the Temple. And in numerous other places in the Bible, from Genesis to Revelations, wheat is alluded to in a manner to convey the idea that it was the finest of the cereal grains, which rendered the most excellent food, not only for the poor, but for the rich and distinguished characters of the age. There is another idea concerning wheat worthy of especial notice, which is, that the wheat plant flourishes in proportion to the intelligence and condition of the agriculture of the people. This is especially true as to the condition of agriculture. If the agriculture of a nation is in a low state, but little or no good wheat will be found there. On the contrary, where the people are industrious, well civilized, and their agriculture is in a good condition, in most latitudes, good wheat — either winter or spring wheat — is, or may be, raised with profit, provided the climate is congenial to the produc- tion of this cereal. Wheat an Emblem of Civilization. After alluding to the wheat plant as an unequivo- THE WHEAT CULTURIST. 19 cal emblem of civilization, enlightenment, and refine- ment, J. H. Klippart, in his " Wheat Plant," writes that : "As truly as did flocks of sheep in the primitive ages lead the shepherds to the threshold of that truly magnificent science, Astronomy, just so certainly did the wheat plant in yet earlier ages induce man to forget his savagism, abandon his nomadic life, to invent and cultivate peaceful arts, and lead a rural and peace- ful life. There is not on the vast expanse of the face of the globe a savage, barbarous, or semi-civilized nation that cultivates the wheat plant. In the settle- ment of New England, the Indians called the plantain the ' Englishman's foot ;' and in the infancy of society wheat may have been similarly regarded as springing from the footsteps of the Persians or Egyptians. " The ancients, who had burst the bonds of savag- ism, and scarcely more than escaped from the confines of barbarism, and through the magic influence of the fruit of the wheat stalk, barely reached the threshold of civilization, retained a grateful memory of the plant, which was the prime cause of their amelioration. They erected temples and instituted an appropriate rite for the worship of the goddess Ceres, who was by them regarded, not only as the patron goddess of the crops, but the propitiator of sound morals, and the promoter of peace and peaceful avocations. " In their traditions of the wars of the giants, the ancient Germans have a legend, the purport of which is, that Thor, the agriculturist, obtained possession of the soil from Winter, who had depressed, brutalized, scattered, and destroyed the inhabitants with his chill- ing blasts and storms of sleet and snow, and drenching 20 THE WHEAT CULTTTRIST. showers of rain, upon condition that he would intro- duce harmony, peace, and fellowship into social life by the culture of straw-producing plants. " The culture of the wheat-bearing plant compelled the cultivator to abandon the wild or nomadic life which it is not unreasonable to suppose he must have led ; and the time which otherwise would have been spent in roaming through the forests, was now spent in contriv- ing indispensable implements. First and prominent among these were the plough and harrow — rude beyond question in mechanical structure, and uncouth in ap- pearance, yet they were the first peaceful, and at the same time utilitarian products of civilization. " Thus has the culture of this straw-growing jplant caused savages to abandon their barbarous customs — has fixed in friendly communion many nomadic and rival hordes — inaugurated the greatest era the world ever saw, the era from which the human race may date its incipient civilization — the era of labor. The continued culture and increase of this plant has from the very commencement called into action all the resources of civilized nations. After the invention of the plough and harrow, man's inventive genius was tasked to produce a reaping hook or sickle ; and successively during the many ages of the historic period has this plant called into existence the scythe, the grain cradle, winnowing machine, sowing machine, thrashing machine, and within our own day and generation, the reaping ma- chine. The prolificacy of this plant has brought into existence the cart and the wagon in the earlier ages of society, but in more recent ones it has demanded the construction of turnpikes and macadamized roads through the pathless wilderness ; that canals be dug to THE WHEAT CTJLTURIST. 21 unite the waters which flow to the northward with those which flow to the equator ; that boats be constructed, and ships with wide-spreading canvas were found to be indispensable ; and lastly, the steamboat, steamship, railroad, and steam flouring-mill were as loudly and as earnestly demanded in our day as was the rude plough in the first days of civilization. " There is not in the entire catalogue of plants an- other one which has been as instrumental in the devel- opment of mechanical ingenuity, and the intellectual faculties, as has been, and is, the wheat plant. It is true that fibre-producing plants, and prominently among these flax and cotton, have exercised considerable influ- ence in the development of mechanical inventions ; but upon strict examination it will be found that very many of the principles of mechanical structures and combi- nations of powers had already been called into requisi- tion by the fibre produced by the sheep, and the thread produced by the silk- worm. " In countries where the agricultural art, or rather the culture of the wheat plant, has fallen into disuse, there has civilization also retrograded ; and were it not for commerce with enlightened and refined nations, several countries would speedily relapse into all the hor- rors of absolute barbarism. Were the wheat plant ' blotted out of existence,' society would of necessity revert to its original state. In vain would the miner delve in the bowels of the earth to bring forth the dark and heavy ore to make iron. No iron would be wrought because there would be no use for ploughs, and conse- quently, no use for the thousand mechanical contriv- ances for sowing, harvesting, thrashing, cleaning, trans- porting, and grinding wheat. Is it not astonishing to 22 THE WHEAT CULTURIST. reflect on the number of persons engaged in the culture of the plant, the number engaged in constructing and improving machinery to gather and prepare the seed, the number engaged in transporting the grain from place to place, as well as the number engaged in the manufacture of flour, and the preparation of bread. Truly is not the wheat the plant, the corner-stone of civilization, and would not the destruction of it over- whelm society with darkness blacker than the storm- cloud at midnight ! Does the extreme cold of winter destroy the germ of the stalk in the plant ? have the rains been too frequent and too abundant, or has a pitiless and heartless hail-storm levelled it to the earth ? Then how many are the thousands to whom is brought suffering and sorrow and hunger ! " While the hands of industry are busily employed in securing the product yielded by the wheat plant, every one is eagerly and earnestly shaping his demand for a pro rata of the results. This one has closeted himself, and buried himself in the study of law ; that one has seized the pencil or the chisel ; another has taken to the jack-plane ; a fourth has mounted the fearful locomo- tive ; a fifth has intrusted himself to the treacherous waves of the briny deep ; a sixth has picked up the sledge, whose uses were taught to mankind by Vulcan, and from sun to sun strikes the patient anvil ; all, all having a single and identical object in view, namely, that of exchanging the fruits of their labors for the fruits of the wheat plant. Thus is the action of society kept in a continual round of exchange, like a bark on a sluggish eddy, forever departing from the shore only to be forever arriving at it, and forever arriving only to be forever departing. The pearl-fisher dives fearlessly into THE WHEAT CULTURIST. 23 the fathomless deeps of the ocean for the animal prod- uct found among the rocky polyp-trees ; the miner excavates the subterranean shaft for gold ; the artists produce articles of the most exquisite workmanship, and like a beast of burden, the porter tenders the services of his physical strength in order to obtain a proportion of the products of the wheat plant. All that we see or hear, all that is done, all that is spoken, written, or thought, is performed directly or indirectly on account of the fruit of that plant, which introduced, developed, and to-day maintains civilization." Old Crevecosur's Speech. When the aborigines of our country saw the refine- ment of character, the spirit of philanthropy, whicli possessed the hearts of their white neighbors, their ob- serving chieftain, Crevecceur, of the now extinct tribe of the Mississais, is said to have addressed his people in the following pathetic remarks : " Do you not see the whites living upon seeds, while we eat flesh? That flesh requires more than thirty moons to grow up, and is then often scarce. Each of the wonderful seeds they sow in the earth returns them an hundred fold. The flesh on which we subsist has four legs to escape from us, while we have but two to pursue and capture it. The grain remains where the white men sow it, and grows. With them winter is a period of rest ; while with us, it is the time of laborious hunting. For these reasons they have so many chil- dren, and live longer than we do. I say, therefore, unto every one that will hear me, that before the cedars of our village shall have died down with age, and the 24 THE WHEAT CULTURIST. maple trees of the valley shall have ceased to give us sugar, the race of the little corn (wheat) sowers will have exterminated the race of the flesh-eaters, provided their huntsmen do not resolve to become sowers." Botanical Description of Wheat. Although this portion of rny treatise on wheat may be quite uninteresting to men who are solely practical, still I think every ambitions farmer will be interested in the botanical description of a plant so eminently valuable as wheat. Boys in particular, I think, will be ambitious to learn the names of the various parts of the growing plant. That part of the wheat plant which farmers colloqui- ally call the head or ear, is termed, botanically, a spike, as 14, in the accompanying illustration. A subdivision of a spike, or ear, is called a spikelet. In some sections of the country, a spikelet is better understood if it is spoken of as a breast of wheat. At A, in the illustra- tion, a three flowered spikelet is represented. B B are the beards or awns. The ear 14 is called beardless, awn- less, or bald wheat. At the right hand, 1 represents the rachis, or the centre of the ear, as it appears after the grain and chaff are removed, either by thrashing, or rubbing the ears in the hands. The spikelets are placed on alternate sides of the rachis, so that the edges of the florets, 5, 5, 10, in the spikelet, A, of the illus- tration, lie toward each other. At 4, the glumes are represented. At 13, a kernel of grain is shown. B, 2. represents a kernel of wheat enclosed in the chaff; or such portions are spoken of as " white caps." Certain kinds of wheat are remarkable for white caps, THE WHEAT CULTUEIST. 25 Previous to the invention of the thrashing-machines, when the wheat was thrashed with flails, or trod out with horses, white caps were a serious annoyance, when Fig. 2. — Different parts of a wheat head. grain was being prepared for market. But thrashing- machines remove the inner chaff, or the white caps. At 2 26 THE WHEAT CULTUEIST. 4, 5, 6, 7 an awned glume and kernel is represented, with the grain laid bare: Before thrashing-machines were invented, farmers considered it an important char- acteristic of wheat to thrash easily, and be free from white caps. The old bald wheat, and the Hutchinson wheat always thrashed easily. But the Whiteflint variety furnished white caps in untold numbers. But now some wheat-growers consider the Whiteflint variety the most desirable, as the kernels are enveloped closely in the inner chaff; consequently, the wheat midge is not so apt to injure the grain as if the chaff were more open. How Kernels of Wheat Germinate. "Lo ! on each seed, within its slender rind, Life's golden threads in endless circles wind ; Maze within maze the lucid webs are rolled, And as they burst, the living flames unfold : Grain Avithin grain, successive harvests dwell, And boundless forests slumber in a shell. 1 ' The germination of a kernel of grain, the manner of the growth of the roots of the young plant and their ramifications through the soil, the unfolding of plumule, or stem, and the full and perfect development of the ear and the full corn in the ear, all considered collec- tively, constitute a wonderful mystery ! When we con- sider what a very minute and tender thing the germ of a kernel of wheat is ; how easily a score of enemies may destroy it, or how quickly some adverse influence of cold or heat, or of both operating alternately, may de- stroy the vitality of the germ, it is really a wonder tli at farmers are ever able to produce a single bushel of wheat. The accompanying illustration represents a kernel of THE WHEAT CULTTJEIST. 27 y b Fig. 3. — A kernel of wheat magnified. wheat with the groove downward. The part marked ^represents the main part of the kernel which supplies nourishment to the growing plant. By cutting a kernel of grain into thin slices with a sharp knife, the germ or embryo may be seen at e. At b the plumule, or stem, appears ; and c rep- resents the radicle, while A and ^ show the first and second skin of the kernel. The true roots issue at the points of the kernel represented at f and g. J. H. Klippart states in his " Wheat Plant," that as soon as moist- ure has found its way through the canals in the husks or skins, a, a, 5, c, and d, so as to be in contact with the starch cells, e, the moisture penetrates the cell-walls of the seed and its embryo, and there forms a strong solution. The seed has now the power of decompos- ing water. The oxygen in the water combines with some of the carbon of the seed, when the product is ex- pelled as carbonic acid. The presence of moisture and oxygen induces putrefaction of a portion of the albu- minous matter in the cells, which becomes an actual fer- ment, exhaling carbonic acid gas, generating heat, and converting the insoluble starch which is stored up in the kernel into soluble -sugar. The starchy substances deposited within the seed were undoubtedly designed to furnish food to the young plant until the roots and leaves have attained sufficient size to derive nourishment from the soil and the atmosphere. In wheat, starch is the most important ingredient of plant food. 28 THE WHEAT CULTTTRIST. The termination of a kernel of wheat is further illus- trated by the figure herewith given, which represents a grain of wheat highly magnified. B represents the body of the kernel, composed of starch and gluten. A is the cellular tissue, the original covering of the embryo blade. C is the main root ; and D shows the hard cellular matter which constitutes the base of growth of the root and stem. E, E, E are free cones of cells at the points of roots. F, F are lateral roots, a is the future stalk or plumule, d is the course of bundle of dotted fibre. 6, 6, e are suckers ; and f, i represent the course of spiral fibre. A, h, h show the cellular tissue, or covering of the blade. Spongioles. I have met with certain botanists who sneer at the idea of there being spongioles at the ends of the roots of wheat. Yet, all the most reliable authors of trea- tises on botanical subjects speak of spongioles. And if THE WHEAT CULTUEIST. 29 a person will examine the ends of roots of the wheat plant, with a microscope, he will find a free cone, or spongiole, at the ends of the roots E, E, Fig. 4 ; and the same thing, highly magnified, is represented at Fig. 5. The part represented by the letter d is the root; and c, b is the lozenge-shaped cone. This free capsule envelops the inner apex of the growing root ; but there is a space free from cells between the base of the cone and the apex of the root which the cone covers. Beneath this cellulated cone, or capsule, the growth of the roots takes place, by the development of cells at the Fig. 5. — Spongiole highly magnified. extremity of the inner apex of the roots. Soon after the main roots are formed, suckers, or rootlets, e, e, e, Fig. 4, are put forth, on the ends of which are minute 30 THE WHEAT CULTURIST. capsules, similar to the magnified spongiole represented by Fig. 5. The grand practical point for farmers to consider is this : the capsules at the ends of the roots are thrust through the soil like the point of a plough ; and the roots are formed behind them. This teaches us the eminent importance of assisting nature, by preparing a mellow seed-bed, through which the roots may spread with little difficulty. The Stem, or Plumule. The illustration herewith given represents the ex- tremity of the stem of wheat, highly magnified, as the end appears when the wheat is coming up. Although this illustration resembles a stack of hay or straw, it exhibits the free capsule of cells and epidermic plasm which are so nearly identical with those of the roots of the same growing wheat plant. As soon as the plumule has forced its way through the soil, and appeared above the surface of the ground an inch or more — J. H. Klippart in his Wheat Plant states — that the stem gives birth to the first true leaves, as seen in Fig. 8 on a succeeding 3| j page, while the central bud r£ is destined to become the future stalk. There can be fig. e.-End of the plumule. n0 reasonable doubt that the cellular envelop, A, B, performs a similar function THE WHEAT CULTUKIST. 31 to the capsules of the roots, Fig. 4. In other words, the material in the envelop exerts a chemical influence on the soil which lies immediately above it, rendering the earth more yielding and pliable, so much so that the tender plumule can come up into the sunlight and air with little difficulty. The plumule is of great importance to the existence of the wheat plant. By its existence we may readily demonstrate how dependent each organ of a plant is on the other, and how harmoniously every part performs its destined function in sublime silence. If the heart, or plumule, of the young wheat plant be pulled out from between the leaves, it will not be replaced by a new one. Yet, if the kernel or plant be not too much exhausted by a luxuriant growth, a new plumule will appear from the grain, or main root, directly below the surface of the soil. The first effort of the growing plant toward more perfect development is to form a joint, or knot, im- mediately beneath the surface of the soil, and another a little above the surface. The upper one of these joints is the true commencement of the stalk. The joint beneath the surface marks the place from whence the coronal roots emanate, as has been already stated on a preceding page. These coronal roots are the chief laboratory for the preparation and distribution of the future nourishment of the growing plants. The Action of Roots and Spongioles. " There is no subject connected with vegetable physi- ology which more nearly concerns the practical cultivator, as well as the man of science, than the precise nature 32 THE WHEAT CULTURIST. of the action of roots ; for on them, more than on any other organ of a plant, depends the health of crops of every kind, without one single exception. That the subject has not received more attention is one of the curiosities of science. It is true there are many state- ments of variable character and value ; yet even more speculations respecting the manner in which roots be- have — theories of excretion — assertions regarding the chemical action roots are said to exercise on dead mat- ter ; but the quiet practical man who reads these be- yond the atmosphere of science, is far from being satisfied with what he finds in books. " The question as to whether the roots of plants are or not endowed with any special excretory functions is one which has occupied the attention of many natural- ists, as being one of considerable importance, as well to the vegetable physiologist as to the agriculturist, in its application to the principles of alternation of crops. No absolute conclusion has as yet been come to, the affirmative as well as the negative having been respec- tively maintained, either from general induction, or more rarely from direct observation and experiment. The opinion, however, that no such excretions take place, has been the most generally adopted. " The impossibility of closely following under the microscope, in their natural circumstances, vegetable phenomena which take place under ground, and conse- quently in the dark, and in an opaque medium, is ob- vious. As a nearest approach to it, Gasparrini has caused the seeds of various plants to germinate under glass, in water, or in well- washed sand, in the dark or under diffused light, and thus examined their roots with- out disturbance in various stages and at various seasons. THE WHEAT CULTUKIST. 33 He also raised plants for the purpose in vases of sand well pulverized and washed, so as to be able to free the roots for examination, at a more advanced period with the least possible injury. His numerous experiments appear to have been conducted with the most scrupu- lous care, for which, moreover, his well-known success in analogous researches offers a sufficient guarantee. " It has long been known that roots absorb the nutri- ment necessary for the plant, by means of the young fibres which form the ultimate ramifications of the roots ; that these fibres are terminated by a short portion of a loose and soft texture called by botanists the spongiole, Fig. 5 ; that this spongiole is the point of growth of the fibre, usually bearing at its extremity a kind of cap of a harder and drier texture, called the pileorhiza, a, Fig. 5, which is pushed forward by the fibre as it grows ; and that, immediately below the spongiole, the fibre is usually more or less invested with a short down consist- ing of small spreading hairs. Gasparrini shows that the spongiole itself seldom takes any part in the absorp- tion of the nutriment for the plant, but is nothing more than the young as yet imperfect part of the fibre, con- sisting of cellular tissue in the course of formation ; that the pileorhiza is a portion of the epidermis or covering of the fibre, which, after a period of comparative rest, is torn from the remainder of the epidermis and pushed forward by the growth of the spongiole under it, and is ultimately cast off, to be reproduced by similar causes the following season ; and that in the great majority of vascular plants the nutriment is either entirely or chiefly absorbed by the root hairs formed on the young fibres at the base of the spongiole, and which he on that ac- count denominates suckers. 2* 34 THE WHEAT CULTURIST. " Each of these root hairs or suckers consists of a sub- cuticular cellule of the epidermis, more or less length- ened out into a cylindrical hair-like form. It is at first uniformly smooth and straight, but at a later period either the extremity or the upper portion or sometimes nearly the whole length becomes variously deformed by club-shaped dilations, or irregular ramifications. The length of the suckers, and the shapes of these irregu- larities, are often more or less affected by the obstacles they meet with in the earth, but not entirely so ; for when grown in water perfectly free from an impediment there is very great irregularity in both respects. In- ternally, however much ramified, the cell remains entire with one continuous cavity from the base to the extrem- ity of all its branches. Its walls also consist of a single membrane, no chemical reagent having disclosed any distinction between the walls of the cell and an external cuticle. " These suckers appear to absorb the alimentary juices by endosmose over their whole surface. Like leaves on the young aerial shoots, they are formed on the young shoots of the roots ; like leaves also they die and disap- pear after a longer or shorter season, leaving the old roots entirely without them. " When fully formed, and before they decay, these suckers become more or less covered in their irregular branching portion (rarely in their basal cylindrical part), with viscous papillae or adhesive globules, forming gran- ular masses, to which the surrounding earthy particles strongly adhere. Are these viscous masses excretions from the roots, or are they the residue of substances contained in the earth and chemically decomposed by the roots in the absorption of such elements only as THE WHEAT CULTURIST. 35 might be suited for the nutriment of the plant ? It is to the solution of this question that Gasparrini's experi ments are chiefly directed, and he concludes that they are entirely exuded from the suckers. " In the first place he adduces several experiments in refutation of those who believe that the tender fibres of roots possess some chemically dissolvent properties, and that it is by such means that they are enabled to pene- trate into masses of hard substances, whether inorganic or organic, such as the woody tissue of living plants. In the case of the common mistletoe growing on a pear tree, he followed the radical fibres of the parasite from the woody tissue through the alburnum and the par- enchyma of the bark sometimes to the length of half an inch. They could be clearly traced their whole length, although forming an intimate cohesion with the tissue of the matrix, except the spongiole at the extrem- ity, which was always free ; but he never saw the slight- est indication of any morbid alteration in the tissue thus penetrated. " In the case of the young plants of wheat, rye, bar- ley, rape-seed, and others which had been caused to germinate under glass, the process of excretion was readily observed. Previous to the formation of the ad- hesive globules on the surface, the suckers were full of a fluid in which floated a granular substance showing clearly a circulation in two currents, the one ascending, the other descending ; after a time the suckers opened at the extremity and discharged the greater part of the granular substance they contained, the discharge being- preceded by a peculiar motion analogous to that of pollen grains before they burst. The contact of a drop of warm water accelerated the discharge ; and if the 36 THE WHEAT CULTURIST. fibre was cut through at its base, the motion of the sucker was sudden and convulsive, and the contents dis- charged with considerable elasticity. " In the roots grown naturally within the earth, the circulation of the fluid contents of the suckers, when observed, was slow and feeble. Those which yet re- tained the granular substance withinside, were as yet free from the external papillae, while those covered with the viscous masses outside, were nearly empty internally. But in these cases the excretion appeared but rarely to have been affected by the bursting of the extremity, but usually by exudation, through the membrane forming the walls of the cavity, and that in a manner which could scarcely be explained by endosmose alone, but by some other force unknown to us, and which must be included in the mysteries of vital action. " With regard to the effects produced by these exuda- tions on the capabilities of the soil for the nutriment of other plants at the same time, or in succession, there is nothing to show that they possess any acid, caustic, or saline properties likely to act prejudicially on other roots. Whether the matter be compared to the fecal excretions or to the residue left by insensible perspira- tion on the skin of animals, it can well be imagined that it cannot serve for nutriment if reabsorbed by the same plants, nor probably if absorbed by others until decomposed ; but owing to its extreme tenuity the decom- position takes place very readily ; and as recent detritus of vegetable matter, its quantity is very small in com- parison to that of the decayed sucker and pileorhizas, and of the numerous 'fibres which perish from natural or accidental causes. If in the relative effect of differ- ent plants on the impoverishment of the soil, the radical THE WHEAT CULTURIST. 37 excretions have any effect, it can only be caused by the difference in the quality left in the soil by different spe- cies. Some of the plants known to exhaust the soil in the highest degree, such as flax and box, have few or no suckers to their roots and leave scarce any exuda- tions. Rye and many other grasses deposit very little in comparison with crucifers and cichoracese. Hemp, on the other hand, which is a great exhauster, exudes a great- deal by the roots ; so do wheat and barley, but the exhausting effects of these plants may be traced to other causes. Thus, then, although from these experi- ments the fact of absorption and excretion from the surface of organs of temporary duration on the young shoots of roots is clearly demonstrated, we do not pos- sess any data sufficient to affirm that the matter ex- creted produces any effect whatever on the capability of the soil to supply nutriment to other plants grown in it. " One of the experiments made by Gasparrini is very instructive as to the noxious effects of vegetable manures in those first stages of decomposition which are so fa- vorable to the development of moulds. In the month of January he sowed seeds of Triticum spelta, or as it is more commonly called Spelts, in a number of small garden-pots filled with well-washed Vesuvian sand. In one pot he placed a piece of young dead wood of Ailan- thus gland ulosus, in another a piece of bread, in another a portion of a green potato, in a fourth a portion of a radish root, in a fifth some parings of kid's hoofs and bits of nutshells, in the sixth nothing, for the sake ot comparison. The pots were all watered with common drinking-water, exposed by day to diffused light, and in clear clays for a few hours to the direct light of the sun, 38 THE WHEAT CULTUKIST. and placed under cover by night. At the end of a month each pot contained three plants, all, even those in the pot without any organic substance, equally healthy and luxuriant, about a span high, and with two leaves each. " In the pot in which was the piece of bread, the roots of the spelt were much branched, the fibres almost all turned toward the sides of the pot ; the numerous suckers were as yet scarcely modified, or had only slight gibbosities toward the extremity ; no circulation was perceptible ; the granular mucous substance inside was more or less abundant, and many were sprinkled ex- ternally toward the extremity with similar mucous granular masses. A few fibres approached within a certain distance of the bread, but none had penetrated within it. The bread had become a soft, putrid, spongy mass, covered externally with white branching filaments spreading from it into the sand in every direction, and already in many places having nearly reached the sides of the pot ; and here and there a commencement of fruc- tification seemed to show that these filaments belonged to a species of Botrytis. The spongy mass of the bread was also almost entirely occupied by a violet-colored mycelium which appeared to be that of a Penicillium / the filaments of this mycelium had also spread from the bread in various directions. Some had descended to the bottom of the pot, where they had attacked and produced a morbid alteration on one side of a bit of the rhizome of Smilax aspera, which had been placed over the hole of the pot. In another direction the mycelium of this Penicillium, together with a few filaments from the Botrytis, had reached a fibre of the Triticum* and had encircled it for the length of half an inch. The portion THE WHEAT CULTURIST. 39 of fibre so attacked was soft, livid, and dead ; and the extremity toward the spongiole was shrivelled and also dead. In the livid portion, the suckers were but little developed and mixed with the Botrytis filaments ; but it was evident that the chief injury to the roots was pro- duced by the Penicillium, whose filaments adhered firmly to their epidermis. In none of the other pots had the roots of the spelt come into contact with the organic substances deposited in the soil." Blossoming of Wheat. In order to enable the beginner to understand more perfectly the character of the wheat plant, I shall en- deavor to explain by the accom- panying illustration, Fig. 7, the blossom of the growing wheat. This figure represents a glume of wheat in bloom, magnified twelve times, a represents a rup- tured anther, which is that part of the wheat blossom that contains the pollen grains in which is found the male fecundating fluid, principle, or property of the blossom, by which two different kinds of grain growing in close proximity hyb- ridize, or mix. That part marked h is termed the filament, or thread, from its thread-like form; and it connects the anther to the ovule or glume, as the case maybe. The entire organ, a, b, is called a stamen, a, c, c repre- Fig. 7. 40 THE WHEAT CTJLTURIST. sent the male portion of the wheat blossom; and e, e show the appearance of the female part of the flower. d represents the ovule, or unimpregnated seed, or part of the growing plant which is destined to become a seed, or the new grain. The pistils are always in the centre of the flower, and are attached to, or surmounted on the ovule, or ovary, to which they serve as ducts for the pollen grain, when brought in contact with each other. It may be perceived by the illustration, that the anthers, a, have their exit at the upper portion of the glumes, so that the pollen may readily descend, by its own gravity, directly upon the pistils: The pistils and the pollen grain are covered with an exceedingly thin coat of mucilaginous matter, which causes them to ad- here, when they are brought in contact. The grand practical consideration which I have had in view by recording these suggestions and facts, relative to the stamens, pistils, and pollen of the wheat blossoms, is to give practical farmers a fair idea of the process of impregnation and hybridization. Yery few farmers think of this fact. Thousands of practical men of fair intelligence know nothing about the means by which wheat mixes, and how varieties, when planted in a close proximity, mix and soon run out. Hybridizing Wheat. I pen elaborate suggestions under this head for the purpose of impressing upon the mind of every farmer the eminent importance of striving to keep his varieties of wheat from growing in close proximity, and conse- quently from hybridizing ; and I could think of no more effectual way to accomplish the desired end, than by THE WHEAT CULTTJRIST. 41 introducing to my readers the operation of hybridiza- tion. D. J. Brown, in one of the Patent Office Reports, when alluding to the hybridizing of wheat, states that : " The terms ' mule,' ' hybrid,' ' half-breed,' and ' cross- breed ' are vaguely and indiscriminately used by many writers ; but it is essential to accuracy, that more precise distinctions should be observed. The offspring of two animals of different species is a mule, and is seldom en- dowed with the procreative power, and still more rarely with a long-continued succession. The product of two plants of different species is a hybrid ; and although it is in general more prosperous than the mule of animals, it is still destined to yield at length to the beneficent law of Nature, which ordains that neither among animals nor vegetables shall the distinctions of species be oblit- erated. The permanent divisions among plants of the same species, often called ' varieties,' are properly ^cfe, or races. The product of two individuals of the same species, but of ditterent races, is a variety, as is every modification of this, effected by cross-fecundation with any other variety, or with any of the races of its species. " Great advantages have been found to proceed from the practice of cross-fecundation, in the extraordinary improvement effected in the flowers, esculent vegetables, and fruits of almost every country. That the Cereals have only to a limited extent shared these advantages is a subject of just surprise to the curious inquirer ; but, until very recently, it was doubted that much, if any- thing, could be accomplished in regard to them. Pro- fessor Gsertner, of Stuttgart, who has been said to have almost exhausted the subject in certain points of view ; has declared the Cereals to be ' among the plants 42 THE WHEAT CULTURIST. least favorable to cross-fecundation." In 1851, however, prize medals were awarded at the Industrial Exhibition, in London, to Mr. B. Maund, and to Mr. H. Raynbird, of the United Kingdom, for their respective collections of " hybrid Cereali." In their award, the jurors speak of the process, not as impracticable, but merely as being difficult, in consequence of the care requisite in remov- ing the unexpanded anthers from one plant, and apply- ing the pollen of another, and subsequently guarding them from the attacks of birds, insects, and other dis- turbing influences. " Mr. Maund experimented with ' Cone ' wheat, which contains much gluten, in the hope that by crossing it with a race containing more starch, he might obtain a whiter quality of equal value ; but it is not stated that he was wholly successful. Mr. Raynbird commenced his experiments in 1846, with the ' Hopetoun,' a white wheat, of long ear and straw, and fine grain, and 'Piper's Thickset,' a coarse red wheat, with thick, clustered ears, a stiff straw, and very prolific, but liable to mildew. Mr. Maund enumerates eight instances in which successful cross-fecundation had taken place, as follows : "Mr. Maund found, as a general rule, in the cross- fecundation of wheat, that a strong male and a weak female produced a better result than a weak male and a strong female. This principle holds equally good in the animal kingdom as well as in the vegetable. " The entire feasibleness of the production of new va- rieties of wheat by cross-fecundation, and its great de- sirableness, being thus established, it is not doubted that many intelligent agriculturists of the United States will be willing to institute further experiments for the pur- THE WHEAT CULTURIST. 43 pose of developing improved varieties, or such as shall be found peculiarly adapted to the soil, climate, or de- mands of particular sections of the country ; and, for their guidance, a few practical suggestions will here be given. " New varieties thus produced resemble both parents, but seldom in an equal degree. In successful experi- ments, they are usually of earlier development than either parent, more prolific, and better adapted to with- stand cold and drought. A late plant of an early, and an early plant of a late race, may be made to produce early, late, and intermediate varieties. Sometimes, when the first cross is not good, a mixture between it and one of the parent races, or even a second or third cross of this nature, may result in the desired quality. Two races, which do not cross freely, may also find a medium of union in a third. Again, a race that will not readily receive, will often freely impart impregna- tion. " In every perfect head of wheat, there are, during the blooming season, both male and female organs of repro- duction, three stamens and one pistil. The stamens, or male organs, shoot out beyond the chaff, or calyx, each having an anther suspended by a fine thread. " The three males are designed to impregnate the stigma of the one female, or pistil, which is situated in the centre of the anthers. From these anthers, a pow- der, or pollen, is emitted, which adheres to, or is ab- sorbed by, the stigma, and is conveyed by it down to the berry, or seed, at its base, and thus effects the work of fecundation. So decided is the preference of the pistil for the pollen of its own stamens, that it is often impossible to impregnate it with that of any other head, 4A THE WHEAT CULTTJKIST. while a particle of this is near. Impregnation takes place best when the weather is dry and warm, as a pecu- liar warmth, and a certain electric state of the atmos- phere, prepare the parts for this process, which always occurs on a dry day. The opinion, indeed, has been ex- pressed, that the pollen of the male conveys hydrogen to the ovules of the female ; that oxygen is received from the atmosphere, and carbon, in the form of carbonic acid gas, from the roots ; and that, when the pollen is destroyed by the rain, or from any other cause, the carbon alone is found in the ear; and this is the well- known ' smut ' in wheat. That pollen of the stamen is essential to impregnation is at least certain ; and it is al- most as certain, from what has been stated, that the total destruction of the reproductive power of a particular race of wheat must be effected, before the influence of another can be felt. Two races being placed together, therefore, a cross can only be certainly effected by clipping the anthers from all the stamens of one variety, and leav- ing the work of impregnation to be effected by those of the other exclusively. This may be done by any person capable of distinguishing between the two races ; but, perhaps, the safer guide to this distinction consists in sowing the two in separate drills, very near each other, say nine or ten inches apart ; and to render the work still more sure, there should be no other growing wheat within at least a quarter of a mile of that experimented upon, the affinity between the pollen and the ovules being of almost incredible force. "As soon as the anthers show their first rudiments, in a race upon which the cross is to be made, they should be carefully removed, or clipped with a pair of sharp scissors, leaving the female organs undisturbed. THE WHEAT CTJLTURIST. 45 Thus the races would be impregnated with the pollen of one. When matured, the utmost care should be taken to gather the seeds of the crossed race by itself. "Hybridization is an operation requiring dexterity, a light and steady hand ; and it has been frequently re- marked that the operation is more uniformly successful when performed by a female. Many singular facts with regard to the structure of flowers have been discovered through attempts to hybridize. In the common nettle, the stamens have elastic filaments which are at first bent down so as to be obscured by the calyx ; but when the pollen is ripe, the filaments jerk out, and thus scatter the powder on the pistils which occupy separate flowers. In the common barberry the lower part of the filament is very irritable ; and whenever it is touched the stamen moves forward to the pistil. In the stylewort the sta- mens and pistils are united in a common column, which projects from the flower. This column is very irritable at the angle where it leaves the flower, and when touched it passes with a sudden jerk from one side to the other, and thus scatters the pollen." Klippart's Suggestions. " When it is desired to obtain a hybrid from her- maphrodite flowers, the first thing to be done is to re- move the anthers ; this is best performed early in the morning, because the dew has swollen the anthers, and prevents the opening of the little sac, which contains the pollen. The simplest method of removing the anthers is to use a pair of very small scissors or forceps. Then at, or toward noon, carefully remove the anthers 46 THE WHEAT CULTURIST. from the flower with whose pollen we wish to impreg- nate, and shake them gently so that the pollen dust may fall upon and adhere to the stigma of the flower from which the anthers had been removed in the morning. The heat of the day produces a dilatation of the pollen, and thus facilitates its dispersion. " In order, then, to hybridize, it is necessary to take the heads of wheat which are intended to be the parents, botli male and female, when they have arrived at that state of maturity indicated by Fig. 7, or before any of the anthers have escaped from the glume. Suppose a cross is intended to be consummated between the Gen- esee Flint, as male, and White Blue Stem, as female. Then, on a dry and warm day — this state of weather seems to be necessary, as at such times impregnation not only more readily takes place, but appears to be more successful — between 10 and 12 o'clock, hold the head of the Blue Stem downward, and carefully open the glume ; then with a very sharp-pointed scissors, cut off the anthers (a, c, c, Fig. 7), and let them fall to the ground. Great care must be taken that no anther is permitted to touch the pistil of the same head, either before or after separation of the filaments (b, b, Fig. 7). This is perhaps the most delicate part of the operation. After the anthers have been removed, pollen grains from the anthers of the Genesee Flint must be immediately ap- plied to the pistil of the glumes from which the anthers have been removed. " In order to preserve the heads thus impregnated from injury by insects or birds, they may be enveloped in a hood of gauze, or Swiss muslin ; but no caution whatever is necessary to guard against accidental intro- duction of pollen grains." the wheat cultttri6t. 47 Characteristics of a Perfect Variety of Wheat. As the growing wheat plants and ripening grain have so many, enemies to encounter, and as variable climates and changing seasons greatly affect the quality of the grain and the yield per acre, it is eminently desirable that a variety should be selected for seed which will escape if possible, all the injuries incident to the wheat crop.- I will mention the most desirable characteristics of a superior variety of winter wheat. 1. Early maturity. This characteristic must not be overlooked, as a period of only a few days in the matu- rity of the crop, will often decide whether the farmer is rewarded for his labors, or whether the wheat midge destroys most of the crop. 2. Prolificacy. By this I mean, that the variety shall be pure, having been cultivated with unusual care on a fertile soil, until the yield will be as large as it is possible for the soil to produce of any other variety of wheat. 3. Midge-jproof. The glumes, or chaff, of certain vari- eties of wheat grow with an open chaff, which enables the wheat midge to commit its ravages with very little hindrance ; while the chaff of other varieties grows close to the kernels, thus offering a very effectual preventive to the entrance of these pests of the wheat field. A variety that grows with a loose and open chaff should be rejected, and a kind of seed chosen that grows with the chaff* close to the kernels. 4. A thin ski?i, or bran. Some varieties of wheat will yield several pounds more of flour than another variety. For this reason, that wheat which will yield the largest quantity of flour per bushel, is more profit- 48 THE WHEAT CULTURIST. able to cultivate, than a variety which affords a larger percentage of bran. 5. Hardiness in winter. Yery few farmers in our country recognize this characteristic of wheat. . Either they do not believe it, or they have not given the sub- ject sufficient thought to satisfy their minds, that one kind of wheat may produce tender plants that the cold weather will destroy, while the plants of another variety, growing in the same soil, will not be injured by the cold weather. I consider this characteristic of wheat one of the most excellent features that can be named in any va- riety of winter grain. Let me not be misunderstood on this point. 1 do not mean that the young plants of a hardy variety will not be lifted out by the freezing and thawing of wet ground, while the plants of a tender variety will be de- stroyed by the upheaval of the surface of the land. That is not my idea. ~No wheat plant can resist the action of the frost in heaving out the roots, when wet ground freezes and thaws. But, what I desire to be understood on this point is, that on dry land, which is naturally dry, or has been made so by under-draining, the plants of one variety of wheat will endure the rigors of winter without injury, while those which sprang from another variety of wheat sowed at the same period, will experi- ence such serious injury by the cold weather — not by being lifted out by the frost — that the product of grain will not be half a crop. A farmer can determine by observation whether a wheat plant has been lifted out of the soil by the frost, or whether the dead or injured stems and leaves remain as they grew. If wheat plants die without being lifted out by the frost, the evidence is conclusive that THE WHEAT OULTUKIST. 49 the variety is not so hardy as it should be. Every wheat- grower should take critical observations on this subject, with a purpose to reject a variety that will not endure the winter satisfactorily, and to improve those kinds that appear most hardy. 6. Regularity of Bows of Grain.— A. perfect variety of wheat will produce regular and uniform rows of grain; and the kernels will all appear of a uniform shape and color. When the variety is not perfect, the heads will exhibit irregularities of form, like the Y^eeks Wheat on a succeeding page. The Andriolo shows a perfect wheat. The form of the heads, the color and shape of the kernels, may always be relied on, as a cer- tain index to the purity of the variety. 7. Stiffness of Straw. — Some kinds of wheat will lodge, or fall flat to the ground, long before harvest time ; while the stems of another kind will maintain an erect position until the grain is perfectly matured. The ears of grain will never swell out full and plump, filled with large kernels, if the stems are not kept in an erect position till harvest time. Grain that has a slender straw, therefore, should be rejected ; and a variety should be chosen that produces stems which will not lodge, unless the growing crop is beaten down by protracted storms in connection with driving wind. The Habit of the Wheat Plant. By hahit is understood the manner of growth and development of the stem, leaves, and roots. In order to be able to cultivate wheat with satisfactory success, a farmer should have a correct understanding and a lively appreciation of the habit of the growing plants, which will enable him to prepare the soil, put in the seed at 3 50 THE WHEAT CULTURIST. the proper depth, sow the most desirable quantity per acre, and give the growing crop the proper cultivation. In order to obtain a more correct idea of the habit of the wheat plant, experiments should be made by planting a few kernels of wheat. Fig. 8. — Wheat plant. The accompanying illustration of a young wheat plant, which sprang from a kernel planted by myself, will THE WHEAT CULTURIST. 51 serve to show something of the habit of wheat. Every kernel sends out numerous long roots and roc tlets, as represented by the figure. The kernel was buried about one inch deep. The longest leaf was about four inches long when the sketch was made. The roots which spring from the kernel are called the primary roots. At A, a little below the surface of the soil, is a ring, or bulb, in the stem, from whence the coronal, or secondary roots spring, which all spread out horizontally ; while the primary roots strike downward as far as the soil has been pulverized ; and where the subsoil is not compact, the roots frequently grow from one to four feet below the stratum of soil moved by the plough. Here is a point of eminently practical importance to wheat-growers, which will be explained more fully under the heading of the Advantages of Drilling in the Seed, viz. : when the grain is deposited from one to two inches deep, the primary roots, which issue from the kernel, and the secondary roots springing from the joint A, are so near each other that freezing and thawing of the soil is not so liable to injure the plants daring a mild winter or late spring, as the numerous roots and fibres hold the soil in a kind of mat, which prevents the frost from heaving out the young plants. The habit of the wheat plant is further illustrated by the accompanying figure of a wheat plant which sprang from a kernel planted six inches below the sur- face. The leaves, it will be perceived, appear slender and not so strong and luxuriant as those of the pre- ceding plant. There is a plausible and philosophical reason for it. The substance which composes the kernel is transformed into the primary roots and stem. If the kernel is small, and is buried deep, there is sometimes 52 THE WHEAT CTJLTURIST. not enough nourishment in it to form a stem to reach the surface of the ground. When this is the case, both roots and stem cease to grow, and die before the young plant has come up. In five days after the kernel was planted, the first leaf ap- p eared. In two days more the leaves were develop- ed as here rep- resented. The joint at A, in- sures the for- mation of a system of sec- ondary roots, the office of which is to take up nour- ishment for the growth and fructifica- FiG. 9. — A young wheat plant from a kernel planted deep. tion of the plant. At this point also the tillering of the plant takes place, and not where the primary roots unite with the stem at the base. The stem of this plant is represented as having been doubled. THE WHEAT CTJLTURIST. 53 Tillering of the Wheat Plant. As an effectual means of multiplying the young wheat plants, where the soil is sufficiently rich to sustain more than one stem, nature has provided for an increase of the stems, just in proportion to the amount of roots. The illustration herewith given rep- resents a stool of growing wheat which has sprung from a single kernel. If the soil is rich, so that large and strong roots are formed which afford more nourishment than one stem can appro- priate to its growth and development, other plumules or stems will continue to appear until they can take up all the nourishment that the complete mat of roots supplies. See this subject more ful- *■»• 10.— stool of wheat, ly explained under the head of Thick and Thin Seeding. 51 THE WHEAT CULTURIST. The tillers always spring from the joint, knot, or bulb, just below the surface of the ground, when the seed is planted more than one inch deep. When the kernels are planted very shallow, it seems difficult to determine whether the new stems or tillers start from the grain, from the seminal, or primary roots, or from the coronal, or secondary roots. This a matter of little consequence. Yet the fact that the young wheat plant does tiller is a valuable one ; and practical wheat-growers may take profitable advantage of it. I have seen stools of wheat having forty-eight steins ; and have had reliable accounts of stools of over seventy Fig. 11.— Stool of stubble. stems with perfect heads. C. Miller planted a few ker- nels of wheat on the 2d day of June ; and in August, one of the plants had tillered so much that he was en- abled to divide it into eighteen distinct plants, all of which were transplanted. After a few weeks, these had THE WHEAT CULTURIST. 55 tillered to such an extent, that the number of single plants put out before winter was sixty-seven. The next spring all these plants continued to tiller, until the num- ber of growing stalks, from one kernel, amounted to five hundred. The soil was in an excellent state of fertility ; and the product of grain reported from a single kernel, was so large, that I cannot receive it with sufficient con- fidence to enable me to record the result in this place. What I have penned will be amply sufficient to show the practical farmer, when he has only one or a dozen ker- nels of wheat, how he may obtain more than a thou- sand-fold in one season. By understanding the habit of the wheat plant, when producing a new variety of grain, a farmer may accomplish in one year, more than he would be able to do in three seasons, if he be ignorant of this peculiar habit of the growing plant. How the Stems are Formed. Trees are exogenous plants ; but wheat and the other grains are endogenous. Trees and some other kinds of plants increase in height by the growth of the outside and the outer extremity of branches. But the stems of wheat increase in height by lengthening the cylindrical portions between the joints. The straw, or tubular stem, is formed nearly the way that lead pipe is made. The melted lead is forced out of an issue at the under side of a huge iron mould, by means of a piston fitting air- tight, which is forced down upon the lead equal to a superincumbent pressure of one thousand tons ! The tube issues from the mould slowly, so that the metal has sufficient time to cool before it leaves the mould. Within a space of six inches in the mould, the lead pipe 56 THE WHEAT CULTURIST. ' may be found in every stage of formation, from perfect liquidity to a solid. Perhaps an inch from the outside of the issue of the mould, the lead is in a semi-plastic state. A little farther up, the lead tube is in a semi- fluid condition. On the upper side of the joints of wheat straw, down in the sheaths, which fit the straw cylinders perfectly air-tight, the material which forms the straw is in a liquid state. The sheath is the mould, and the straw is the piston. By the vital expansion of the liquid above the joints, the length of the straw i? increased between them, so that the upward growth o^ the plant takes place above every joint. If there be. six joints in one straw, and the length of each is increased only one-eighth of an inch in twenty-four hours, the head of grain will be elevated above the roots three- fourths of an inch per day. These facts in vegetable physiology will enable us to understand why the stalks of Indian corn often grow more than two inches in height in less than a day ; and we perceive, also, something of the practical im- portance of having an abundant supply of nourishment for the roots of the growing wheat to take up and ap- propriate to the growth and development of the straw, at that critical period when portions of the straw are in a liquid state ; as the wheat plant cannot lay up in store plant food to be' employed in promoting the growth of the various parts at the time when the pabulum is needed most. The growth of wheat plants suggests many interesting thoughts to which I shall not allude, as the purpose of this treatise is primarily to bring out items of a practical character, without burdening the reader with interesting theories of no practical utility. THE WHEAT CULTURIST. 57 Climatology of Wheat. For more than thirty years, I have taken observations on this subject, with a special reference to ascertaining what are the facts in the case with reference to the cli- matology of the wheat plant. My purpose has been, if possible, to ' lay down some reliable guide for be- ginners who may exist hereafter. But I regret to say, that I have been able to find nothing to corroborate the popular theory in relation to selecting wheat from dif- ferent latitudes, with a view to secure a variety that will ripen as early as it possible for a crop of wheat to mature. (I may state, in parentheses, in this place, as the idea is quite irrelevant to the subject, that the ulti mate object in procuring seed wheat from other climates is to get a variety of grain that will ripen before the wheat midge commences its ravages. Late-ripening wheat is far more liable to be destroyed by the wheat midge than if the grain matured ten to fourteen days earlier. See this subject elucidated under its appro- priate heading — Selecting Early Varieties.) Farmers have always said that, in order to obtain a variety of grain that will ripen earlier in the season, the seed must be obtained in a latitude farther to the north, except for wheat, which must be brought from a south- ern latitude. Numerous experiments have been re- corded, showing that wheat brought from a latitude farther north, failed to mature as*early in the season as the same variety had been accustomed to ripen where the seed grew ; and when the seed was brought from the south, the same failure was observable. I have, therefore, arrived at the following deliberate, 3* 58 THE WHEAT CULTUKIST. and I think correct conclusion : that wheat is not differ- ent from Indian corn, and other grain, as it regards climatology. I believe that seed wheat is governed by the same laws that control other useful plants. The seasons are so different that the same variety, cultivated bv the same farmer, and where soil and location are as nearly alike as it is practicable to have them, will not ripen at the same period in two, three, or four succeed- ing harvests. Consequently, when seed is brought from the north, and it fails to produce a satisfactory crop, and to ripen as soon as the same variety has been accus- tomed to mature, nothing definite is proved, in regard to the climatology of the wheat plant ; because the field where the wheat was grown, may have been a warm and quick soil, having a southern exposure ; and the crop may have had the advantages of superior culti- vation and a propitious season, and every circumstance favoring a bountiful crop. On the contrary, the seed may be sowed in a soil not so fertile as where it grew, which would make a marked difference in the next crop. Besides this, the soil maybe cold, clammy, and late, the cultivation inferior, the season unpropitious, and every- thing adverse to the production of a bountiful crop early iu the growing season. This is the manner in which all our experiments have been conducted. Consequently, the conclusions are in- correct. Because some farmers have obtained their seed wheat at a few degrees south of their own locality, and by superior cultivation and richer ground and propi- tious seasons have succeeded in raising better crops than southern farmers, it is not safe and in accordance with the laws of vegetable physiology to conclude that we must secure seed wheat from a southern latitude in THE WHEAT CULTURIST. 59 order to have the crop ripen as early as practicable. There are many things that will exert a marked in- fluence on the growth and fructification of wheat, which should not be overlooked when one is conducting an ex- periment to determine any point touching the climatol- ogy of wheat, or of any other plant. J. S. Lippincott, Haddonfield, N. J., writes on this subject : " When importing seed wheat and any other seed of new or superior varieties of plants, attention should always be directed to the peculiarities of the soil and climate under which they originated, and those under which it is proposed to grow them. English varieties of spring wheat that are sown in February or early in March, have the benefit of early spring growth, and of a milder and moister summer than a spring-sown wheat can have in the eastern United States. The fail- ure that has attended recent attempts to introduce English varieties of wheat is no new thing, such hav- ing been the almost universal result for many years past. " If it be true that each variety of grain is adapted to a specific climate in which it grows perfectly, and where it does not degenerate when supplied with pro- per and sufficient nourishment, may not the considera- tion of the origin of each variety we propose to sow be of more importance than has yet been accorded to it in the selection of minor varieties, the product of our own country % The varieties of wheat that have originated apparently by accident (for there are no accidents in nature), or from peculiar culture, do not enjoy all the surroundings necessary for perfect continuous product. Causes yet unexplained are ever at work modifying the 60 THE WHEAT CXTLTUEIST. germ of the new growth, and the guardian care of man is needed to preserve unimpaired or to perfect the al- ready improved sorts. In most soils we are aware that wheat degenerates rapidly if the seed be sown year after year where it was produced. Nor is it sufficient to pre- vent defeneration that the seed be taken from a differ- ent field ; but that grown on a soil of different quality is to be preferred ; and if from a different climate, but not widely diverse, it is found that the product is increased in quality and in quantity. " English-grown seed when sown in Ireland generally comes to maturity ten days or two weeks earlier than the native-grown seed. In general, plants propagated from seed produced on a warm, sanely soil, will grow rapidly in whatever soil the seed is sown ; and plants from seed produced in a stiff, cold soil are late in grow- ing, even in a warmer soil. On limestone soils, which are often heavy, wheat seed, the product of sandstone regions, generally succeeds best. The experience of a Kentucky farmer shows that seed wheat obtained from a northern locality has failed with him, owing to late ripening and consequent injury from rust. The experi- ment was tried with three varieties of northern-grown seed, and with the same result in each case. When wheat from a southern locality was sown by the same experimenter, his crop ripened early, was free from rust and disease, and improved in sample over the original ; while the main crop, in the same district, was ruined by rust and other diseases. This experience was corrobor- ated by the result of four seasons of growth ; and the southern-grown seed, because of its early ripening, is rapidly superseding all the later wheats in the district referred to. The kind of wheat introduced from the THE WHEAT CULTURIST. 61 more southern region of Tennessee, or perhaps northern Alabama, is the ' Early May,' which, though small, pos- sesses superior flouring qualities, and is now the ordi- nary wheat of some northern counties of Kentucky, where it does not deteriorate, but improves in quality. The controversy that was originated by the introduction of the Tennessee ' Early May ' wheat into northern lo- calities appears to have settled into the belief that the selection of southern-grown, early-ripening varieties is judicious where it is necessary that the grain should attain early maturity. " The ' Mediterranean ' is an early-ripening southern wheat, which it is said was introduced in 1819 from Genoa, Italy, by John Gordon, of Wilmington, Dela- ware. It is still an early-ripening and very valuable wheat, adapted to many districts where the more ten- der varieties, subject to the attacks of the Hessian fly, midge, or the rust, have rendered resort to this kind necessary. The introduction of the Mediterranean has proved an invaluable boon to many districts. Many other valuable kinds, noted for early maturity, etc., are of southern origin. The Rochester, or original White Flint, is said to have been of Spanish origin. The Turkish White Flint is not affected by fly, rust, or midge. The China or China Velvet wheat ripens at the same early date as does the ' Mediterranean,' as also does the Malta, or White Smooth Mediterranean. The ' Early Japan ' wheat, from seed brought by Com- modore Perry, is also from a warmer region than our own, and ripens early. So valuable has this variety been deemed by one grower, that he asserts that had Commodore Perry brought many bushels, it would ere this have paid the expenses of the expedition from the G2 THE WHEAT CULTURIST. increased productiveness through early ripening and adaptation to the wants of the country. u All attempts to ripen wheat early by sending farther north for seed have signally failed, says a Kentucky farmer. The experiment of sowing Canada-grown wheat in Pennsylvania resulted in a ripening of the crop two weeks latsr than that grown from native seed. As to the cereals, which, as we have said, possess great flexibility, and are readily subject to the influences of soil and climate, we might naturally expect to find that wheat JTown for a Ions; time in southern Tennessee or northern Alabama, where the mean temperature of March equals, if it does not surpass, that of April in northern Ken- tucky and southern Ohio, would acquire a tendency to early vegetation, which it would retain when removed to more northern localities, and the plant be thus en- abled by early maturity to escape the high heats of early summer, and insect enemies which appear at the period of the late ripening of northern-grown wheats. Though it may be advisable to use southern-grown wheat for seed, the rule, we fear, will not apply if such seed has grown more than two or three degrees farther south. All northern planters who have experimented with southern-grown seed-maize have learned that they can- not ripen the crop if the seed has been brought from a few degrees of lower latitude. This arises from the sudden decline of the temperature of September and Octo- ber, and the early access of killing frosts, which shorten the period of growth to which the large and rank- growing southern kinds of corn have been accustomed, though the summer heats may have been the same as they had known in their native place. In the case of the southern wheats removed to a northern soil, the THE WHEAT CULTURIST. 03 variety is not more rank or strong-growing, does not appear to require a longer season, but lias had im- pressed upon it a proclivity to early vegetation by the influence of the early heats of March and April, which are not known in the north until April and May re- spectively." Difference between Winter Wheat and Spring Wheat. It has been maintained by writers on wheat culture that the distinction between winter and spring wheat is one which arises entirely from the season in which the seed has usually been sown ; and that they can readily be converted into each other by sowing earlier or later, and gradually accelerating or retarding their growths. If a winter variety is caused to germinate slightly, and then checked by exposure to a low tem- perature, or freezing, until it can be sown in spring, some writers have asserted that it may be converted into a spring wheat. It requires a long time to change winter wheat into a spring crop. Still, it can be done, by persevering for half a dozen successive years. The usual way to change a winter wheat to spring variety is, to put in the seed a month later every season, until the period of vernal seed-time is reached. This makes it necessary to sow wheat during the winter months. But the desired object can be accomplished in a much more expeditious way than to sow seed in December, and the product of that crop, the next January, and the next season in February, the next in March, and the next in April. The most expeditious way to change winter wheat to 64 THE WHEAT CULTURIST. spring grain is, to have the ground all ready for the seed in late autumn ; and then, the day before the ground is frozen up solid, sow and harrow in, or drill in the seed. Unless the ground is covered with a deep snow, the grain will seldom germinate until the following spring. (Eead the remarks on another page of this treatise, under the head of Sowing Wheat in Winter.) Should there be a heavy body of snow on the ground for two or three months, the wheat will sometimes veg- etate, and get a fair start, before the growing season commences the next spring. As a general rule, wheat sowed at such a time does not succeed satisfactorily the first, nor the second season. But let the seed be selected with care for a few successive years, and sowed in the early part of the growing season ; and after a few years, if the experiment has been conducted on a soil which is in an excellent state of fertility, a new variety of spring wheat will have been secured. In attempting to produce a new variety of spring wheat from winter grain, seed of a very hardy and prolific variety should be selected, in preference to taking seed of some ordinary varietv. A writer inquired of the Editor of the ' : Germantown Telegraph" : "What is Spring "Wheat ? Is it a distinct species of grain from winter wheat, and if so, where has it come from ? If not, how was it produced from winter wheat ? I have applied in many quarters for answers to these questions without success. A reply will oblige many besides myself." The Editor answered : " Spring wheat is a mere variety of winter wheat. Some of the oldest botanists made them distinct species ; but winter wheat, sown early in spring, has ripened grain the same year; and other changes are produced in a similar way. THE WHEAT CULTURIST. 65 There are many varieties of wheat, of more or less per- manence — produced by a difference of climate, or by successive sowings of selected grains, with some con- tinued peculiarity observed. Even the compound heads of the Egyptian wheat (see Egyptian Wheat) produce single spikes after a while." The author of the Farmer's Dictionary states that : " The distinction between the winter and summer wheats is one which arises entirely from the season in which they have been usually sown; for they can readily be converted into each other by sowing earlier or later, and gradually accelerating or retarding their growth. The difference in color between red and white wheats is owing chiefly to the soil ; white wheats gradually be- come darker, and ultimately red in some stiff, wet soils, and the red wheats lose their color and become first yellow and then white on rich, light, and mellow soils. It is remarkable that the grain sooner changes color than the chaff and straw : hence we have red wheats with white chaff, and white wheats with red chaff, which on the foregoing principle is readily accounted for. The chaff retains the original color when the skin of the grain has already changed to another. We state this on our own experience." J. H. Klippart, in his Wheat Plant, says: "To con- vert winter into spring wheat, nothing more is necessary than that the winter wheat should be allowed to germi- nate slightly in the fall or winter, but kept from vegeta- tion by a low temperature or freezing, until it can be sown in the spring. This is usually done by soaking and sprouting the seed, and freezing it while in this state, and keeping it frozen until the season for spring sowing has arrived. Only two things seem requisite, 06 THE WHEAT CULTURIST. germination and freezing. It is probable that winter wheat sown in the fall, so late as only to germinate in the earth, without coming up, would produce a grain which would be a spring wheat if sown in April instead of September. The experiment of converting winter wheat into spring wheat has met with great success. It re- tains many of its primitive winter-wheat qualities, and is inferior in no respect to the best varieties of spring wheat, and produces at the rate of twenty-eight bushels per acre." The Fastidiousness of Growing Wheat. It has been stated by a certain writer, that " the wheat plant has no greater enemy than another wheat plant." But I cannot coincide with that assertion, as it is not in keeping with the habit of the wheat plant. If the wheat plant disliked the presence of another wheat plant, the original stool would not surely throw out numerous stems by its side, which should be attached to the same system of roots. But it is safe to say that the growing wheat dislikes the close proximity of grass or noxious weeds. And more than this, wheat has a capricious taste for its plant food, quite as much so as human beings, whose taste is so delicate that they can subsist on none but the most delicious and con- centrated nourishment. Wheat must bear undisputed sway where the plants grow, or the stems, leaves, and grain will never be fully developed. Besides this, the growing wheat will not appropriate its nourishment from the rough material, as grass and clover do. Some plants will decompose stones, and hard atoms of the earth, and thus prepare plant food for its own use. But if a lib- THE WHEAT CDLTURIST. 67 eral supply of pabulum lias not been prepared by the vege- tation and decay of other plants, the young wheat plant fails to attain its wonted size, and to yield its accustom- ed amount of grain. Growing wheat must have its ap- propriate and chosen pabulum, or it will be folly to at- tempt to grow this kind of grain. Wheat, like the grape, must and will have mineral food. The wheat plant cannot produce fine grain out of coarse straw and barren clods of earth. Force in the Vegetation of Wheat. The exercise of force in the production of the wheat plant is an idea that is seldom thought of by farmers of common intelligence. There is a vital force exer- cised when the kernel first sends out the germ and the roots ; and this force is constantly exercised, until every plant is fully developed and the seed matured. It is one of the fundamental laws of the universe, that where there is motion there must be the exercise of some force. When masons build a house, a force adequate to the erection of the various parts of the edifice must be exerted in fitting one part to another and bringing everything to its proper place. There is a constant ex- ercise of force against the force of gravitation, until the house is finished. So it is in the growth of a wheat plant : the roots must be formed, and the stem must be produced by the vital force of the growing plant. There is great force exercised by the plant in throwing out numerous roots, sometimes as far downward, or in a horizontal direction, as the plumule, or stem, grows upward. That man who has made holes in the ground with a 68 THE WHEAT CTJLTURI8T. crowbar, understands something of the force required by plants to spread through the hard soil. In many locali- ties a wooden staff can be thrust into the ground three or four feet deep, with a very little force. On the con- trary, in most localities, it is exceedingly difficult to work a crowbar through the soil. What a powerful force must necessarily be exerted, then, by a plant, in pushing its roots through the hard soil. We frequent- ly have ocular demonstration of the force exerted by small plants and trees. It is a common occurrence, where the soil is heavy, to see a crust of earth, that is formed over the growing steins, to be lifted up, so that the young stems appear above the surface of the ground, often throwing off a crust of earth more than ten times heavier than the entire plant would be, were both weigh- ed in a balance. Then, there is the exercise of a con- stant force to keep the plant in an erect position. In many instances, the force of gravity on the growing plant exceeds the vital force exercised in developing the various parts and keeping the stem erect. When this is the case, stems fall to the ground before the grain has come to perfect maturity. We frequently see the effect of the operation of the vital force of a tree, the growing roots of which will lift heavy flag-stones of the side- walk several inches above their level position ; and roots of trees growing near dwelling-houses frequently grow along the foundation wall and among the stones, and damage the foundation of the dwelling to such an extent, that repairs are required. In the production of every plant, from the most deli- cate spear of grass to the towering oaks and rocking pines of the forest, there is a wonderful effort of nature to achieve a given result. The numerous fine rootlet.- THE WHEAT CULTURIST. 69 and the tender blades are met by opposing f rces. If the intelligent husbandman will break up the hard soil, and reduce it to a fine and mellow tilth, a large share of the vital force of the plant that is used up in pushing the roots and steins through the soil, will be employed in developing the stem, leaves, and fruit. The source of the force of the growing wheat plant, for example, is the substance in the kernel. If the kernel be small, of course the vital force must be very limited. For this reason, tender plants cannot nourish luxuriantly, when they first begin to live, if there be numerous lumps in the soil. Roots of tender plants, like wheat, seldom have sufficient force to enter hard lumps of earth. The roots will pass around and between them. But, as hard lumps furnish very little plant food until they are pulverized, wheat plants ex- pend so large a proportion of the vital force in perform- ing what implements of husbandry should do, that but little force is left to develop and mature the grain. Stevens, in the Book of the Farm, states that the force of the vegetation of a single seed is so great as to be able to raise two hundred pounds, as has been proven by the process being made to split hollow balls of iron. Prolificacy of Wheat. The prolificacy of our cereals, and of wheat in par- ticular, is a subject that has been seriously neglected for many years past, even by those who have a reputation for being excellent farmers. Seed wheat should be selected every successive season, with a direct reference to the prolificacy of the variety. In many instances, thirty bushels of grain might just as well be grown on 70 THE WHEAT CULTURIST. one acre as -fifteen, with the same cultivation and the same fertilization. When wheat is in the path of degeneracy, the best soil in the country, the most favor- able season, and the most thorough and intelligent culti- vation, will fail to produce a remunerative crop. Intelligent breeders of swine select their seed animals with an especial reference to the prolificacy of the dam that will raise twelve or fourteen pigs. In some in- stances we see this principle neglected or entirely ignored. And what is the consequence? Why, instead of twelve or fourteen sleek, plump, and thrifty pigs, the sow drops only two or three at a litter. On the same principle, we often see short heads of wheat only half lilled with small kernels of grain, when, if the seed had only been selected with a reference to its prolificacy, the yield would have been twice the amount realized. It is not possible for any one to compute the pecuniary advantage that would accrue to our nation, were all the farmers of the country to make a proper selection of his seed wheat for only a few successive years. There is a broad and inviting field open on this subject, for every ambitious farmer to exercise his skill in improving the productiveness of our wheat-growing fields by produc- ing new varieties of wheat which will yield large heads and plump kernels of choice grain, ^^prolificacy of wheat may be improved to a wonderful extent by proper management ; and if a prolific variety of wheat can be brought out, that will yield only a few bushels more per acre than the ordinary varieties, the advantage in the aggregate would be a consideration of no small magni- tude. Dr. Voelcker, in a recent letter, before the Royal Institution, London, stated that in the County of Norfolk the average produce of wheat was, in 1773, fifteen THE WHEAT CULTURIST. ?1 bushels per acre ; in 1796, twenty-eight bushels per acre ; in 1862, thirty- two to thirty-six bushels per acre — the increase being due to drainage, tillage, and to the growth of improved varieties. On this subject, Hon. Isaac Newton, Commissioner of Agriculture, says : u A new variety of wheat intro- duced into a district has in some instances proved of very great value. It is said that the product of one quart of a variety brought from North Carolina in 1845 had in nine years benefited the farmers of Preble County, Ohio, alone, more than $100,000 by the gain over what would have accrued from the continued use of the old varieties." The prolificacy of a variety can be determined only by experimenting with it, from year to year. The pro- lificacy of grain cannot be determined by the appearance of the kernels, any sooner than one can select a prolific hen, or sow, or a prolific rabbit. Large Wheat Stories. I have observed, for a few years past, that almost every agricultural journal will record now and then a fabulous account of the enormous yields of wheat per acre, which are published in good faith ; but which are, in reality, in numerous instances, unmitigated false- hoods, originated for some selfish purpose. I regret to feel under obligation to record this fact, that I have per- ceived with astonishment that honest and truthful men, whose word is sacred and reliable in all the ordinary transactions between men and neighbors, will sometimes tell stories about their grain which are really untrue. They do not mean to lie ; but the fact is, they think i'l THE WHEAT CULTUKIST. that a large yield of grain will sound well for their culture as skilful farmers, as well as for the productive- ness of their ground. Therefore, they think and guess that there may possibly be so many bushels of grain per acre. By and by they look at their growing crops, and venture to speak of forty, or fifty, or seventy bushels per acre ; and after thinking and talking about the mat- ter for a few weeks, they make the confident assertion that their ground produced so many bushels per acre, when in truth the yield was very much less than the quantity mentioned. I will record a few facts on this subject that came under my own observation, which will go to show that honest and truthful men will sometimes talk at random. I knew a farmer who secured the prize of a county agricultural society for reporting a yield of one hun- dred and eight bushels of shelled Indian corn per acre. The grain was measured thus : A bushel basket was filled with ears as neatly as they could be placed ■ in the basket. Every interstice was filled with a part of an ear. The grain was then shelled off and weighed. Taking this basketful of ears as the basis, in pounds of shelled grain for every bushel of ears that was after- ward thrown into the basket promiscuously, without shelling or weighing, the yield of grain was computed at the amount just stated. The laborer who husked the corn disclosed the manner of measuring and computing the amount of grain. I have known other farmers to state, in the most posi- tive language, that they raised sixty bushels of barley per acre, and sixty bushels of rye, or forty or fifty bush els of wheat per acre, when they had not measured a single bushel of the grain that grew on an acre ; and THE WHEAT CULTURIST. 73 this has been clone, too, when I knew that their fields never produced more than about one-half the reported quantity. I have known farmers, who had gained a great reputation for raising excellent wheat, write to editors of their county papers or to certain agricultural journals that their crop would yield so many bushels of grain — an enormous product — when their neighbors knew that they did not raise a greater number of bush- els per acre than were produced on other farms. I once purchased a quantity of seed rye of a distant neighbor, who published that his rye yielded sixty bush- els of superior grain per acre ; and I learned the next season that, to all appearance, his yield of rye was no larger than my own, which was less than twenty-five bushels per acre. Only a few days ago, I read of a farmer who raised seventy-two bushels of excellent wheat per acre. But I never could credit the statement. Men sometimes count the heads of wheat that grew on one foot square of very fertile ground, weigh the grain, and make an estimate how many bushels will grow on one acre. But the true way is to harvest, thrash, and weigh the grain that actually grew on one acre. It would seem, that if a farmer can raise a given quan- tity of wheat on one foot square, he could produce a yield proportionately large on one acre. But let us have the exact weight of grain that was actually produced on one acre. These airy estimates of a large yield, which are got up for some pecuniary effect, are not the true motive to induce farmers to cultivate their ground in a more thorough manner. I have in mind a farmer, who stated positively and unqualifiedly, that he was raising cabbages on his farm at the rate of 10,890 per acre. He said he had less than 4 74 THE WHEAT CULTURIST. one acre; but what lie did have "was" — nut were — - large enough to fill a half-bushel measure. As he was a man of truth, a person was sent to see his cabbages. He had one cabbage in his garden, and only one ! ! By an arithmetical calculation, it was found that, as there are 272^- square feet in one square rod, if one large head would occupy only four square feet, 10,890 cabbages would stand on one acre. So the man could not be ac- cused of stating an untruth. Farmers who have seed wheat to sell will frequently state that their seed grain weighs so many pounds per bushel, or that so many bushels grew on one acre ; all of which may be true. But measures often vary in size. Scales sometimes weigh too many pounds in a hundred. And, besides all this, if a variety of wheat does weigh 66 lbs. per sealed bushel, on John Smith's farm, his neighbor, near by, or remote, cannot expect to secure an equal yield, unless his soil and cultivation are both fully equal to John Smith's. I make these suggestions that beginners need not ex- pect to grow a heavy crop of grain on inferior land, when they have paid an enormous price for celebrated seed. Hard, Soft, and Polish Wheats. Some botanists have divided wheats into different species, from some marked peculiarity in their formation. Others, considering that they mostly form hybrids when mixed in the sowing, and that their peculiarities vary with the soil and climate, have looked upon all the cul- tivated wheats as mere varieties. There are, however, three principal varieties, so different in appearance that THE WHEAT CULTURIST. 75 they claim peculiar attention. These are the hard or flint wheats, the soft wheats, and the Polish wheats. The hard wheats are the produce of warm climates, such as Italy, Sicily, and Barbary. The soft wheats grow in the northern parts of Europe. The Polish wheats grow in the country from which they derive their name, and are also hard wheats. It is from their external form that they are distinguished from other wheats. The hard wheats have a compact seed nearly transparent, which, when bitten through, breaks short, and shows a very white flour within. The soft wheats have an opaque coat or skin, and which, when first reaped, give way readily to the pressure of the finger and thumb. These wheats require to be well dried and hardened before they can be conveniently ground into flour. The Polish wheat has a chaff which is much longer than the seed, a large, oblong, hard seed, and an ear cylindrical in ap- pearance. It is a delicate spring wheat, and not very productive ; hence it has only been occasionally culti- vated by way of experiment. " The hard wheats contain much more gluten, a tough, viscid substance, which is very nutritious, and which, containing a portion of nitrogen, readily promotes that fermentation, or rising, as it is called, of the dough, which is essential to good, light bread. The soft wheats contain the greatest quantity of starch, which fits them for the vinous fermentation, by its conversion into sugar and alcohol. For brewing or distilling, therefore, the soft wheats are the best." Limit of the Wheat-Producing Region. A great deal has been written in regard to the cli- matic influences on the wheat crop; and I am sorry to 76 THE WHEAT CTTLTURIST. say that, for the most part, theories touching wheat have been promulgated from year to year, by men who never raised a bushel of wheat, and who were utterly ignorant of the fundamental principles of agriculture. On this subject, I herewith copy a few paragraphs from a work written by J. Disturnell, on the Influence of Climate, for the purpose of showing how common it is for writers to reiterate, for well-established facts, cer- tain theories that are palpable absurdities. The writer says : " The limits of the culture of wheat and the common cerealia are not so well defined in the United States, and Canada and other portions of British America, owing to the want of correct meteorological observations in the different parts of this extensive and unexplored region. It is safe, however, to say, that in Canada it extends north as far as the 48th parallel of latitude, from the Bay of Chaleurs to near the mouth of the Saguenay River, and from thence to the Lake St. John, 48 deg. 30 min. north, including the valley of Lake Temiscaming and all the head sources of the Ottawa Biver, extending to Michicopoten Bay, situated on the north shore of Lake Superior, 47 deg. 50 min. N. lat., having a mean summer temperature of 59 deg. Fahr. " To the west of Lake Superior it embraces the valley of the Lake of the Woods, on the 49th parallel, running northward and embracing the whole of the valley of Lake Winnipeg, elevated 700 feet above the ocean ; and the great valley of the Saskatchewan Biver, extending still further northward to the 60th parallel of north latitude, in the valley of Mackenzie's Biver. To the west of the Bocky Mountains, in the northern part of British Columbia, and on the Island of Sitka, 57 deg. THE WHEAT CULTUKIST. 77 north latitude, the culture of wheat and other cecals is prevented, owing to the low summer temperature which exists along the northwest coast of America. " On the south, wheat can be raised profitably in the western portion of Texas and Arkansas, commencing at about the 30th parallel of latitude, excluding the Gulf Coast, where cotton nourishes to great perfection. Thus it appears evident that wheat can be raised to advantage from Texas to the British possessions on Mackenzie's River, running through about one-third of the distance from the Equator to the North Pole, and from the At- lantic to the Pacific Ocean. " The harvesting of wheat through this extensive belt may be said to commence in the latter part of May, and continue until the latter part of August. ' It is said that the ripening of the " staff of life " will move steadily northward about twelve or fifteen miles per day, like a wave, mi til it sweeps up to the northern margin of the great wheat belt. A marching regiment in Texas, start- ing for the north, could barely keep before the ripening wave ; and if they halted a day to rest, it would pass them. This wave stretches east and west across the Union, from the Atlantic to the confines of Kansas, and as it moves north it will grow longer and denser.' Minne- sota, extending northward to the 49th parallel of latitude, is one of the finest wheat-growing regions on the con- tinent. Indian corn also flourishes in the valley of the Ped Piver of the North, which empties into Lake Win- nipeg in about 50 deg. north latitude. " The northern limit of wheat on the American con- tinent may be said to be on the line of the isothermal or mean summer temperature of 58 deg. Fahr., where is found a fertile soil ; while Indian corn requires a mean 78 THE WHEAT CULTURIST. summer temperature of 66 cleg. Fahr. and upward, em- bracing a still larger area of the earth's surface for its growth than that of wheat. " In Europe, on the coast of Norway, and in Finland, wheat is raised as far north as 61 deg., in favored spots ; while the hardier cerealia, rye, oats, and barley, are cul- tivated as high as 68 deg. north latitude. " The growth of grass or hay as an article of commerce is less limited than wheat or the other cereals. It may be said to flourish from the 38th to the 45th parallels of latitude, although its limits in perfection are much less extensive. The belt included within the parallels of 39 to 43 north, within the United States, having a mean annual temperature from 47 deg. to 53 deg. Fahr., is its most favorite region, where are produced the largest quantities, and the best quality of butter and cheese. South of 39 deg. north latitude, except in elevated re- gions, grass is of an inferior quality, and not much cul- tivated. In importance, as regards its value as an article of commerce, it vies with the product of either wheat, Indian corn, or cotton." Absurdities Exposed. I have great respect for historians and literary char- acters, who have forgotten more than I ever expect to know about certain things. But, when they write about wheat, I happen to know wdien they assert facts that can always be relied on, or whether their suggestions are merely assertions which can never be shown to be correct ; and which are not in perfect coincidence with the experience of practical wheat-growers. When I was young, farmers were accustomed to state THE WHEAT CULTURIST. 79 that wheat could not be produced on the slopes of the lakes in Central New York. But now, experiments in raising wheat have shown that the clay loams of those localities yield the finest wheat. If there is any wheat in the country, fair crops, with good management, can always be found there. Rye was the great staple in the line of cereal grain, in New England, so far as farmers were accustomed to raise grain. Consequently, if a farmer provided wheat bread for his family, he bought his flour, at an enor- mous price ; because the impression was that wheat would not grow there. I have in mind large numbers of farmers, who purchase all their wheat flour, simply because they have imbibed the erroneous notion that wheat cannot be grown in Connecticut and other New JEngland States. Wheat will not grow, it is very true, where no seed has been sowed. Neither will apples grow in many of the Western States and Territories, where people affirm that they cannot raise apples. The true reason is, they fail to give apples a chance to grow. They do not plant trees, and give them suitable cultivation. And it is precisely so with wheat. It will not grow where the soil is not cultivated and kept in an excellent state of fertility. I have no confidence at all in the " climat- ology theory," that wheat will grow only in certain localities. As a general rule, where other grain and sheep succeed satisfactorily, fair crops of wheat can be raised, if the soil be enriched with the manure of fattening sheep, neat cattle, or fattening swine. Wheat can be raised on the drifting sands of New Jersey, in boun- tiful crops, if the soil be prepared properly for the seed. 80 the wheat culturist. Introduction of Italian Wheat. In the volume of Transactions of the New York State Agricultural Society for 1841, Jay Hatheway, Oneida County, New York, has recorded facts touching the introduction of this variety of wheat, from which the following extracts are taken : " The Italian spring wheat possesses a property which no other variety of this kind of grain can claim — that of growing well and yielding a fair crop of grain upon land so poor, that no other variety wull succeed satisfactorily. On inferior land, twelve to fifteen bushels of good grain have been grown per acre. On good ground, thirty bushels per acre have been grown ; and on the best wheat land the yield has reached from forty to fifty bushels per acre. The orig- inal seed weighed sixty-three pounds per bushel ; and the first crop was sown in this country in 1S32. " This kind of wheat has a bright lemon-colored straw, which gives the entire crop a beautiful appearance when the wheat is growing. The kernels have a thin skin of a bright brown color ; and from a given quantity of grain, more flour may be obtained than from any other kind of grain grown in this country* The flour makes excellent bread ; and some have stated that flour made of this kind of wheat contains more gluten than other kinds of flour. It is said that in Italy the manufac- turers of macaroni prefer this kind of wheat for making this article of food. "This kind of wheat was first introduced into this country by a gentleman from Florence, in Italy, who, marrying contrary to the wishes of his father, was denounced and disinherited; and smarting under the severity and reproaches of an incensed parent, he re- THE WHEAT CULTURIST. 81 solved to emigrate to America, and to engage in agri- cultural pursuits. He brought with him a tierce of seed Italian wheat to the town of Florence, Oneida County, New York, where it was nsed for seed with excellent satisfaction for a few years ; but in conse- quence of injudicious management in saving seed grain from year to year, this variety failed to yield satisfac- tory crops." Some allowance must be made for an enthusiastic writer of the foregoing account of Italian wheat, as every skilful farmer knows that no variety of wheat that ever had an existence would yield forty or fifty bushels of grain on poor ground. This variety failed entirely in some parts of the country, from no other cause than the one alluded to — negligence in saving the seed from year ^ to year. With injudicious management on the part of farmers in saving seed grain, the best variety of grain that was ever known would soon run out. Improvement of Wheat. A good variety of wheat is capable of being greatly improved, provided the soil is of the right character, and very fertile in wheat-producing elements. When a man sows a small plot of wheat in his garden which has always been abundantly manured, so that the soil is well fattened with such fertilizing material as will make long heads and full and plump kernels, he is utterly sur- prised at the success of his experiment in a limited way. He concludes that his unprecedented success must be attributed to the variety, when almost everything is or was attributable to superior cultivation and fertilization of the soil. A vast deal depends on having a variety, 4* 82 THE WHEAT CULTURIST. the characteristics of which are well established. Yet, if the cultivation be inferior, the cultivator will most assuredly reap the bitter fruits of disappointment in his efforts to produce a large yield of grain. I herewith condense an interesting account of experi- ments made in the Old World by Mr. Hallett, of Brighton. I will point out to young farmers — as well as to old ones — certain points in which this gentle- man as well as all others will fail, as the premises are wrong. Mr. Hallett's first idea was to increase the tiller- ing power of wheat, so that less seed would be needed. That is all well enough, provided the soil is sufficiently rich to furnish an abundant supply of plant food for a large number of stems. If a plant of wheat be induced by any possible means to tiller largely, and the land be. too poor to supply nourishment sufficient to develop such a large number of steins, the heads must be short and kernels of grain small. On this same principle, it will be found to be more profitable to grow only one large ear of Indian corn on a single stalk, where the land is not sufficiently rich to develop two, than to attempt to produce two ears, as they would necessarily be small. Yet, if the soil be so well fattened that there is sufficient pabulum to build up and to develop two large ears on a stalk, let that variety be planted. It will be folly to develop the habit of tillering in any kind of grain, unless the fertility of the soil be improved at the same time. Mr. Hallett proposed to improve the tillering characteristic by early seeding. His next purpose was to increase the length of the ears and the number of kernels of grain in every head. This he proposed to accomplish by careful selection, and THE WHEAT CULTURIST. 83 by what lie has styled " careful breeding." How far he has been successful the result clearly shows. As a starting point, in the fall of 1857 he selected two heads of " nursery wheat," coming as near as pos- sible up to his standard of what a head of wheat should be. The grains of these two heads were kept separate and carefully dibbled in, one grain in a place, nine inches apart. Of one head the best grain produced ten stalks, with heads varying from seventy-nine to fifty-five grains, or a total of 688 grains. The finest ten ears, selected from the product of the other head, contained from seventy to fifty-one grains, and a total of 598 grains. Of the two original ears, one contained 43, and the other 44 grains, showing a gain of from 30 to 36 grains. Next year the best head from the first-mentioned ear was planted as before. From this the best grain pro- duced 21 heads, containing from 91 to 55 grains per head, or in all 1,190. The best random head of the other ear was also planted ; but it was thrown out as beino; evidentlv inferior to the others. From this, Hallett deduces the first proof of the cor- rectness of his idea that careful breeding and cultiva- tion was correct, and not the random selection of good specimens. During the fall of 1859, the best head as above, con- taining 91 grains, and the worst, containing 65 grains, were separately planted. The best grain of the former produced 39 ears, containing 2,145 grains ; but, owing to the extraordinary season of 1861, they were so injured by the wet that the two best ears, containing respectively 74 and 71 grains, were the only ones sufficiently unin- jured to carry on the experiment ; so that the head con- taining 74 grains was selected to carry on the experi- 84 THE WHEAT CULTURIST. ment, not because of the number of its grains — for there was a falling off in this respect from the previous year — but because of the increased tillering power. As before stated, in 1859, the worst grain from the best ear was planted. It yielded 15 ears, containing from 87 to 61 grains, or 1,086 in all. In 1860 the best ear of this sample was taken, and produced 1,909 grains from 24 heads, containing from 123 to 50 grains. This brings our account up to 1860 ; and as the original stock had been injured, Hallett started afresh from the last-men- tioned head, the best grain of which produced 24 ears, the best one of which contained 123 grains. In 1861 the best grain produced 80 heads, the best one of which contained 132 grains. Let us now note Hallett's improvement : In 1857 his shortest head was 4f inches long, contained 44 grains, and gave 10 ears from the best stool. In 1862 his best ear was 9^ inches long, contained 132 grains, and the best grain produced 90 heads or stalks on one stool. One peculiarity in his culture is the small amount of seed used. In his field culture, where the planting is necessarily done by machinery, he uses but four bushels on ten acres. In his large experimental plots he uses seed at the rate of but one bushel on ten acres, and plants by hand in squares of nine inches. He is a strong advocate of early seeding, and puts his field crops in, in September ; 4 bushels on 8 acres, for the first half of the next month, and 4 bushels on 6 acres for the latter half ; 4 bushels on 4 acres for the month after, and 4 bushels on 3 acres for the last month in the year. If used as a spring wheat, he advises that it should be put on at the rate of 4 bushels on 1\ acres. These directions are for drill culture, and is much THE WHEAT CTTLTURIST. 85 heavier seeding than he practises when planting by- hand on his own estate. His experiments clearly show the tillering power of not only his own wheat, but of any wheat, where space is allowed for it to accomplish this important part of its growth. One grain from the best ear of 1S61 was planted by itself on well-prepared ground, so that its tillering powers should be unimpeded by competition. The result was that, after the produce of this single grain was removed, the stubble covered an area five feet in diameter, with 84 ears averaging 7-| inches in length. Great Yield of One Kernel. " In order to show how soon the product of a single grain of wheat may be increased, I make the following extracts from Hallett's pen : ' From one grain planted September, 1859, 1 shall this year, September, 1861, drill forty acres. A whole ear in 1859 would have planted eighty times as much.' " ' I can show you a field of seven acres now up, which was in one grain two years ago, and one acre which was in one ear this day one year ago. In Sep- tember last (1861) I drilled thirty acres with thirty pecks of seed. This is now, September 30th, well up, and the plants as thick as I could wish.' " Inasmuch as Hallett's success in England is very different from a trial in this country, I will give the result of my own trial for three years .past : In 1864, two weeks before the end of the year, I received my seed direct from Hallett's farm at Brighton. It should have arrived sooner, but owing to causes over which 86 THE WHEAT CULTUR1ST. lie had no control, it was delayed. The next day a thaw ensued, and I was enabled to stir np the mud in one corner of my garden to the depth of three inches, when I came to frost. A small portion of the wheat was put in, one grain in a place, six inches square. Of course it made no show until spring, when it came up early ; but not very thickly, though it tillered out so that the number of stalks varied from eleven on the best, to five on the worst stool. It did not all grow, and future experiment demonstrated that about sixty- five per cent, was injured in its passage across the ocean. The remainder was planted in the fall of 1865, just before our regular seeding time ; and one quarter of an acre planted came up in about the above proportion ; that is, about thirty-five grains out of every hundred grew. This was truly a dull prospect, and was made more so from the fact that the midge injured the grain of what did grow. Early in the fall of 1866 we planted some of the best of our own seed as thinly as our drill would put it on — say one bushel to four acres ; and having some of our imported seed left, we put a ])ortion of it in, alongside of that of our own growth, at the same rate, without any allowance for injured grains in either case. At this time the difference is in favor of our own seed, it being quite as thick as our regular wheat on another part of the farm, while that from the im- ported seed makes but little show, nor should we reason- ably expect much from wheat seeded at the rate of six- teen pounds per acre, and but thirty-five per cent, of this to grow. Those who have tried to acclimatize foreign wheat know that it cannot be done in one or two years. Thus far my experience confirms Hallett's idea that by ' breeders ' he has fixed the peculiar type of THE WHEAT CULTURIST. 87 his wheat; for under the unfavorable circumstances of our first trial the best head was 5f- inches long, and in the second one 6 inches long." — Cultivator. I cannot forbear to allude to the disappointment which scores of farmers have experienced after having purchased improved varieties of wheat, at fabulous prices, of those farmers who had made their ground as rich as it could consistently be rendered by rich manure. In this manner, by careful selection and judicious culti- vation, they have accomplished wonders in respect to •large and long heads and plump and a large number of kernels. On the contrary, slack farmers, who never half-cultivate their land, have sowed such choice grain, and produced wonders in the line of small ears and diminutive kernels. Every farmer who has any idea of growing wheat should experiment, in a small way, with the seed in his garden, where the soil is very rich. I can record nothing that will be so effectual ' in accomplishing just what should be done, and what wheat really requires, as a few well-conducted experiments for improving the excel- lence of the seed. 88 the wheat cultukist. The Nomenclature of Wheat. Wheat hybridizes so readily, and varieties lose their identity in so short a period of time, that farmers are in doubt, whenever a given variety of wheat is spoken of, whether they really understand what kind of wheat they are talking or reading about, or not. I have ob- served that wheat, which is raised and said to be of a given variety in one section of the country, is so differ- ent from it in another State, that when compared, side" by side, the grain is quite as different as two distinct varieties. The old " Bald Wheat," which was once — say about the year 1830 — one of the finest varieties of wheat that was ever cultivated, lost its identity in a few years, by being allowed to hybridize with other varie- ties. The same is true of many other varieties. In some sections of the country, varieties of wheat that were originally awnless, have some awns or beards ; and certain varieties which were known as bearded or awned varieties, became partially bald. Under these circum- stances, one feels like a man pursuing his course in an unknown, dubious, and uncertain way. If our Govern- ment possessed sufficient authority and influence to take hold of this subject in a proper manner, and establish a common standard of merit and an intelligible descrip- tion of each variety, and keep every variety entirely dis- tinct from year to year, farmers in different parts of the country would be supplied with some reliable guide in the selection of the various desirable varieties of wheat. Now, why should farmers not have standard varieties of grain at Washington, by which to compare the varie- ties of grain produced on their own farms ? It appears to me that if our Government would establish some THE WHEAT CULTUBIST. 89 standard in relation to wheat, to which the farmers, north, south, east, and west, could look for reliable in- formation, there would not be so much confusion in regard to the varieties of wheat which are worthy of cultivation. For example: Some competent person should be authorized to collect several heads of all the improved and approved varieties, from numerous sections of the coun- try ; and then select a few ears of each variety, and place them in glass cases, where farmers could see them and compare their own grain with the standard samples at headquarters. Besides this, every variety should be neatly illustrated by an accurate engraving of one of the standard ears of grain ; and accompanying each illustration should be an intelligible and plain descrip- tion of every variety. Were I the authority in the United States, I would do the same thing in this treatise. But were I to attempt it, my efforts would only increase the confusion in regard to the varieties of wheat, as my illustrations and descriptions of certain varieties, which might be quite correct in a given locality, would not coincide with grain of those names in other sections of the country. To illustrate still further the extreme difficulty of attempting to do anything correctly, by way of estab- lishing the identity of any variety of grain, the reader must remember that the author of this treatise may give an illustration and description of numerous varie- ties of wheat, which are well known in some States, but which may be very unlike them all in other States. This difference should be settled by some authority which the whole country will respect and receive as correct. 90 THE WHEAT CULTURIST. Names of Varieties. I purposed, when I commenced writing this book, to record the name of every variety of wheat that I could hear of. But, when I met with the long list of names in the Report of the Superintendent of the Experimental Farm, Washington, in the Department of Agriculture, for 1865, I felt so thoroughly disgusted with names, that I at once abandoned the idea of presenting the reader with a list of the numerous varieties of wheat. I will give a few, simply to show what intolerable jaw-breakers some men will employ, when a monosyllable, that any- body could remember without difficulty, and which a child could speak, would be ten thousand times better in every respect. Here they are : Frumento Andriolo Esastico Rosso ; Tauntondean ; Flickling's Hallet's Genealogical ; Schonermark's ; Canadischer and Wiez- acker ! There is another consideration touching the names of the different varieties of wheat which has induced me to omit names, which is this : Wheat bearing the same name, which has been produced on different kinds of soil, will frequently be as unlike as two distinct varie- ties, even when both samples grew in one field, only two or three years previous. The introduction, therefore, of a long list of names of wheat, which has never been tested, and which will never succeed, even if properly cultivated, would seem to be adding confusion and be- wilderment, where the subject might otherwise be moderately clear and intelligible for all practical purpose. The name of every variety of wheat should be signi- ficant of something, if possible ; and always short, so that it may be remembered without difficulty. THE WHEAT CULTURIbT. 91 The Pedigree Wheat. This celebrated variety of wheat, which caused so much surprise among the farmers of America a few years ago, is a winter variety ; and one of the heads is rep resented by the accompanying illustration, as the heads appeared before the variety had been improved by judicious selection of seed from year to year in connection with thorough cultivation on a rich soil adapted to this kind of grain. I have had one of the original heads engraved, for the pur- pose of showing how grain may be im- proved. The heads are not smooth and beautiful, like many of our popular varieties ; and there is nothing remarkable about the variety, any more than there would be in any of the choice varieties of winter wheat that are now raised in various parts of the United States. This Pedigree Wheat was a very prolific variety ; and had the samples which were sown been cultivated on rich wheat soil, this variety would, doubtless, have proved one of the choicest varieties of wheat that was ever cultivated in America. This va- riety was defective in one very important respect, namely, the grain was liable to shell out easily, when the crop was not harvested before the wheat was dead ripe. The grain made excellent flour, and there was a small percentage of bran. Fig. 12. Hallet's Pedigree wheat. 92 THE WHEAT CULTDTJIST. V ^ -J Fig. 13. — Improved Pedi- gree wheat. The head of wheat on this page re- presents the same variety as is shown on the preceding page. But this head is an exact representation of the Ped igree Wheat after the variety was im- proved by judicious management, with the exception that this cut is more than one inch shorter than the original head. The pages of this book are too short to receive an illus- tration of the full length of the im proved ears. This variety of wheat had one rad- ical defect, as a popular variety for cultivation, which is this: the chaff was very open and loose, so much so that the grain would shell readily, at harvest time, unless the crop were gathered before the kernels were fully ripe. Besides this, as the chaff was loose and open, the grain was much more liable to be infested with the wheat midge. Large numbers of American farmers procured small quantities of seed of European wheat-growers, with the expectation that they would be able to raise forty bushels of choice wheat per acre, where they had heretofore grown only ten to twenty bushels. But, in almost every instance, they were wonderfully disappointed, as the heads grew but a trifle longer and larger than our improved varieties. THE WHEAT CULTUKIST. 93 Most persons who received and cultivated this kud of wheat, being grievously disappointed in the growth of ears and yield of grain, denounced the variety as a no- torious humbug. But the grand difficulty rested in their imperfect mode of cultivation. The soil where the originator of this variety cultivated his wheat was ex- ceedingly rich in those elements of fertility which are essential to the growth of large heads and plump kernels of wheat. But the ground where American farmers at- tempted to grow triis European variety was only in a common state of fertility, and by no means rich enough to develop ears of such enormous size. Before heads of giant size can be produced, there must be an abundance of wheat-producing pabulum in the soil available by the growing plants. Then there will be no difficulty in producing a bountiful crop of excellent grain. I have had this Pedigree engraved for several specific reasons, one of which is to induce American farmers, if possible, to make an effort to produce such a variety of wheat as this Improved Pedigree is represented to have been. When an experiment of this kind is ever made, care should be exercised to have every characteristic of a perfect variety of wheat, developed as completely as practicable. (See the Characteristics of a Perfect Wheat, on a preceding page.) Another idea is, do not go to England for wheat. Select the best heads of some improved American vari- ety ; and improve the seed, from year to year. Varie- ties of wheat brought from Europe to this country must first be acclimated ; and more likely than not, after the wheat has been thoroughly acclimatized, there will be defects in it, just as there was in this noted Pedigree Wheat. But if the variety be improved on American 94 THE WHEAT CULTURIST. soil, the crop will not fail, so long as the seed is selected with proper care from harvest to harvest. \n Red Chaff Bald Wheat. the Transactions of the New York State Agricul- tural Society for 1842, Rawson Harmon writes thus about this kind of wheat : " This variety was w T ell adapted to the soil in the Genesee Valley of Western New York. In 1803, Peter ShefTer harvested forty acres of this kind of wheat on the Genesee Flats, that produced sixty and a half bushels of grain per acre. The same season, this variety, sowm on the oak open- ings in this vicinity, was nearly destroyed by the Hessian fly. Its long and well-filled heads, the white and beautiful berries, gave it the preference over other varieties for more than twenty years ; and some farmers in this vicinity [Western New York] con- tinue its cultivation. The bran of the grain is thin ; and it yields flour of supe- rior quality. In 1833 I harvested sixty- seven bushels from one bushel of sowing, which grew on one acre and one-fourth of land." I have copied this paragraph for the purpose of showing what a profitable and excellent variety of grain this " Bald Wheat " was, when the country was com- paratively new ; and before rust, the rtieat. midge, and the fly injured the growing grain. THE WHEAT CULTHRIST. 95 k The White Genesee Wheat. This variety, illustrated by the accompanying figure of a head of wheat, represents what is sometimes called the Canada Flint Wheat, which is an excel- lent variety, possessing all the external char- acteristics of the best varieties of winter wheat. It is hardy, prolific, has a thin bran, yields a large percentage of fine flour, and resists the ravages of the midge much more effectually than many other celebrated va- rieties. When the seed has been saved with care, from year to year, and sowed on a fair wheat soil, which is in an excellent state of fertility, this variety ripens as early as any kind that has been extensively intro- duced. This variety is almost identical with the White Flint described by Klippart, who says that " this [the White Flint] is one of the most valuable kinds in the Northern States. The heads are not long but well filled, with thirty to forty grains ; the kernel is white and flinty, large, and with thin bran. They are firmly attached to the chaff, and do not shell out, except when very ripe. r \ he heads are rather drooping, with but few awns, the straw medium length, and very white and strong. The flour is very superior; the perfect wheat weighs from sixty-three to sixty-seven pounds per bushel." This would be an excellent variety to select a few heads from, for producing an improved variety, as it possesses pro- lificacy, and is nearly midge proof. Fig. 15. White Gene- see. 96 THE WHEAT CULTURTST. The Red Blue-stem Wheat. This is an old and very popular variety of wheat, which originated in Pennsylvania. It is one of the , , a finest and most profitable varieties of red wheat. The growing grain with- stands the ravages of the wheat midge better than many varieties, but not so well as some others. The chaff fits rather close to the kernels, but not so tight as the chaff of some other varieties. The Red Blue-stem Wheat is one of the most prolific varieties that has ever been cul- tivated ; and the young plants endure the cold of winter with less injury than many other kinds of wheat. J. H. Klippart says, in the Transactions of the Ohio Board of Agriculture, that this variety makes as good a quality of flour as does any red wheat ; the grain ripens three to six days later than the Mediterranean wheat ; but no variety repays good cul- tivation so well, or yields so little when indifferently cultivated, as does this va- riety. Many of the more recent varie- ties of smooth, red wheats were derived from this old standard variety, which has been cultivated in many counties in Ohio for more than fifty years. The regularity of the rows of grain and the tightness of the chaff to the kernels show this to be a very desirable va- riety to cultivate. With proper selection of seed, and superior cultivation, the yield and quality may be won- derfully improved. Fig. 16. Red blue-stem. THE WHEAT CULTURIST. 97 The Bull Wheat, ok Old White Flint. J. H. Klippart records the following suggestions of this variety. He writes : " This flint, Old White Flint, or Bull Wheat, appears to have had three distinct origins, so far as Ohio is concerned, viz. : in Trumbull and other north-eastern counties it was introduced from New York State some fifteen years ago — there it ripens with the Mediter- ranean ; is not much subject to disease, and is considered a good variety. In Stark, Harrison, etc., it was introduced as much as thirty years ago from Pennsylvania, and is now almost literally ' run out? But in Franklin and other more southern counties it was introduced from Kentucky, ripened about the 25th of July, and was in conse- quence soon abandoned entirely. Ten years ago Samuel Cole introduced it into Darke County, where it is doing well ; at the same time it was introduced into Tus- carawas. This flint is of Spanish origin. The head is of medium length and well filled — straw white, clear and strong at the root, by which it is prevented from lodging ; spikelets very adhesive to the rachis, and kernels very adhesive to the glumes. It succeeds best on loamy soils, and is rather susceptible to injury from frosts and insects. The berry is very hard from its silicious cuticle (hence its name), in consequence of which it is less injured by fall rains, and will stand in the shock a long time with- out sprouting." Fig. 17. Bull wheat. 98 THE WHEAT CULTTJRIST. The Indiana, or Golden Stem Wheat. This variety is a white winter variety ; but does not possess the necessary characteristics of a perfect wheat. One of its defects is, the chaff is too loose, so much so that the wheat midge finds easy access to the kernels ; and the grain shells out readily when the crop is being har- vested. Another defect is, the straw does not usually grow sufficiently stiff to maintain an erect position till the time of perfect maturity. The cuticle of the grain is thin, and the percentage of fine flour is larger than the yield of some other varieties of wheat. The Early May Wheat. This variety was once one of the finest kinds of wheat that could be found in America ; and in some localities it is still cnltivated with excellent satisfaction. But gf as I have not, of late, come in personal contact with the Early May, and as there are so many conflicting opinions about the value of this variety, I feel in doubt as to what I ought to record about it. I have no doubt, however, that with care- ful cultivation, this would prove an ex- cellent acquisition to the best varieties of the wheats now cultivated in this country. Who- ever has this variety, still pure, should make an extra effort to improve it. Fig. 18. Oolden stem. THE WHEAT CULTURIST. 99 The Genesee White-Flint Wheat. The illustration herewith given repre- sents the celebrated variety long known and cultivated as the Genesee White- Flint Wheat, which was a very hardy and prolific variety so long as the seed was kept distinct from other kinds of grain, v But after it had been thrashed with other grain and allowed to hybridize with impure \^ varieties, the White Flint character disap- ^R-' peared. The original grain was of a supe- rior character, and yielded a large percent- age of flour. But after the introduction of thrashing-machines, the purity of this va- riety became wonderfully adulterated, so that there seemed to be but little resem- blance between the varieties raised in dif- ferent parts of the country which were cultivated for the Genesee White-Flint Wheat. J. H. Klippart says of this variety : " Perhaps the first of this variety intro- duced into Ohio was in Warren County, by Thomas Ireland, in 1842. From there it no doubt spread through the valleys of the Miami ; in many of which it forms the main crop of the white wheats. It is best adapted to high and gravelly lands, and rarely if ever succeeds on a bottom soil. In Franklin County it is regarded as a much surer crop than when first introduced eight years ago." ^ Fig. 19. — Genesee wheat. 100 THE WHEAT CULTTTEIST. The Alabama Variety. This variety is sometimes known better by the White May Wheat. Before this variety had been injured by injudicious culture and defective manage- ment, it was one of the most perfect varieties of white wheat ever cultivated. The ears and fine white grain closely resemble the celebrated White Flint Wheat. In many instances, this variety did not seem to en- dure the cold of winter as well as many other varieties. Before the Alabama Wheat had been mingled with other varieties of seed, with which the growing wheat was allowed to hybridize, a bushel of the grain would yield as large a percentage of superfine flour as any other known variety. But by per- functory management in saving the seed, this valuable grain, in many localities, has lost its identity. The Alabama was nearly midge-proof so long as the purity of the variety was maintained. In some localities, this variety, at the present writing — Novem- ber 1867 — is cultivated with eminent satis- faction. Klippart says " it ripens about the same time the Mediterranean does, but is easily winter-killed, thus betraying its south- ern origin ; yields eighteen to twenty bushels under ordinary circumstances ; it comes highly recom- mended from Morgan County. Its general appearance is very like that of the White Blue-stem, with this dif- ference, viz. : the head, when fully ripe, is a deeper yel- low than the Blue-stem ; the stem just below the head is Fig. 20. Alabama wheat THE WHEAT CULTURIST. 101 a pale greenish-blue. There are from eight to twelve breasts on each side, with four grains in a breast." Black Six-rowed Andriolo Wheat. The ear of wheat here shown represents a mongrel, or hybrid variety of wheat, as may be readily perceived by the rough appearance of the glumes, the irregularity of the rows of kernels, and the destitution of awns at certain parts of the head. This variety has not been introduced sufficiently to warrant a recommendation. I simply give it a place to show the difference between a pure and well-established variety and a mongrel. This Black Six-rowed Andriolo Wheat is the product of a bald and bearded variety, the kernels of one of which were impregnated with the pollen of the other variety. Such va- rieties should always be discarded for seed, as the yield will always be less satisfactory than when good seed of a pure variety is selected and sowed from year to year. Fig. 21.-— Black Andriolo wheat 102 THE WHEAT CULTUEIST. Fro. 22. — Hairy A.ndriolo. Red, Haiey Andeiolo Wheat. I have given a sketch of this wheat, not for the purpose of recommend- ing this variety, but to suggest to farmers not to attempt to grow it be- cause the ears look so large, fair, and beautiful. This variety is a fair wheat, prolific, and pos- sesses most of the charac- teristics of a superior va- riety of wheat. But the large awns and hairs with which the ears are cov- ered are a serious objec- tion to its general intro- duction. The variety came originally from Italy ; but has not been introduced, except to a very limited extent. It is evidently a mongrel, or hybrid ; and before it can be cultivated with satisfactory results, the grain needs to be acclimatized by selecting a few of the best heads and cultivat- ing the grain on rich ground until a perfect American variety is brought out. This variety has prolificacy, for which reason, it would be a first- THE WHEAT CULTURIST. 103 late grain to experiment with, for the purpose of i proving its other characteristics. The Kentucky Ked or Whig Wheat. This is an old variety, known in vari- ous localities by different names, among which are the Early Ripe Carolina, Ken- tucky Red, and the Whig Wheat. This kind of wheat was cultivated in several counties in Ohio, with eminent satisfaction, for a number of years. But, as the crop fell an easy prey to the wheat midge, this variety was discarded. I allude to this wheat for the purpose of teaching young farmers the transcendent importance of selecting those varieties of wheat for cultivation which are as nearly midge-proof as a wheat can be. Many farmers, by continuing to sow this variety, which had previously yielded fair crops, lost hundreds of dollars which they might have received without any more labor, if they had sowed some other variety of wheat. Klippart says, that in Kentucky this vari- ety is known as the " Early Ripe " wheat. The ears are of a great length, usually ; the kernels of a light color ; and sometimes the grain is shrunken. This variety has lost its identity in many localities, for which reason, it fails to yield a satisfactory crop. In some localities, however, the " Early Ripe " is still cultivated with the best of satisfaction ; and few varieties excel it. mi- Fig. 23. Kentucky red. 104 THE WHEAT CULTURIST. Fig. 24. — Four-rowed Andriolo. The Four-rowed Andriolo Wheat. The variety herewith represented is the Four- rowed White Andriolo variety, which was raised to some extent by the Hon. Isaac K ewton, Com- missioner of Agriculture, Washington. This is a beautiful variety, prolific, stands the winters tol- erably well, and ripens early. The long awns, or rough beards, are an ob- jection to it, as they are unpleasant to handle, and make so much chaff, which is a nuisance, when the straw is em- ployed for feeding and littering sheep and horses. This variety has all the external characteristics of a perfect variety of grain ; and were it properly cul- tivated, no doubt this would be one of the best varieties ever raised in America. The kernels of this variety are very uni- form in appearance ; and the variety is prolific. THE AVHEAT CULTURIST. 105 The Diehl Yariety. The illustration on this page is an exact representa- tion of the far-famed Diehl Wheat, which is familiar to almost every wheat-grower in the North- ern and Western States. I know of no other variety of wheat, either spring grain or winter, that has been cultivated with more universal satisfaction than this wheat. It is a winter variety. This variety seems to come up as fully to the requirements of wheat-growers as it is practicable to have wheat. The grain is white and the crop ripens early in the season. It is hardy, prolific, and the plants endure the rigors of our northern winters quite as well as any other known variety. The ears are bald, or awnless, the kernels set very securely to the rachis, the chaff is close to the kernels, so that this variety may be truthfully denominated a "fly -proof" wheat. The grain does not shell out, when the crop is being harvested, as easily as the kernels of some other varieties. The straw is stiff ; and thus far this vari- ety has been exempt from injury by the rust. " Colman's Kural World," published at Chicago, in a recent number, has the fol- lowing remarks touching the Diehl wheat " This is the second year since the introduction of the Diehl wheat into this country. Its yield last year was considered above the average of other kinds of wheat 5* Fig. 25. The Diehl wheat. 10b* THE WHEAT CULTUKIST. sown here, and the consequence was, it was much sought after to seed with last fall, and the whole crop was bought up at $3 per bushel, at that time being from 50 to 75 cents per bushel above the market price of other white wheat. In consequence of the high price asked it went into the hands of many, and has been sown on all the different soils of our country, from light sand to heavy clay. The growth of straw has been good on all, but it promises the best yield on the rich lands, and where sown early. Where sown late, and on the same day with the Treadwell, it was very much injured by the midge, and the Treadwell was uninjured. " We cannot say positively what its merits are when compared with the other white wheats. Many think there is nothing like it, while others are not ready to express their opinions. There has been but little of it thrashed yet. After it has been generally thrashed, it will as- sume its position. " To sum up — with our present knowledge of the Diehl wheat, if we had a good fallow, rich and clean, we would sow the Diehl wheat, and sow early. If the land was of moderate richness and to be sown late, we would sow Treadwell. We think the Diehl requires a dryer soil than the Treadwell. Persons wanting Diehl wheat for seed this year should not pay fancy prices for it, but should willingly pay for good, sound, clean seed sufficient above the market price of wheat to recompense for the labor of making it so." Mr. John Johnston, the veteran farmer of Geneva, N. Y., says in regard to the Diehl wheat : " My Diehl wheat is pretty good. One field may yield about as well as last year's ; the other not. Cause : not manured for many years. The variety has degenerated on the THE WHEAT CULTUEIST. 107 one field, but not on the other ! " Mr. J. adds : " If plenty of manure were applied,there would be less loss from midge. All that is needed to insure good crops is more and better manure. Diehl wheat is excellent for rich land, but not good for poor. This is not a popu- lar doctrine, but it is true." The head of wheat represented by this illustration was sketched from a head of this variety raised in Colorado, and de- posited in the archives of the Agricultural De- partment at Wash- ington. There is nothing remark- able about this variety, except the uncouth appear- Fig. 26. — Egyptian club wheat. 10S THE WHEAT CULTURIST. ance of the ear. The variety is called the Seven- headed Egyptian Club Wheat. Mr. Klippart states that " this variety is known under the names of Egyptian, Syrian, Smyrna, Many-spiked, Reed, and Wild-goose Wheat. It derives its latter name from a story, which is current in the north, that four or five kernels, from which the American stock has proceeded, were found in the crop of a wild goose, which was shot on the west shore of Lake Champlain. It is called Reed Wheat, from the great strength of its straw, which serves to prevent its being prostrated in the field. It does not yield so much flour or meal as other kinds of wheat; and the flour is scarcely superior to that obtained from the finest barley. We find it described in some authorities as Mummy Wheat, or wheat three thousand years old. The following is a brief popular alleged history of it : It is said that some years ago a gentleman having occasion to unroll an Egyptian mummy, found enclosed with the body a few grains of wheat, which afterward, upon being sown with the modern Egyptian wheat, was found to be entirely dissimilar. The former contained nearly a hundred stalks, ranging in length from nearly five to upward of six feet, the leaves broader than usual, and fully an average as to length. The grain was in two rows or triplets, and on some, twenty triplets on a side, or forty on the ear. The ear contained a few barbs or awns on the upper end, and was open and distant be- tween the grains. It flowered nearly a fortnight before any of the varieties sown at the same period. The modern Egyptian is dwarf, not more than four feet high, closely set and barbed in every part of the ear, and its general resemblance to its ancient progenitor is not greater than that of barley to wheat. Egyptian wheat, THE WHEAT CULTUEIST. 109 found in the tombs of the 18th dynasty — i. e., from b. c. 1822 to b. c. 1476 — lias germinated when sown in Germany, and is frequently found in the tombs of Egypt. It has been grown by P. Poorman, in Stark County, O. " This is an indifferent variety of wheat. The straw grows to the height of about five feet, is thick and pithy ; the leaves are often ten inches long ; the head, or rather panicle, is about four inches long, and nearly two wide and deep, and when ripe is of a reddish brown. The head consists of from five to twelve small heads densely compacted ; the awns or beards are often four inches long, and of a very dark brown or blackish color. The lower part of the grain is inordinately swollen ; it is very starchy, but not hard or flinty." The Weeks Wheat. Perhaps very few other varieties of wheat have been cultivated with more general satisfaction than this variety. (In numerous instances, this wheat has erro- neously been bought and sold and advertised as the " Wicks " wheat.) But as I lived for many years within a few miles of the originator of this variety, at the time of his experiments with it, and am personally acquainted with him, I can correct any false impressions that have been promulgated concerning its identity, with the as- surance that my statements are correct. There has been great confusion among farmers in regard to the identity of the Weeks wheat. In some instances, the heads were bald, while in others they were bearded, similar to the head herewith illustrated. Although the head of wheat from which this engraving was made was said to be the genuine Weeks wheat, still I know, from what Fig. 27. Weeks wheat. THE WHEAT CULTURIST. Ill I have often seen on my own farm and in the wheat fields of many of my neighbors, that the heads of the genuine Weeks wheat are not, as a general rule, so jagged and irregular as this illustration represents the variety to be. The heads of the true Weeks wheat, as I used to raise it, had four regular rows of kernels. In some instances, there were no beards, while other heads were covered with long awns. The originator of this variety communicated the following facts touching this variety of wheat, in response to my inquiries about its origin and other characteristics. He wrote under elate of October 19, 1867, as follows: " In answer to your inquiries, I would say that I found the head from which the Weeks wheat originated, in a crop of Mediterranean wheat. There were a few scat- tering heads of Hutchinson and Souls wheat mixed with the Mediterranean, among which this head grew. The product of the selected head was both bearded and bald wheat, nearly one- third being bald ; and it continued to grow bald heads for three or four years, though such heads were carefully picked out every year. The midge worked in the bald heads very bad, whilst the bearded was almost free from their ravages. I therefore rejected the bald, and grew the bearded. I think the wheat is a cross between the Souls wheat and the Hutchinson. " Respectfully yours, " J. M. Weeks. "King's Ferry, Cayuga Co., X. Y." E. A. King, of King's Ferry, Cayuga Co., N. Y., whose farm lies on the eastern shore of Cayuga Lake, and who has cultivated the Weeks wheat for a few years past, writes thus to the " Cultivator an I Country 112 THE WHEAT CULTURIST. Gentleman " : " For many years the need of an early and productive variety of wheat, and one free from the ' midge ' or i weevil ' has been felt ; and in the Weeks wheat the farmer has such a variety. It is a choice white wheat, making the very best of flour. Millers in Ithaca and Auburn pay from two to four shillings more for it per bushel than for any other kind. They say they get more flour, and of a better quality, than from any other kind. It is from eight to twelve days earlier than any other kind which farmers have here, thus escaping the weevil or midge. It has a good stiff straw, and thereby escapes the Hessian fly. It is very productive — twenty-five bushels not being a high average per acre, and I have known it to yield as high as forty-five bush- els per acre. It is no humbug, as scores of the best farmers here will testify ; and I actually believe that if this variety alone was sown in the United States, the crop would be doubled on the area over the present crop. It need not be sown before the 15th or 20th of September to do its best." Golden-straw Wheat. The straw of this variety is short and stiff, and is consequently not liable to lodge. It does best on rich sandy loams. The grain is not' properly a red wheat ; but of nice amber color, somewhat resembling the old-fashioned flint wheats. In Holmes County, Ohio, it is rather of a yellowish cast. It ripens rather later than the Mediterranean. It yields about twenty bushels per acre ; and improves under ordinary culture, and is but little subject to injury by rust or fly. It is rapidly growing into favor ; and eventually may perhaps sup- plant the Mediterranean. THE WHEAT CULTURIST. 113 The Red Andriolo Wheat, represented by the accompanying en- graving, is similar to the White Andriolo Wheat, shown on an- other page of this book. This is a hardy varie- ty, prolific, moderately early, and possesses most of the character- istics of a superior va- riety of winter wheat. The long, rough awns are an objection to its cultivation, when the straw is to be employed for feeding stock or littering their apart- ments. Domestic ani- mals dislike these harsh, tasteless, and in- nutritious beards, as they are ruinous to fine wool, liable to injure the eyes of animals, and when the chaff is employed for bedding for horses, these ugly, barbed awns are liable to find their way into the sheath of male horses, to their serious in- jury. Awns are of no advan- tage to wheat. Fig. 28.— lied Andriolo. 114 THE WHEAT CULTURIST. The Tappahannock Wheat. This excellent variety of winter wheat has not been introduced to any considerable extent in the United States. Hon. Isaac .Newton, Commissioner of Agri- culture at Washington, experimented with this wheat ; and the same season he died, 1867, he pronounced the Tappahannock the earliest and most promising of all the varieties of winter wheat with which he experi- mented on the government farm. Mr. Newton states that this variety does not seem to be so prolific as some other kinds ; but the grain is of a fine quality, and it makes excellent flour. He thought this variety is much less liable to disease and the ravages of the fly than some other varieties. Farmers in other States besides Virginia, who have raised this kind of wheat, state that, as a general rule, the Tappahannock is ex- tremely hardy and prolific, when the seed has been saved with care, from year to year ; the yield of fine flour is large ; the plants endure the winter extremely well ; and all things considered, the Tappahannock is an excellent variety of wheat, The Mediterranean Wheat. This variety is said to have been introduced from Genoa, in 1819, by J. Gordon, of Wilmington, Dela- ware. It was cultivated for many years with eminent satisfaction, as the wheat midge injured the crop none to speak of. In many instances the straw was not suffi- ciently stiff to maintain an erect position till harvest. As it was more expensive harvesting lodged wheat, and as the yield was diminished by the falling down of the THE WHEAT CULTURIST. straw, and as the price per bushel was often twenty to thirty cents less in market than other wheat, this va- riety was almost discarded in many localities. At present we have the Red Mediterranean and the White, both of which are cultivated with eminent satis- faction, where the seed has not been allowed to mix and to degenerate by injudicious management. Both the white and the red varieties yield bountiful crops ; and resist the midge nearly as well as any other variety. The Mediterranean wheat matured ten to fifteen days before other varieties when first introduced. But, by slack management of the seed, the variety lost its early- maturing character. This wheat is known as a bearded and bald ; and as white and red grain. I have found so many different varieties which pass for the Mediterranean, that it will be utterly useless to attempt to pen such a description of the Mediterranean wheat as will prove of any service or satisfaction to even a small number of the readers of this book. Mr. Klippart, in his " Wheat Plant," speaks very favorably of the Mediterranean wheat ; and my own experience is, that where the seed has not been allowed to degene- rate by slack cultivation, this variety is one of the most profitable kinds that American farmers can cul- tivate. When the Mediterranean Red variety was first intro- duced into the best wheat-growing regions of New York, many farmers refused to employ this variety for seed, simply because the straw was so slender that it would lodge, and frequently be tangled into a complete snarl, before harvest-time, thus diminishing the yield of grain, and greatly augmenting the labor of harvesting the crop. 116 THE WHEAT CTTLTURIST. The Black-Sea Spring Wheat. This excellent variety of spring wheat was once one of the choicest kinds of spring grain that has ever been cultivated in the United States. But slip-shod farm- ing soon brought the Black-Sea wheat into disfavor. Before it had been allowed to hybridize with other va- rieties, it was considered an earlier variety than the others ; and it succeeded comparatively well, if sowed when it would be too late for other kinds to mature. It has been sown as late as the 20th of June in Eastern New York, and produced bright straw and a plump berry. This has been much liked, because it may be sown so late as to escape the wheat midge, and yet nil. As the wheat midge does not rage so much now as for- merly, it is not so extensively cultivated. S. Kieffer, of Jefferson County, !N. Y., writes that the Black Sea wheat is not so valuable to manufac- ture into flour for exportation, because it is not so white and light, or soft to the touch of the finger, but makes good bread, of a rather yellowish color. It never has rusted or blasted with me, and I doubt if it has with anybody else when sown within the month of May. 1 have grown it upon interval land so rich that it lodged and lay flat upon the ground during the time it was filling until it was harvested ; yet it was well filled, and yielded thirty-eight (3S|-) bushels per acre. If this variety could have been kept pure, and the seed improved from year to year, according to the di- rections laid down in this treatise, farmers would have had a variety of wheat that would now be a great na- tional blessing. It is a glaring reproach to American farmers, that they will allow choice varieties of wheat THE WHEAT CULTURIST. 117 to deteriorate and run out, simply by perfunctory man- agement. The Rio Grande. This is a choice variety of spring wheat ; but has not been introduced, except in a few localities. Wherever it has been cultivated for several successive seasons, with care, and the seed kept pure, the crops have given fair satisfaction. The straw is usually rather stiff, so that the growing grain is not prostrated by protracted storms. This variety has been grown quite extensively in some parts of Minnesota, and other Western States. Usually, farmers and millers have spoken well of the Rio Grande. I think that if the seed of this variety could be cultivated with the care alluded to under the head of Seed Wheat, the Rio Grande would be one of the choicest and most profitable varieties of spring wheat that has ever been cultivated in America. This wheat possesses all the characteristics of a perfect vari- ety of cereal grain. But in numerous instances, the crop has been allowed to hybridize with other grain, so that, in some instances, it has lost its identity. China. Tea Wheat. This is a spring wheat. The chaff is white ; the heads are long and well filled with plump kernels, when the soil is moderately fertile. The kernels are large, and rather far apart. It is a bearded variety ; and very prolific. On rich soil, the straw stands erect tolerably well. But some millers have complained of this variety that the bran is thick ; and that the grain does not yield 118 THE WHEAT CULTURIST. so much flour per bushel as the grain of some other varieties. The China Tea has been cultivated, in years past, quite extensively, in many parts of Western New York, with eminent satisfaction. In some of the middle counties of the State, where the seed has been allowed to hybridize, there has been not a little com- plaint about the unsatisfactory results of the China Tea variety. In some other States, this variety has been cultivated to a limited extent ; and I have always found that slack farmers denounced it, while thorough-going: cultivators of the soil speak well of the China Tea. The Fife Spring Wheat. The Fife Wheat and the Canada Club Wheat are said to be the same variety in certain sections of the country. But they are entirely distinct. They were both culti- vated in Central New York, to a limited extent, for sev- ral successive years, when I resided in Tompkins County. The grain appears very much alike; but the straw, when growing, is quite unlike. I once grew both varie- ties on my farm ; and I found that the Club wheat would mature a week earlier than the Fife. The straw of the Fife is short and stiff ; and the variety is moder- ately prolific. The Fife wheat, with me, always resisted the midge satisfactorily; and the grain always made excellent flour. Silver Straw Wheat. This is a variety of winter wheat full of encouraging promises to American farmers ; but which has been cul- tivated only to a limited extent. It possesses all the THE WHEAT CULTURIST. 119 external characteristics of a perfect variety. The rows of grain are very regular ; the heads are large and well filled with plump kernels ; the grain is of a beautiful amber color ; the straw is stiff, and has a fine silver lustre; the growing crop is nearly weevil proof; the straw is seldom affected with rust; the young plants endure the cold of winter, extremely well ; and it is one of the finest varieties of wheat that can be found in New Jersey, where it is grown with eminent profit and satisfaction. Undesceibed Varieties. No doubt hundreds of my readers will wonder why I did not describe certain varieties which have only a local name, having been cultivated only in certain local- ities. I am aware that there are many, probably, excel- lent varieties of both winter and spring wheat, which I have never heard of. I have heard of, and have seen many varieties that I have made no allusion to in this book ; because I have not been able to learn anything really reliable in regard to their characteristics. Where I knew nothing of a certain kind of wheat, and was not able to obtain reliable information touching its excel- lence, I have thought best to pen nothing about it. There are many kinds of wheat in the Western States, of which I failed to secure an intelligible description ; therefore, I have omitted the names. 120 THE WHEAT CULTURIST. CHAPTER II. Soil, and its Preparation for Wheat. " But if your care to wheat alone extend, Let Maia, with her sisters, first descend ; And the hright Gnossian diadem downward bend, Before you trust in earth the future hope ; Or, else expect a listless, lazy crop." Drydex's Virgil. The proper preparation and continued management of the soil from year to year, lies at the very foundation of successful wheat culture. A farmer may sow the best and most prolific varieties the world ever knew, and fail to raise a satisfactory crop of wheat, if the soil is not just as it should be. In preparing the soil for the production of a crop of winter grain — wheat, rye, or winter barley — the aim should always be to keep the vegetable matter and the manurial portions as much on, or near the surface as is practicable. The grand object of preparing the soil in this way, is that the roots of the plants may spread out horizontally, instead of striking in a more vertical direc- tion. When they spread out horizontally, they form a kind of mat in the soil, a few inches deep, which rises and settles down bodily, when the soil freezes and thaws. Therefore the soil may freeze and thaw a great number of times, when the roots are matted together horizontally, without throwing the plants out of the soil. Whereas, when the vegetable matter is mingled with a good depth THE WHEAT CULTURIST. 121 of soil, so that the roots must necessarily strike deep before they can reach the necessary sustenance, they will be lifted out ancl broken by the frost after freezing only a few times. Now, if we could invert only a few inches in depth of the soil— say three or four inches — and then pulver- ize the soil below this thin stratum of surface soil, thus keeping the largest proportion of humus and available fertilizers near the surface of the earth, there is no doubt but that we should see a very remarkable differ- ence in more abundant crops of grain ; and at the same time it would be of a better quality, as its growth would not be stinted by the frosts of winter. To show that this theory of cultivation is philoso- phical and practically correct, I will simply refer to the practice formerly in vogue, of sowing wheat on newly- cleared land, after the surface had been simply har- rowed — or without ploughing any part of the ground. Winter-killing of wheat, when put in thus, was seldom complained of. As there was but little depth to the soil, all the roots spread out horizontally ; and it was almost impossible for the young plants to be injured by the freezing and thawing of the surface of the field. Thousands of acres of the finest quality of wheat were cultivated, when the country was new, on ground that was simply harrowed over, having never been ploughed. The most abundant crops that the best wheat-fields of the country ever have produced, or ever will yield, grew where the timber had just been cut off; and where the logs and brush were burned to ashes, which were harrowed into the thin stratum of leaf mould that formed the seed-bed of the future crop. The land, in numerous instances, was so exceedingly rooty 6 122 THE WHEAT CULTUEIST. and stumpy that it would have been an utter impracti- cability to plough it. And yet, with all the deep ploughing, thorough pulverization, and bountiful ma- nuring, farmers h'ncl it difficult to produce as many bushels of wheat per acre, on the same land, as they were accustomed to grow, without any manure at all, and without any preparation of the land, except a superficial harrowing. It is eminently important that farmers should under- stand that the manner of preparing land for winter wheat, as practised by our ancestors, was compatible with the habit of the wheat plant; and it was also the scientific way of cultivation, with a view of avoiding the injurious influences of freezing and thawing of the soil, on the growing wheat plants. If the hard subsoil beneath the thin stratum of mould could have been broken up with a subsoil plough, without having been turned above the rich seed-bed, the yield of grain would have been much larger than the most bountiful crops that grew where no implement of husbandry was ever before used, except the common harrow. All the aged wheat-growers of our country, who have a correct understanding of the difficulties that are now met with by wheat-growers, will appreciate these suggestions, as they understand perfectly well how easy it was, when they cultivated wheat according to the foregoing plan, to produce a heavy crop. There are other considerations which it is proper to mention, that exerted a favorable influence towards the production of a bountiful crop of grain, among which may be mentioned the protection of the wheat plants in the winter, by the extensive forests that shielded the wheat-fields from the terrible winds that now remove THE WHEAT CITLTURIST. 123 all the snow during the winter months ; and also the liberal amount of excellent fertilizing material in the form of wood ashes. Allusion is made to these things more extensively in another part of this work. The main point to which I desire to direct the attention of wheat-growers is, the most favorable condition of the soil, and other circumstances, in order to produce a satisfactory crop of grain. Necessity required our an- cestors to adopt the mode of cultivation to which allu- sion has been made. They might not have perceived at that time that those circumstances and conditions of seed-bed, and everything else, were more favorable than any other for the production of a bountiful crop of grain. But they see it now. The suggestion may never have occurred to them that it made any difference whether the best soil was kept at the surface or turned half a foot beneath it. But successful wheat-growers have learned that it does make all the difference in the world, whether the best soil is kept at the surface, when a crop of winter grain is to be raised. Read volume second, page 125, of Young Farmer's Manual. Let this be the key-note, then, to successful wheat cul- ture : to keep the best soil, or a thin, mellow stratum of rich soil, at the surface. Then make the subsoil as deep and porous by pulverization as practicable, by the use of the subsoil plough. How Freezing and Thawing of the Soil affects Growing Wheat. Practical farmers understand very well, how freezing and thawing of the surface of the soil affects the wheat plant. Doubtless every observing farmer who reads 124 THE WHEAT CtTLTURIST. these pages, will recollect of having seen the surface of very wet and light ground lifted, so that the ice and a little earth would resemble a honeycomb. Every wheat-grower should have a correct understanding of the effect of freezing and thawing of the soil on the wheat plants, as the injury to the wheat plant arising from the freezing and thawing of the soil, is usually the most serious obstacle that farmers meet with in our wheat-growing regions. By the alternate freezing and thawing of the surface of the soil, the stools of wheat are lifted and separated from their hold upon the soil. The deep roots which penetrate below the reach of shal- low frosts are broken off, and the earth is more or less loosened from the others. Here we perceive the dis- advantage of depositing the seed too deep. The roots originating from the seed, being far below the surface of the ground, when the plant is lifted by the expansion of the soil, the stem will be likely to be separated some- where between the surface of the ground and the roots. The plants then soon die. When the roots strike down- ward, their hold in the soil is loosened, when the frost lifts the soil ; and as the wheat plants do not settle back to their original position when the ground thaws, the roots are soon worked upward, until they are raised almost clear of the soil, as if they had been pulled up by hand. Every practical wheat-grower is familiar with all these disadvantages in raising winter wheat. With spring grain, none of these things occur. When the soil freezes, it is greatly expanded ; and the expansion is all upward, because the unfrozen earth below, will not yield to the frozen stratum ; and there is no vacant space to be filled by the lateral enlargement. For this reason, the surface of the soil is often elevated THE WHEAT CULTUKIST. 125 two, three, or more inches higher than it stands when the ground is not frozen. If the position of shallow-rooted trees, where the ground freezes deeply, be compared with horizontal marks on a building that the frost does not lift, it will often be seen that they stand from one to two inches higher, when the soil is thus frozen, than when free from frost. As the roots of such trees lie nearly in a horizontal position, they rise and settle back with the lifting an^l settling of the soil. Thus it is with sod ground. The roots of the grass form such a tangled mat near the surface of the ground, that the entire layer of turf settles back in a body, keeping the roots in their true position. I have in mind an instance which will illustrate the great expansion of the soil, even when beneath a heavy weight. In the basement of my workshop, there were two sticks of timber resting with their ends on the sills, and the middle of each stick was supported by posts set in the ground, where frost could not reach them. In very cold weather, the entire building would be raised by the freezing of the earth beneath the foundation, so tli at a plank, an inch and a half thick, could be put under the timbers, on the top of the posts. With a perfect understanding of the foregoing sugges- tions, a farmer will be well prepared to do something to prevent in a great degree, or entirely, any injury to the wheat-plant from freezing and thawing of the soil. In order to prevent injury from this source, two things are essential. The first is, thorough drainage, where the soil is at all inclined to be too wet. Dry soils are af- fected but little by freezing. But when a soil is satu- rated with water, it often heaves several inches above its usual height. This process so disturbs the roots of >\ < \ Fig. 29. THE WHEAT CULTURIST. 127 wheat, that they have no more hold on the soil than if just transplanted. Hence, they are apt soon to die. The next consideration ?.s shallow seeding, and cul- tivating the soil so as to keep the mould, or the richest part of the soil, at the surface. I will endeavor to make this point more intelligible by an explanation of the accompanying illustration, which represents a young wheat-plant which has sprung from a kernel of wheat that was planted about six inches deep. The seminal or primary roots that have sprung from the kernel take such a firm hold of the soil, that when the surface is lifted the stem will be severed, as shown, at some point between the two systems of roots. Unless winter wheat is put in very early in autumn, the coronal, or secondary, or upper set of roots will not attain one-half the size herewith represented. I have shown a bulb just below the surface of the ground, much larger than it really grows, for the purpose of illustrat- ing the principle on which the young wheat-plants grow. The upper set of roots seldom appear as large as they are here represented, until the plants have begun to grow luxuriantly the next spring after the seed is put in. We can perceive, at once, how easily the frost would heave out the growing plant, if there were only a few small roots issuing from the bulb, to hold it in the ground. When seed wheat is ploughed in deep, if we examine the plants just before winter, we shall find that there are roots issuing from the kernel, as shown by the illustration, and none — or very few — at the bulb. After a period of freezing and thawing of the wheat field, in some wet place, let the stems be examined, and they will be found severed, as represented by the preceding cut. 128 THE WHEAT CULTUKIST. Now, the great practical question again recurs — to which I have previously alluded — what can the hus- bandman do to avoid injury from freezing and thawing of the soil ? I again repeat the answer which was hinted at under the Habit of the Wheat Plant, p. 49, that the seed must be planted shallow. If that kernel of grain shown in the last illustration, Fig. 29, had been deposited near the lower end of the bulb, all the seminal or primary roots, and all the coronal or second- ary roots would be so close together that they would tend to form a mat of earth, like a sod, which would rise and fall with the expansion and contraction of the surface of the ground when it freezes and thaws. By this means, the injury arising from the heaving of the soil will be avoided, provided the best, the mellowest, and richest soil be kept at the surface of the ground. The foregoing explanation of the management of wheat is applicable to winter grain — to rye as well as to growing wheat. In the culture of spring grain, we have no such difficulties to contend with. Let this sec- tion be read in connection with deep and shallow seed- ing on another page. I am fully satisfied, after thirty years' observation on this subject, that farmers must make themselves familiar with the principles of growth and of cultivation herein laid down, before they will be able to raise winter wheat w T ith satisfactory success. Best Quality of Soil for Wheat. Many farmers have inquired, with much solicitude, why wheat will not grow on any soil that is fertile and mellow ? — or, why a soil will not produce a good crop of wheat that produces fair crops of everything else '( THE WHEAT CULTURIST. 129 But the correct answer is very obvious and brief. If a soil is destitute of wheat-producing material, it cannot produce a bountiful crop of that kind of grain. There are many soils that will produce fair crops of Indian corn, rye, barley, and oats, which will not yield a re- remunerating crop of wheat. And why ? Simply be- cause the roots of the wheat plant cannot find, in that soil, the right kind of material that is necessary to form the kernels. In one soil, the minute roots find an abundance of material, which they may take up, for the formation and perfect development of the kernels ; while in another soil, the roots may send out their nu- merous little hungry mouths into every cubic inch of the soil, in search of material to produce the grain, and not find it. This is the great difficulty with a soil that will not produce wheat. And, until such materials are added to the soil, it may be cultivated and sowed in vain. All farmers — or chemists — who know anything, prac- tically, about raising good wheat, will admit that the best soil for raising good wheat contains a good propor- tion of clay. Wheat requires a firm soil. Therefore, a sandy soil is not a good one for wheat ; neither is a mucky soil much better ; because they are both defi- cient in those elements of fertility that are necessary to form the kernels, and also in that firmness which is so essential in a good soil for wheat. Yet I have seen fair crops of wheat produced on a sandy soil. Our aluminous, heavy, slippery clay soils are by no means the best soils for the production of either winter or spring wheat ; although they will yield good crops of wheat when well drained, and thoroughly pulverized and manured. Our country abounds in soils of a mixed character, which will produce a remunerating crop of 6* 130 THE WHEAT CULTUR*ST. wheat once in five or six years, wliile they cannot be set down as good wheat soils ; and they cannot be very much improved for growing wheat, unless a vast amount of clay were thoroughly mingled with the soil. Heavy, slippery clay soils abound in wheat-producing material. Therefore, such soils will not be exhausted of their fertility as soon as those will where there is but a small proportion of clay, or no clay at all. On some soils, where sand predominates, wheat would not grow heavy enough to pay the expense of harvesting it. And the same is true of soils where allu- vion constitutes the large proportion of the soil. A sandy soil will furnish silica enough to form a good, stiff straw, while a mucky soil will produce a slender and soft straw, which will fall down before the grain has matured. The best soil for wheat is a soil in which the pre- dominating characteristics are clay and loam, having neither too much of one nor too little of the other. The lighter loam soils, and such alluvions as have been brought from clayey localities, will often produce boun- tiful crops of excellent wheat ; and sometimes a mucky soil will yield a fair crop of this kind of grain. But their fertility for wheat will soon be exhausted. Cal- careous clays, gravelly clays, aluminous clays, as well as many soils that are a mixture of all these just named, with good management — cultivating, manuring, and draining — will, almost always, yield fair crops of wheat. K. L. Allen, in the American Farmer's Book, says : " Wheat is partial to a well-prepared clay or a heavy loam ; and this is improved when it contains, either nat- urally or artificially, a large proportion of lime. Many THE WHEAT CULTURIST. 131 light, and all marly and calcareous soils, if in \ roper condition, will give a good yield of wheat." In D. P. Gardner's Farmer's Dictionary, the author says : " Wheat thrives best on heavy soils." The author of the Practical Farmer says : " Wheat succeeds best on stout loams." In Stevens's Book of the Farm — an English work — the writer says : " Unless soil possesses a certain degree of firmness, that is, contains some clay, it is not con sidered adapted to the growth of wheat. At least, it is considered more profitable to sow barley upon it." (Eead about Improving Soils for Wheat, in chapter on Soils, in the second volume of my Young Farmer's Manual.) A practical farmer of Central New York wrote to one of the agricultural papers thus : " A firm, fertile, and dry soil is particularly adapted to wheat, and such soils as have been under-drained are more productive, and require much less manure. Wheat, whether winter or spring, does best in soils in which there is a good por- tion of clay. When the soil is composed for the most part of muck, as occurs in many places in New York, Canada, and some of the Western States, it requires much preparation before it will produce well ; and such soils can only be made to yield heavy crops of wheat, with profit, when clay, in some form, can be supplied." Wheat on Clay Loam. The author penned the following article for the "In- dependent," soon after he assumed the editorial charge of the agricultural department of that paper : Wheat, especially winter grain, requires a firm soil. 132 THE WHEAT CULTURIST. having in it a preponderance of clay. For this reason, our clayey loams are found to be better adapted to winter wheat than any other soil. A strong loam is better for winter wheat than a clay soil, although where clay is so abundant as to give a soil the character of a rich stiff clay, it will produce excellent wheat for a long- succession of years. Still, when clay and sand are com- mingled in the right proportion to form a good loam, there is no other kind of soil that is better adapted to the production of winter wheat, that will make the whitest and best fine flour. A sandy soil is too porous for wheat, especially winter wheat. Spring wheat will succeed much better on sandy soil than winter. Mucky soils are quite objectionable for winter wheat, because they are too light. The freezing in winter expands them much more than compact loams, or clays, especially when they are not well drained. This great expansion disturbs the roots to such an extent that but few plants can survive the great injury from freezing and thawing. Clay gives firmness and solidity to a soil. Sand ren- ders it sufficiently porous to drain off* the superabun- dant moisture, which is the means of the great expansion when the soil freezes ; and at the same time it renders the soil sufficiently porous for the roots to spread readily. Another indispensable characteristic of a good soil for wheat is dryness. ISTo soil, whatever may be its com- ponent parts, or however fertile it may be, can produce a large yield of winter wheat when there is an excess of water in it. What I wish to be understood by an excess of water is, more than the soil will retain by capil- lary attraction, or absorption. If a good clay soil, too wet for wheat, were rendered dry by under-drains three feet deep and not more than ten to twelve feet apart, THE WHEAT CULTURIST. 133 its capacity for absorbing the surplus water would be greatly increased ; and the wheat growing on it would be very little injured by freezing and thawing ; and it would suffer less for want of moisture in a dry time. Another important feature of a good wheat soil is a bountiful supply of nitrogenous matter and silica. When a soil is nearly destitute of these ingredients, the ears of wheat will always be short and light, and the kernels of grain quite small. In fertile loams, there is usually a pretty good supply of both substances. "Where nitrogenous matter exists only in limited abundance, it- may be supplied in good barn-yard manure, made by animals which subsist largely on coarse grain and oil- meal. Such manure will always produce great heads and large, plump kernels of grain. Silica is essential to produce a healthy, bright, and stiff straw. This may be supplied by spreading on a few hundred bushels of sand per acre, after the wheat is put in, and sowing eight to ten bushels of unleachecl ashes per acre, the next spring, or even during a dry time in winter, when ashes would not be washed away by high water. There are thou- sands of acres of inferior wheat soil in our country that might be made to yield remunerating crops of this kind of grain, by following the directions just given. The Culture of Wheat Chemically Considered. At one of the meetings of the New York State Ag- ricultural Society, Hon. D. Lee made the following re- marks touching the culture of wheat, which, I think, will be read with no little interest. He said : " By the aid of a little practical science, good wheat may be grown profitably in any county in the State. 134 TIIE WHEAT CULTUEIST. " The wheat plant has been raised in a great variety of artificial soils, where each ingredient was carefully weighed, both before and after the plant was taken from the earth. By careful analysis, what the soil had lost, and what the plant had gained, was susceptible of dem- onstration. A very large portion of the elements of all cultivated plants comes from the atmosphere. The pre- cise amount will depend alike on the composition of the soil and the nature of the particular plant upon which the experiment was made. " I regard it as a fact of great practical importance, that wood ashes, even leached ashes, so abundant in the southern tier of counties of the State of Kew York, contain all the earthy elements of this invaluable bread- bearing plant. " Our primitive forests have been for centuries draw ing the above earthy constituents of wheat from the soil. And instead of carefully preserving this indispen- sable raw material of good wheaten bread, thousands of bushels of leached ashes have been thrown away ! Being but slowly decomposed by the vital action of plants, ash.' 'ill ' / / I/' I I ' '/ I V '' 'III, I '■, /' f '!i, Hi' 1 i '"luin 1 !! ^L Fig. 41. — Sowing Grain Broadcast. at the east end, travelling on the margin, and casts the grain to the south with his right hand, sowing up to the first mark. The most convenient receptacle to sow from, is a bag THE WHEAT CULTURIST. 301 of ordinary size, hung over the shoulder, as shown in the illustration. Read all about the manipulations of sowing grain in first volume of my Young Farmer's Manual, which may be had of the author. Nutting's Fanning Mill. Fig. 42. — Grain Separator. Every farmer who raises grain should have a fanning mill that will separate the small from the large kernels. Rufus Nutting, Randolph, Vermont, is the inventor of an excellent fanning mill and seed separator, which * is represented by the accompanying illustration. The "Annual Register," when extolling the merits of this mill, states that, at one of the fairs of the State Society, an agent put one of the poorest samples of grain through this mill, returning it to the bag with the large kernels on the top. When the judges saw the grain, they awarded the first prize to the poorest entry of wheat, 302 THE WHEAT CTJLTURIST. not knowing that the large kernels were all on the sur- face. The screens are so constructed that they have almost the smoothness of glass, and are made by press- ing common wire screens, rendering the meshes im- movable and always accurate, increasing their durabil- ity, giving them the character of glazed muslin, and allowing the seed to slide over them, when slightly in- clined from a level. The latter quality gives them their preeminent advantage. The seed never falls directly upon them, but first upon a smooth surface, flat with the screen, in passing over which and to the screen, every oblong grain has assumed a horizontal position. If longer than the meshes, it goes over them ; if shorter, it drops through. Such a mixture, therefore, as spring wheat and oats, often so troublesome to the farmer, is perfectly separated. Even barley and spring wheat are separated, the barley grains being slightly longer, and enough lighter to be driven more by the current of wind. Wheat is cleaned from chess in a complete manner. J. J. Thomas says, " For cleaning grass seed, we have never witnessed anything that would compare with this fan. A mixture of clover and timothy was run through once together ; in one drawer was found entirely pure timothy seed, and in another, clover without a single grain of timothy ; the intermediate drawer had a very small quan- tity of imperfect seeds of clover, a very little timothy, and some other seeds of weeds. " The current of wind is so completely at command, that all degrees of strength, from the imperceptible breeze to the blast that sweeps away heavy grain, may be readily given. This peculiarity, in connection with the screens, enables the operator to separate any seeds whatever, that differ either in shape, size, or weight. THE WHEAT CULTUKIST. 303 " A most important office performed by this machine is the separation of the different-sized seed of the same grain. Pass, for instance, ten bushels of wheat through the screens ; one portion will be found a uni- formly small grain ; another about medium ; a third, large, plump and first rate. The first and third would not be supposed to have grown in the same field. In this way, excellent seed wheat may be obtained from an ordinary crop; and the best bushel in fifty, or the best ten bushels in fifty, may be separated at the option of the farmer." Hakder's Improved Fanning Mill. The illustration herewith given represents an im- proved fanning mill of a superior kind, manufactured by E. & M. Harder, Cobleskill, Schoha- rie County, ISTew York. This mill is adapted to clean- ing all kinds of grain and grass seeds ; and, I be- lieve, gives excellent satisfaction. Every farmer who raises grain should possess an excellent fanning mill, and always clean his seed grain thoroughly. Dibbling ix Wheat. The process of dibbling-in seed wheat consists in sim- ply making a hole in the ground with one finger, or with the end of a pointed stick about as large as a man's Fig. 43. — Fanning Mill. 304: THE WHEAT CTTLTURIST. forefinger. The dibble is put through a hole in a block of wood about three inches square, which furnishes a shoulder to prevent making a hole more than two, or two and a half inches deep. If no shoulder is attached to the dibble, where the soil is mellow, there is danger that the dibble will be thrust into the ground too far. The operator carries his seed in a sack or planting-bag secured to his body, as when planting Indian corn. The soil is first put in excellent tilth, as the dibbling process cannot be conducted satisfactorily, where there are lumps of earth and stones. The surface of the ground is made smooth and even, by raking and rolling. Then a line is stretched across the piece to be dibbled ; and as fast as one hand makes a hole with the dibble, the other drops one kernel into the bottom of the recess ; and each hole is filled with mellow soil. This constitutes the en- tire process of dibbling-in grain. It has been stated in certain agricultural papers, that if seed wheat were dibbled in, the yield would be double the amount of grain that could be raised on the same ground by any other mode of seeding. But there is no reason to believe that one bushel of grain more could be produced by dibbling-in the seed than by putting in with a good drill. The fact that statements have been made by farmers, to show the superiority of dibbling over drilling or broadcast seeding, does not make it so. We want the evidence of numerous well-conducted ex- periments to prove it. If the soil is in an excellent state of fertility, the yield of grain will be as large when put in with Beckwith's drill (page 306), as if drilled in by hand. Indeed, seed is, to all intents and purposes, drilled in, by such a drill, as I have just alluded to. Dibbling can be practised advantageously and eco- THE WHEAT CTJLTURIST. 305 nomically, only where there is an abundance of cheap labor. If a farmer has no drill, and has time to spare, it will pay him to put an acre of land into first-rate con- dition ; and dibble in the seed. When experimenting on a small scale with the production of new varieties, the seed may be dibbled in. As the stools of wheat will tiller sufficiently to occupy the entire ground if the soil be rich, if the kernels be planted seven inches apart in the drills and the same distance in the rows, the yield of grain will be fully as large as if more seed had been planted. In Stephens' " Book of the Farm," an English work, the author has penned a paragraph on dibbling-in grain. But a concluding sentence leads one to infer that he knows nothing practically about this system of seeding ; as he says, "It is asserted by those who have put in wheat by dibbling, that the yield will be ^.ve quarters and a half (forty-four bushels) per acre ; and that one bushel of seed is sufficient for an acre." The " Country Gentleman " contains a brief account of a Michigan farmer, who attempted to dibble in wheat on a large scale, by constructing a roller having ridges and creases, similar to Beckwith's drill (page 306). But the experiment was doubtless too rude to prove anything, either for or against, the system of dibbling. The superintendent of the County Poor-house, hav- ing a large number of men under his supervision, with- out pay, had an acre of land prepared as for a carrot bed, and the seed dibbled in by hand. It was a tedious process. But the yield was no heavier than if the seed had been put in with a drill. The idea that by pressing the soil around the seed, or by pressing the soil before the seed is put in, will pro- 306 THE WHEAT CULTURIST. duce a larger yield of grain, than if the seed were put into the mellow ground without any such compressing of the seed-bed, is all moonshine, and unphilosophical. Beckwith's Roller Drill. The accompanying representation of a drill will furnish Fig. 44.— Beckwith's Roller Drill. a fair idea of the style of implement made by P. D. Beck- with, Dowagiac, Michigan. This drill consists of a series of cast-iron rollers or wheel, one of which is shown in the engraving, all placed on a wrought-iron shaft, or axle, which will roll on the ground, each one independ- ent of the other, and which support the entire frame and all the machinery of the drill. These rollers are twenty-eight inches in diameter, and have a Y-shaped periphery, which, by the aid of the weight of the drill, form small furrows in the soil to receive the seed. The rollers are also made with sufficient hub to keep tbem the proper distance apart, seven and a half inches THE WHEAT CULTURIST. 307 from centre to centre ; and each one is loose on the axle and has an independent movement from each other, ex- cept the centre roller and one at the end, which are both made fast on and rovolve with the axle. This end roller drives the distributing apparatus ; and by the aid of the centre wheel, will make a uniform motion for distribut- ing the seed regularly upon the most uneven ground. The frame of the drill is made of two cast-iron slide- pieces, with rounded corners in front, so as to ward off stumps and other obstructions, when passing them, and still be able to drive the machine very close to the same so as to sow all the ground that can he ploughed in new fields or among corn shocks, as many of our Western farmers sow wheat after corn, the same fall, before the corn is removed from the field. The box or hopper for holding coarse grain is placed behind the rollers, and is made in the usual form, and has two iron plates or jaws at the bottom, one made fast and the other movable. There is a wooden rod placed under these plates, with wire pins projecting up between and about one-half an inch above the plates into the seed. This rod is made to vibrate by suitable lever connections, a cam on the end, with roller. The wire pins running between the plates of the hopper upward into the seed will agitate and cause it to run out be- tween the opening, which can be regulated to sow the desired quantity. The seed from the distributor is con ducted down through iron pipes into the farrows made by the rollers. There are inverted iron hoes, or cov- erers, attached to the frame and drag behind the rollers and conducting pipes, to cover the seed. These cov erers can be raised from the ground, when turning around, by means of a crank attached to the journal. 308 THE WHEAT CULTIIRIST. The grass-seed hopper is placed forward of the rollers and deposits the seed broadcast. The distributor is a slide of thin flat iron, placed in the bottom of the hop- per, with suitable holes in it to correspond with the openings in the bottom of the hopper to regulate the quantity sowed. The seed is agitated and made to pass through these openings by a serrated rod made to vi- brate in the bottom of the hopper on the thin iron slide by being attached to the levers on the cam of the end roller. These rollers all being on the one axle, will level the ground similar to a field-roller, and leave the surface in good condition for the reaper and mower ; and the roll- ers being loose on the shaft or axle, may be turned around easily by the team. Where the soil is light, and mellow, the grass-seed distributor may be forward of the grain drill, as it is better to cover grass seed with one inch or more of earth on very light soils. But as a general rule, especially where the soil is heavy, I think that the grass-seed dis- tributor should be placed behind the rollers, as there is danger of covering grass seed too deep. Grass seed of all kinds requires but little covering. My long expe- rience assures me that a larger proportion of grass seed and clover seed will grow when sowed after the last implement has been drawn over the surface than when the seed is harrowed, rolled, or brushed in. There is great danger of covering grass seed too deep. The first shower of rain that falls on the field after the seed has been sown, will cover almost every seed as deep as is requisite to insure germination and luxuriant vegetation. Another improvement in this excellent drill, besides placing the grass-seed distributor behind the rollers, is THE WHEAT CULTURIST. 309 forming the Y-shaped ridge on the surface of a broad thin rim, say five inches wide. This style of rollers would leave the surface of the ground more even, as all the clods would be crushed when they are more than one inch in diameter. If the periphery of the rollers were of this form, the channels made by the Y-shaped ridges would all be of a uniform depth ; whereas, when con- structed of the present form, were the soil very mellow and light, the channels would be made too deep. As this roller drill deposits the kernels of grain about one and a half or two inches deep, the roots of the growing plants spread out nearly in a horizontal direction, more in a mass, and thus withstand more effectually the influ- ences of freezing and thawing of the soil, and the con- sequent upheaving of the plants in the winter. I think that all practical wheat-growers, who under- stand the habit of the wheat plant, and who appreciate *the importance of having the seed put into the soil at a uniform depth, will agree that this drill operates on principles strictly scientific, and in perfect harmony with the habit of the growth of the wheat plant. "Where there are stones and roots in the soil, to prevent the operation of this drill, a tube drill is preferable. Practical Advantages of Dkilling-in Wheat. There is great advantage in having seed wheat cov- ered deep and uniformly in dry weather, in order to insure more perfect germination. When wheat is sowed broadcast and harrowed in, in dry weather, much of the seed will never vegetate ; but the kernels will absorb a little moisture during the night, which will all be dried out during the daytime. By this alternate wetting and THE WHEAT CULTCRIST. drying of the grain the germs will be destroyed in a few days. If the kernels be buried just deep enough to in- sure germination, but not having sufficient depth of earth to prevent being dried up by the burning sun, the young plants wither and die for want of depth of earth. John Johnston, of Geneva, New York, writes : " I noticed last year, on an adjoining farm, where the wheat was drilled in, that it came up much better than mine, where the seed was sown broadcast. In fact, the wheat came up right. I could not account for the dif- ference, at the time, between the appearance of my grain and this in my neighbor's field, as my land is in as good state of cultivation as his; and the seed was put in on both farms at the same time. His field pro- duced a good crop of grain, far above the average crop of this county for several years past. It did not occur to me, till this season, that the great difference between the two crops, was owing to his wheat being drilled in while mine was sowed broadcast and harrowed in. Last season, we both sowed our winter wheat in the former part of September. My ground had been summer fal- lowed, and I never saw a field in better condition for receiving seed. A dry time ensued at the period of sowing the seed. His drilled wheat came up evenly, and grew luxuriantly ; while mine was exceeding thin on the ground. On examining, I found that none of my grain had vegetated, except those kernels that were buried deepest in the soil. It occurred to me then that if I had drilled in my wheat, my fields would have pro- duced five or six hundred bushels of grain more than they did yield. I will drill in my wheat hereafter. Old as I am, I still live and leam. I expect my wheat will yield this season only about twelve bushels per acre. THE WHEAT CULTUEIST. 311 With the exception of the crops raised in 1828 and 1831, my wheat was the poorest this past season that I have ever raised. The failure was mainly owing to the severe drought in autumn, at seed time. Every wheat-grower knows that it is impossible to obtain a remunerating crop of wheat, when the seed sown in autumn does not come up till after the growing season has commenced the next spring." The Philosophy of Dkilling-in Grain - . By reviewing what is recorded under the heading of The Habit of the Wheat Plant, page 49, and also page 126, the reader will understand the eminent import- ance of depositing every kernel of wheat at a uniform depth. This is aimed at when wheat is put in with an ordi- nary drill; and, for the most part, the end sought is secured, if the soil be of a uniform quality and condi- tion, so that the teeth will run at a given depth. But when the soil is mellow in some places, and hard in others, some drills will deposit the seed in the mellow places too deep, so that putting in with a drill will have no advantage over sowing broadcast, so far as obviating the injurious effects of freezing and thawing are con- cerned. The teeth of grain drills should be set to run not more than two inches in depth. One and a half inches deep for winter grain is better than two, for rea- sons already assigned, except where the soil is light and dry, in which instance the seed should be deposited not less than two inches in depth. Then, nearly all the roots will be so near each other, that the expansion of the soil will neither break the stem nor seriously dam- 312 THE WHEAT OTJLTTJRIST. Fig. 45.— Wheat Drilled In. age the roots; nor will it cause perceptible diminution of the crop. The accompanying illustration will furnish a practi- cal illustration of the mode and advantages of putting in wheat with a drill. It will be per- ceived that the ears of grain are of a uniform size, and all the straws are of a uniform height. The fig- ure shows some of advantages of drill- ing-in the seed, just as those points are seen in a field of growing wheat. The drilled grain, figure 45, being deposited at a sufficient and uniform depth to receive the moisture and the nourishment of the soil, comes up more uniformly at one time, is better fed and nourished, stands a drought much better, grows more vigorously, ripens earlier and more uniformly, is not so liable to rust, and the heads are larger and better filled. When seed grain is drilled in, one man will complete the operation, by simply going over the ground once. If sowed broadcast, the ground must be harrowed twice after the seed is sowed. This, in addition to the time consumed in sowing the seed by hand, will require about three times longer than is necessary to drill it in. More- over, the drill, if properly made and adjusted, will de- posit every kernel at a uniform depth ; whereas, the harrow covers some of the seed too deep, some not deep THE WHEAT CULTTJRIST. 313 enough, and some not at all ; and if the soil be deep and mellow, the feet of teams will press a considerable por- tion of it quite too deep. Another advantage in drilling-in the seed is, as soon as an acre or two is ploughed, the grain may be put in immediately, thus finishing the work as fast as the ground is ploughed. When grain is sowed broadcast, it is much more convenient, and rather important, to have the entire field ploughed before sowing, so as to be able to harrow both ways. When a farmer has a drill, he can plough an acre, then harrow it, and drill in the seed all in one day, while the soil is fresh, which is the best condition to hasten the germination of the grain. He thus finishes his work as he progresses, and is always ready for temporary interruptions by storms of rain, which are often attended with more or less injury to the crop. Such delays, especially with spring grain, are often fatal to a good crop. The Disadvantages of Sowing Wheat Broadcast. The illustration given on the next page is a fair repre- sentation of growing wheat where the seed was scattered broadcast and harrowed in. When wheat is sowed broadcast and harrowed, a portion of the seed is left un- covered, exposed to the drying winds and scorching sun, to the fowls and birds ; and that which is covered, is at very unequal depths, some very deep, some medium depth, and some so near the surface that in case of drought, it fails to mature for lack of moisture. Winter wheat sowed broadcast is much more liable to be raised by the frost, and be thrown out upon the sur- face, there exposed to perish, for the reasons already as- 14 314 THE WHEAT CULTURIST. Fig. 46. — Grain Sowed Broadcast. signed, namely, that a portion of the seed is barely covered with earth ; while much of it will be buried four to six inches deep, by the feet of teams, where the soil is mellow. If the kernels are not all buried at a uniform depth, the stalks will not grow of an equal height and size. If a farmer will examine grow- ing wheat, after the heads are formed, he will see some large and well-developed heads, and some short stems and light, half-matured ears. Of course, there will be a difference in the periods of perfect maturity ; whereas, if the kernels are all alike as to size, and all covered at a given depth, the germs will start alike ; the stems will grow uniform- ly ; and the grain will ripen all at one time, so that no loss will be sustained in consequence of the late matur- ity of a portion of the ears. Brown's Celebrated Grain Drill. The illustration herewith given represents a trans- verse section of the distributing apparatus of a grain drill invented by H. L. & C. P. Brown, Shortsville, New York, which is one of the best tube drills that I have ever met with, as its action is very reliable and uniform. This drill will distribute all kinds of grain with admirable precision. In the box, the stirrer is rep- resented, which consists of an iron rod with wooden THE WHEAT CULTURIST. 315 Fig. 47.— Grain Distributor. pins driven through it, so that the ends of the pins stir the grain near the issue of each distributor, to prevent clogging. Ker- nels of grain are repre- sented as passing through the run, or passage from the hopper to the issue where the grain drops into the tubes, and is con- ducted to the bottom of the furrow opened by each drill, before any of the soil falls back over the seed. The teeth on the periphery of the wheel which revolves within the case, sweep out a uniform quantity of grain at every revolution. When the team starts the drill, the drill be- gins to scatter the seed. Figure 48 represents the opposite side of the same distributor, for distributing peas and beans. Either side, or run, can be shut off at pleasure. Or every other distri- butor can be adjusted to scatter seed, if it is FlG - 48 -~ For Driiiing-in Peas, desirable. The quantity of seed per acre is regulated 316 THE WHEAT CULTURIST. by gear wheel of different sizes. Large numbers of this style of drills have been manufactured by the firm al- luded to; and the same drill is made by the follow- ing manufacturers: Brown, Adams & Co., Shortsville, K Y. ; Whiteside, Barnett & Co., Brockport, IS". Y. ; Titus & Bostwick, Ithaca, N. Y. ; and Wiard & Waldo, Oakfield, 1ST. Y. I give the names of these firms for the benefit of farmers who want good drills. The Buckeye Grain Drill. For the convenience of farmers in different sections of the country, I have concluded to mention the Buck- eye Grain Drill, which is represented by the accompanying illus- tration, Fig. 49. This is a tube drill closely resembling the Brown drill described on pre- vious pages. I can recommend it with all confidence, as large numbers of them have been sold to grain-produc- ing farmers ; and I have never heard an adverse report, that this drill did not sustain its high reputation. This drill is manufactured extensively by manufacturers in Springfield, Ohio, and by B. W. Cowan, Fleming, Ca- yuga County, New York. Cross-drilling Seed Wheat. Some farmers have been accustomed to drill in their seed wheat as oats and barley are sometimes put in — ■ Fig. 49. THE WHEAT CULTURIST. 317 by drilling-in half the desired amount per acre, by driv- ing the drill in one direction, and the remainder by run- ning the drill at a right angle to the first direction. Some of our wheat-growers repose so much confidence in this manner of drilling-in seed wheat, that they be- lieve it increases the amount of the crop from twenty to twenty-five per cent. But, if any one will take the trouble to decide this controverted point by a few well- conducted experiments, he will satisfy himself that there is really nothing gained, but a loss sustained, by putting in winter wheat in that manner. The chief objection to cross-drilling of winter wheat is, that the feet of the teams — especially when the soil is mellow and deep — will force much of the seed two or three inches deeper than it was deposited by the drill. Planting a portion of the grain two or more inches deeper than the seed should be covered, and deeper than the larger proportion of the grain is cov- ered, will be found to be decidedly objectionable for winter grain of any kind. Indeed, such an uneven manner of covering the seed will be found more objec- tionable for any kind of winter grain, than for spring grain. Another objection to cross-drilling winter wheat is, much of the seed that was drilled in the first time will be displaced by the drill- tubes and left partly un- covered. And some farmers contend that the second drilling destroys the little ridges made by the tubes. But this theory amounts to nothing in a practical point of view. Its abettors contend that the ridges made by the drill-tubes are washed down to a level by the snows and rains of winter, thus tending to the accumulation of more soil over the roots of the wheat plants that have been lifted out by the frost. 318 the wheat culttjrist. Fatal Experesient with Seed Wheat. Farmers should remember that the germs of wheat are organs of exceedingly delicate structure. They are really things of life — little things, and of course, they have but a small amount of vitality. For this reason, it is exceedingly hazardous to tamper with the grain. Let it be always kept distinctly in mind, that it does not take much to destroy the germs of the grain. Young farmers — and sometimes old ones who ought to know better — have a great desire to try an experiment with their seed grain. J. L. Rice, a farmer of Jefferson Coun- ty, Isew York, communicated the following suggestions, which will save many a young farmer from falling into a similar experiment. He writes thus to the " Cultiva- tor and Country Gentleman " : " It is quite common nowadays to try experiments. Some give ' quite satisfactory ' results ; with others there is nothing perceptible, either good or bad ; while a third class often prove very disastrous. The one I am about to give, is of the latter class, and I give it, not because I like to say much about having done a very foolish thing, neither would I recommend it to others — but as a warning to those inclined to try experiments ; and, where there is an even chance for a failure, to do it cau- tiously and on a small scale. " In the fall of 1857, 1 had a piece of ground of about four acres, upon which I thought I would risk a crop of wheat. The land was in fine order, it having been well manured previous to the crop of barley, just taken from it — and to make it still better, it had another good dressing after it was ploughed for the wheat. I could see no reason, if the winter was favorable, why I should THE WHEAT CUETURIST. 319 not have a good crop. But about this time I was seized with an intolerable itching to try an experiment. I wanted to do something that would destroy the weevil — keep the wire-worms at a proper distance — prevent smut, and at the same time make the wheat grow, like Jonah's gourd. Now, what would accomplish all this? Be patient, gentlemen, and I will tell you what I did, and what was the result. " My cow stable is so constructed, that the urine runs back into a gutter by itself, and can be very easily taken up, free from manure. I concluded to give my seed a good wetting with this urine, and dry it off with lime, and then sow it. I did so. It lay about six hours wet, before the lime was applied, and then it was immediate- ly sowed and nicely dragged in. After waiting a suit- able time for it to come up, I went to see how it looked, with the bump of expectation considerably enlarged. But I was a little too soon — it had not made its appear- ance — it would come in a few days ; of course it would. Who ever knew a field of wheat sown, and not come up % Another week, and I went to take a look — but no wheat ! The result was, it never did corns up. I do not believe, that if all that ever made its appearance above ground, had been left to mature, there would have been as much as a man would take upon a wheelbar- row. It was a total failure. This was wholly owing to the experiment, for the seed was first rate. I sold some to a neighbor, and it grew finely. Now, the ap- plication made, like a great many things recommended, was not adapted to the end desired. True, it destroyed the weevil — kept the wire-worms at bay, perhaps. As to the smut, cannot say what the result would have been ; but it killed the germ of the wheat. 320 THE WHEAT CULTUKIST. "'Bought wit' is better than none; and I am not sure but that it is the best / for one is apt to reme?nber what he gets in this way. But it should not cost too much. Mine, in this instance, cost me about twenty- five dollars, as seed at that time was worth two dollars a bushel ; besides not a little vexation and disappoint- ment. I would just say, that I have been rather shy of that puddle behind my cows, ever since its use as above mentioned. Although a very excellent fertilizer, and should by all means be saved, it is better to mix it with straw, and other absorbents, and apply it to the land, and not, in its full strength and raw state, to seed wheat or any other kind of seed. So I think." Brinixg Seed Wheat. "Some steep their seed, and some in caldrons boil, With vigorous nitre and with lees of oil, O'er gentle fires, th' exub'rant juice to drain, And swell the flattVing husks with fruitful grain." Deyden's Virgil. Some wheat-growers contend that brining the seed is of no practical utility. But the large majority of good farmers concur in the belief, that washing the seed in brine as strong as it can be made, will prevent smut. It will also enable the farmer to skim out light wheat, chess, and almost anything else that may be in the seed, the strong brine bringing it to the surface much better than mere water. The wheat should, while in the brine, be stirred as long as any foul seed or light wheat rises ; one bushel at once in a barrel is sufficient, with plenty of brine; then dip brine and wheat into a basket. When drained a few minutes, empty on a clean floor ; take the same brine for another batch, and so on, until THE WHEAT CULTURIST. 321 you have as much as you wish to sow that day. Then sift on good slacked lime gradually, while another per- son follows around the heap or stirs it with a shovel, or with a rake. Put on lime until the wheat will not stick together. Then let it be sown and immediately covered. The lime will then continue to stick to the wheat, and furnish fertilizing material to promote the growth of the young wheat plants. A wheat-grower in Western New York has com- municated his manner of preparing seed wheat as fol- lows : " Before sowing, prepare a strong brine. Half a barrel will be needed to pickle as little as four or five bushels of grain, but, of course, would answer for much more, and to this quantity add half a pound of blue vitriol {sulphate of copper). A portion is done at a time, stirring it well, and skimming off all that floats, dirt, foul stuff, smutty grains, etc. As fast as each por- tion is soaked, throw it out into a basket to drain. The pickling should be done four to twelve hours before sowing. Just previous to sowing, the grain should be spread out upon a clean floor and rolled in lime slacked to a dry powder, stirring the heap with rakes." The Star Drill. The implement represented by the illustration shown on the next page, is the combined " Star Drill " and Cul- tivator, a part of which is represented on page 296 of this book. Here the land-roller and the seed-sowing attachment are shown, in connection with the small ploughs. When this implement is employed for putting in grain, the seed is taken from the seed-box by means of 14* 322 THE WHEAT CULTURIST. a revolving distributor and dropped immediately behind the plough in the furrow, and covered by the next plough ; and so on after each plough, leaving the grain in the last furrow uncovered until the next round. The JD.EHLCRS ESC SA LT0 Fig. 50.— The Star Drill. revolving distributor has openings at a given distance from each other, to keep up a continuous stream of grain. The quantity is increased or diminished by the depth of the opening. Resting upon this seed-roller is an elastic substance arranged to distribute the grain in the desired quantity. This is a comparatively new farm implement. But I think, if it is properly made, the machine will operate satisfactorily. Further infor- mation may be obtained of the manufacturers, Ewell & Co., Baltimore, Maryland. THE WHEAT CULTURIST. 323 Cast Cast-steel Ploughs. The figure herewith given represents a plough that has become exceedingly popular, and is gaining favor every year. The entire mouldboard, land-side, and share, are made of cast cast-steel. The metal is run in a mould somewhat as ploughs of cast-iron are made. Fig. 51.— Steel Ploughs. This style of ploughs is a perfect paragon of neatness and practical utility. Everybody likes them, when they are made right, with a hard temper. They are manu- factured by Collins & Co., 212 Water street, New York city. No other plough will excel this implement for working in the light prairie soils of the West. When tempered hard, they never clog ; but when the steel is soft as iron, so that it can be cut with the point of a jack-knife, fine soil will adhere to the surface and give as much trouble as is frequently experienced with cast- iron ploughs. 324 THE WHEAT CTTLTURIST. This plough has been before the public sufficiently long to establish the point that steel ploughs, when the parts are hardened properly, are far superior to iron ploughs, as they will draw much easier and last longer. Nishwetz's Disk Harrow.* The accompanying illustration represents a new style of pulverizer, invented by F. Nishwitz, 142 First street, Williamsburg, Long Island, New York. The principle of construction is quite new ; but, by those who have used it, the operation is said to be eminently effective. The wooden frame consists of two pieces of hard, tough timber, about two inches in thickness, by seven or eight inches wide, held in position by the cross-bar, which is firmly bolted to the side pieces, as represented by the illustration. The pulverizers consist of several sharp-edged circu- lar disks, about one foot in diameter, being concave on one side and convex on the other. When the wheels or disks are cast, a round steel pin, about three-fourths of an inch in diameter, is inserted in the mould, thus fur- nishing a steel journal for each disk. A bolt with a nut at the upper end is passed through a socket-standard, which holds the disks in their position. * Was awarded a special gold medal, at trial of plows, harrows, cultivators, etc., at Utica, 1867, by N. Y. State Agricultural Soc. THE WHEAT CULTIJEIST. 325 CHAPTER IV. Wheat Harvest. " How the harvest spreads the field ! Waving grain to reapers yield ! Scythes and sickles flash around, Rakes and pitchforks clear the ground." Edwards. The season of wheat harvest, when I was in my boy- hood, used to be a joyous and propitious period for poor people. Several days before wheat was fit to harvest, the streets would often be lined with cradlers and rakers and binders, going from those sections of the country where they thought the soil was too poor to produce wheat, to the wheat-growing districts, in quest of labor. For ordinary farm labor, men were accustomed to re- ceive fifty cents in money ; or one bushel of Indian corn ; or half a bushel of wheat, for the labor of one day. For a day's work in the harvest field, a cradler was accus- tomed to receive one dollar, or a bushel of wheat ; or two bushels of Indian corn. The men who raked and bound after a cradler, alone, received one dollar each, as raking and binding the wheat that a cradler cut down, was considered equal to the labor of cradling the same amount of grain. When two men followed a cradler, they received fifty cents each, per day. A boy who could rake gavels, received twenty-five cents for his day's work, or half a bushel of Indian corn ; and the man, or boy, oZO THE WHEAT CULTURIST. who could bind the gavels, after they were raked, was paid seventy-five cents per day. Cradlers and rakers and binders were required to do their work in a neat and farmer-like manner, or they must find employment somewhere else. This incentive prompted men to learn how to work with skill and efficiency. Such cradlers and rakers and binders as most farmers are now obliged to rely on, are most inefficient and miserable help. Whether they swing the cradle, or rake and bind, or shock the bound grain, their work is performed in a most perfunctory, Slov- enish, and unsatisfactory manner. Nothing will have a tendency to make an ambitious and neat farmer so ut- terly sick of his employment, as to see most of the farm laborers of the present day swing the cradle in grain of any kind, or rake and bind the gavels, and put the sheaves in stooks. When I was a young man, very few of the farm laborers of the present day would have re- ceived more than a boy's wages, until they had learned to work in the harvest field with efficiency and in a neat and skilful manner. When a man or boy failed to cradle grain neatly, or rake it clean, or to bind his sheaves tight, and in the middle of the gavel, it was a very common occurrence to hear the proprietor tell him, " You do not work to suit me. You can find work somewhere else." But, at the present day, good cradlers and neat and skilful rakers and binders are the excep- tion — not the rule, as it should be. To aid practical farmers in performing their work in the easiest and most economical manner, is my object, in penning the follow- ing pages. Let farmers first learn how to handle tools with skill and efficiency, and then they will be prepared to teach their awkward laborers. THE WHEAT CULTURIST. 327 Reapers and Mowers. Every farmer who raises wheat, or any other kind of cereal grain, needs a good reaper. And while he is procuring one, he may as well purchase a combined machine as to own a reaping machine and a mowing machine in two separate machines. Besides this, it is desirable to get a machine that can be relied on from year to year ; a machine that has been brought to the most satisfactory degree of perfectibility. Mechanics will be trying to bring out machines on new principles. The consequence is that a great many imperfect ma- chines must be taken on the farms and experimented with, until all the imperfect points in the machinery have been found and corrected. For this reason, I con- sider it important to suggest to farmers to purchase such machines as can be used to mow grass, clover seed, flax, and to harvest all kinds of grain ; and to choose such machines as have had all their weak points corrected. It takes a vast amount of brain labor and money to make a really good and complete mower and reaper. Either of the firms whose reapers are figured and de- scribed in this book have expended a large fortune in bringing their reapers and mowers to their present state of perfectibility. The Kirby Mower and Reaper. This reaper is a combined machine, driven by only one wheel. Some farmers are very partial to a one- wheeled reaper and mower, while others can be satisfied with nothing short of a two-wheeled machine. Who- ever has a fancy for a one- wheeled machine, will find 328 THE WHEAT CEXTTJRIST. all that Lie can desire in the Kirby. ~No expense has been spared to perfect every part of it. D. M. Osborn & Co., Auburn, N. Y., told me that their firm ex- pended $20,000 in one experiment to bring out the best labor-saving machine in the county. I merely pen these facts — not to puff this reaper — but to suggest to beginners the importance of getting such machines as can be relied on when grass and grain are fit to har- vest. There used to be, and there is now a serious defect in most one-wheel mowers and reapers, which is this : if the drive-wheel is in a furrow, the weight comes so heavily on the finger-bar, and so lightly on the drive- wheel, that the cutters cease to work. But this diffi- culty has been obviated in the Kirby, as will appear from the following brief description of the essential parts of this reaper and mower. The illustration on the next page represents the Kirby combined mower and reaper, with reel-self-rake attach- ment, set up for reaping. The drive-wheel is bolted on the axle in the usual manner ; but the plate on which the axle is cast, is made to move vertically, in a groove of the frame, so that the drive-wheel has a motion entirely independent of the frame and the finger-bar, and will run into dead furrows, or other depressions, and allow the cutting part to work on the level ground, the motion and power of the cutters not being affected in the least. In running over stony and stumpy meadows also, this method of connection with the drive-wheel gives great facility in raising the frame, and with it the cutting parts, above any obstructions. This is effected easily through the adjustment made between the weight of the driver and e* . msk kmm 330 THE WHEAT CULTUEIST. the weight of the working parts ; the one so balancing the other, that the working of a lever is not necessary to raise the inner end of the bar, as is the case with nearly all other machines. The finger-bar is of a great- ly improved pattern, giving a cut close to the ground in mowing. The cutter-bars, or knives, are made light and strong, of the best cutting steel, and tempered with great care, so as to give an elastic cutting edge suitable as well for stony and sandy ground as for the tough, fine, close bottoms of old meadows. The machine is made of iron and steel throughout, except the pole, seat, and track-clearer. The cutting apparatus is the same as that used for mowing, with the finger-bar raised to the required height for reaping. The platform is so shaped as to deliver the grain easily at the side of the machine. When used as a hand-raker, the person rak- ing off, sits a little in the rear of the frame, having per- fect command of the grain as it falls on the platform ; and can bring it off with one easy quarter sweep of his rake. The reel self rake has recently been attached to the reaper ; and it is operated by simple gearing from the level wheel-shaft. A small pinion engages the gear of a circular plate having four radial arms. These arms are pivoted at their connection with the circular plate, and are moved vertically by means of cams and ways ; and receive from them all the necessary motions for sweeping the grain on the platform as it is cut, and rak- ing it off in a gavel, when required. Beaters are at- tached to three of the arms for gathering the grain upon the platform ; and to the other arm a rake is bolted, to take the grain off. Rakes may also be attached to the other arms in place of beaters, so as to deliver the grain in a nearly continuous swath. This is a very strong THE WHEAT CULTURIST. 331 and compact rake, the working parts being all of iron, and put together in a very substantial manner. Keeping Knives Sharp. As the cutters of mowers and reapers sever the stems of grain and grass with a crushing stroke, it is of the utmost importance that the cutting edge should be sharp. Besides this, the angles which the cutting sides make with the base must be accurately adjusted to the rapidity of their vibrations, and their temper must be such as to insure the best cutting edge. Experience has shown that, where the whole section is tempered, it is too frangible for practical use. The slightest con- tact with stones, sticks, or other obstructions, causes it to fly in pieces like glass. The central portion of the section should therefore be left soft, while the temper- ing is confined to a portion extending from one-half to five-eighths of an inch from the edge. The violent change in the structure of the metal, lying on either side of the line of demarcation (see Fig. 53), often causes a fracture, resulting in loss to the manufacturer or the farmer, according to the time when the fracture appeared. The illustration on the next page represents a knife, or section, manufactured by Reynolds, Barber & Co., Auburn, New York. The committee appointed by the New York State Agricultural Society to examine these sections, state that " all of the Messrs. Reyn olds' sec- tions conformed to their test through ten successive grindings. Several of the others broke when pressed upward at an angle of fifteen degrees. Some of them bent permanently, when pressed upon. None of them except Messrs. Reynolds' showed a good temper after 332 THE WHEAT CULTUEIST. the third grinding. Where a graver was pressed into the section at the centre, and carried toward the edge with a uniform pressure, the groove formed grew grad- Fio.58. ually shallower, until it touched the line of demarca- tion — in the Messrs. Reynolds' sections — showing that the hardening was progressive from the centre to the line of demarkation. In the sections made by other firms the groove formed by the graver was of uniform depth until it touched the line of demarcation, when it became at one very shallow. This test shows that the sections of the Messrs. Reynolds grew gradually harder from the centre to the line of demarcation, and that the quality of the metal on either side of the line is not so dissimilar as to cause fractures ; and accounted verv fullv for their absence in the sections. " Having thus ascertained the superiority of these sections, we were desirous of seeing the processes of their THE WHEAT CULTURIST. 333 manufacture, and on making known our wishes, the Messrs. Reynolds were kind enough to show us the whole of their works ; and we confess to a feeling of great surprise on seeing their sections so perfectly tem- pered without the agency of any liquid, by percussion, reaction, and cold air alone. We saw over a thousand tempered and ground, not one of which was cracked, or which exhibited any traces of fissure whatever. We believe this process will greatly enhance the efficiency of our reaping and mowing machines ; and we rejoice that American ingenuity has perfected so valuable an invention. They are hard and elastic, will break be- fore they will bend, and will carry a sharp cutting edge more than double the length of time of any other sec- tion we ever tried. And they all have one uniform temper, which we consider a very essential point to the well- working of any reaper and mower." Remakes. — The practical point of first importance to a wheat-grower, when purchasing a machine, is, to ascer- tain whether the sections, or knives, have a temper equal to those manufactured by this firm. Best Time to Harvest Wheat. " Shot up from broad, rank blades that droop below, The nodding wheat -ear forms a graceful bow, With milky kernels starting full, weighed down, Ere yet the sun hath tinged its head with brown." Bloomfield's Farmer's Boy. It is assumed that every farmer will agree, that there is " a best period " in the growth of the wheat plant for harvesting. In other words, there is a time when, if the straw be cut, the yield of grain will be larger, and 334: THE WHEAT CULTURIST. the quality of flour will be better, than if the same grain were harvested previous to, or after that time. That is the decisive point for harvesting wheat. Let us consider some of the stages of development through which the wheat passes, as the growing grain approx- imates the period of perfect maturity. The first state is "the milk period." The heads of grain and the kernels are now as large and heavy as they ever will be ; and the kernels will measure more at this period than at anv other. Sometimes the extensive fields of wheat look like a sea of waving gold. But the grain is not fit to harvest. And if the straw be cut down, more or less loss must be sustained, as the material that forms the kernels contains a large proportion of the water which must be worked out by the vital action of the growing plants ; and its place must be supplied by sub- stances exquisitely fine, which have been collected, atom by atom, infinitesimally small, and brought to the ears and deposited in the kernels in the place occupied by particles of water. If, at this period, the cradle be thrust in, and the golden grain be cut down, the water remain- ing in the kernels will quickly escape, before its place can be supplied by this fine material that forms the flour. The consequence is, the kernels shrink, and the yield of grain will not reach its maximum quantity. At this period, most of the leaves may, sometimes, be entirely lifeless, and the circulation of the vital fluid in the straw may have ceased. Yet, the process of chang- ing from thin to thick milk, and from a semi-fluid to a plastic state, continues until the material in the kernels is of the consistence of dough when it is put into the baker's oven. This period is denominated the " dough state." The next is the period of perfect maturity. THE WHEAT CULTURIST. This is " the nick of time " to thrust in the sickle and reap the harvest. At this point in the growth of the plant, deterioration commences ; and the longer the grain is allowed to remain uncut, the smaller will be the yield, whether the grain be measured or weighed, the larger will be the product of bran, and the smaller the percentage of fine flour. After wheat has passed the milk state, the change to hard grain is usually very rapid. . For this reason, grain is frequently allowed to stand several days too long ; or until the kernels and straw are " dead ripe." When wheat is allowed to stand uncut through all these periods, a great loss is frequently sus- tained by the shelling of the grain while the gavels are being bound into sheaves. Still another source of great loss is sustained in the straw, when the grain is not cut until every part is dead ripe. If wheat be cut at the period designated for securing the largest yield of grain, the straw, if properly secured from the influences of the weather, will afford a large quantity of valuable fodder for domestic animals. On this subject, Agricola, in the " Working Farmer," writes : " There is probably no question in connection with wheat harvest which exercises so much influence upon the quality of the flour, as well as the amount, as the time of cutting. In former years, when we were compelled to depend on the sickle, or later on the cradle and manual labor, there was some excuse for not taking advantage of the proper and best time, but in this fast and improved age, when one man, aided by a pair of horses and a self-raking reaper, can cut and deliver ready for binding, from ten to fifteen acres of wheat per day, there is no excuse for its not being performed at the proper time ; the only thing which can interfere to pre- 336 THE WHEAT CULTURIST. vent cutting being done on any fixed day is the occur- rence of rain, but then, we must remember that our grain ripens very little during wet or cloudy weather. I have often found it to ripen more during one clear, warm day after a rain, than during a whole week of cloudy or showery weather. " At first glance it would seem that it was but natural , that the grain should be allowed to become dead ripe before cutting ; such would undoubtedly be the case if the whole crop were intended for seed, as is the case in a natural state of the plant ; but our object is to attain the greatest possible percentage of flour with the least pos- sible offal ; and not only this, but also to have this flour as rich as possible in gluten. " j^I the experiments which have been tried, not only here but in England, have clearly proven that there is a certain stage of the growth of the grain at which it yields the greatest proportion of flour, and that at this time the flour contains a larger percentage of gluten tli an at any time before or afterward. In order to more fully understand this time, let us go back four weeks ; the first two weeks will represent the time passing between the green and raw state, and the last two, the time which elapses between the raw and ripe state, and thus divide the grain into three stages." Mr. Hannum instituted several experiments to ascer- tain, if possible, the proper period to harvest the grain ; and his experiments led him to believe that at " about a fortnight before it fully ripens is the proper time for cut- ting wheat, as the skin is then thinner, the grain fuller, the bushel heavier, and the yield of flour greater." From the report of the miller who ground these samples, it seems that the lot cut raw made eight pounds more flour THE WHEAT CULTUISIST. 337 to every hundred of grain, and corresponding amount of straw. The amount of grain was not materially de- creased, showing that the addition to the weight of the grain was mainly in flour and not in bran. In a similar experiment the result showed a gain of over fifteen per cent, in flour, from equal measures of grain, and a gain of eight per cent, from equal weights of grain. English millers divide the product of the wheat into three classes, styled flour, pollard, and bran ; the sample cut when fully ripe gains fifty per cent, more of pollard than that cut raw. This effect may be thus explained : at the time of the first cutting while in the raw state, the grain contains its largest amount of starch and gluten ; at this period the grain has a thin skin, and consequently less straw ; afterward nature thickens the skin in order to protect the grain, thus changing a por- tion of the starch into woody fibre. In a more extended experiment the difference in pro- duce per acre may be thus stated : that cut when raw yielded, per acre, nine hundred and ten pounds more straw ; ninety pounds more flour ; thirty-five pounds less pollard and sharps ; thirty-five pounds less bran ; twenty pounds less waste, than that cut ripe. The real differ- ence in value may be stated at from six to seven dollars per acre. ISTor is this all which we can gain from early cutting. I have heard good farmers admit that they sometimes lost enough wheat by shelling out between cutting and mowing away in the barn to seed the field, or in other words, from one and one and a half to two bushels per acre ; this loss is all prevented by early cutting, for grain cut in the raw state, no matter how thoroughly dried, will seldom if ever shell out if handled in the usual man- ia 338 THE WHEAT CULTURI8T. ner ; and in addition to this, the sheaf is much pleasanter to bind, load, and thrash, for neither the straw nor beard is so stiff as when the crop is allowed to stand until fully ripe. In some instances, I have known wheat to be cut on the fourth of July, in Central ]STew York ; and the next season, in the same locality, wheat was not fit to harvest till the twentieth of the same month. Therefore, it would be useless to endeavor to fix on any week or day of a particular month ; for one day will scarcely be uni- versal in. one country nor with two kinds of wheat. In favorable seasons the straw commences to ripen from the bottom ; in certain unfavorable seasons the upper joints are ripe first ; but the latter case is the ex- ception to the rule. When on examination it is found that the two lower joints of the straw have turned yel- low, and the color is beginning to show itself above the second joint ; when the field seen from a distance seems quite ripe, but when more closely examined is found still green at the top ; when on crushing the grain between the fingers or teeth, the milk is found to have become so thick as to be fairly called a liquid, then cut y hut not till then. My usual rule is to wait until the yellow color begins to show itself almost one inch above the second knot or joint from the bottom ; and then cut the crop. This rule cannot of course be applied universally to the field ; for all the stalks don't ripen equally. But when a majority of the stalks comply with the above condi- tions, I would cut the field at once ; for though it seems green, the process of drying will ripen it without the loss which ensues when ripened " in the ground." When the weather is unfavorable, let tools and implements be prepared to harvest with dispatch when storms cease, the wheat cultttrist. 339 ^Cutting Wheat in England. A few experiments have been made and published in this country, showing, by accurate measurement, the advantages of cutting when the chaff has partly changed from green to yellow. We find the following additional proof in Baker's lecture before the Sparkenhoe Club, England, as published in the North British Agricul- turist : " In harvesting wheat, there was a great division of opinion, as well as to when was the proper time and mode of cutting. It was considered a proper time to cut wheat when it had passed from a ' milky state ' to a ' doughy state.' Experiments had been made under three heads — first, when it was green; second, when the straw was changing color; third, when fully ripe. The results were in the first case 19f bushels per acre, valued at 61s. per quarter ; in the second, 23-J-, at 63s. ; in the third, 22f , at 61s. There was a similar result in the straw. The total value per acre was found to be — on that cut green on 8th August, £12 17s. per acre, or $62.30 ; second, when cut yellow below the ear one week afterward, £13 7s., or $64.61 ; third, cut when fully ripe, one week later, £11 12s., or $56.13. This difference arose from that cut first and second producing more fine flour and less bran than that cut last, which proved that the gluten is converted into starch if the wheat stands until fully ripe, the proper time being un- doubtedly as soon as either end of the straw has changed to a yellow color, the sap having then ceased to flow ; but, on the other hand, it is better to cut early, as no portion is lost by shedding during the process of cutting, or by the effect of high winds. It is also less liable to 340 THE WHEAT CULTURIST. sprout in the sheaf, and early harvests are also generally best. Besides, a few days gained in the commencement of harvest is of immeasurable advantage, and enables the farmer to take opportunities for effecting other work, which otherwise he could not do." Signs of Perfect Maturity. The "Prairie Farmer," in an article headed, "When shall we cut wheat ? " says : "In attempting to answer the question, At what particular period in the condition of the grain shall we cut it ? we shall not refer to our own experience, but only add that our rule is, to cut the grain about two weeks before it is fully ripe. " Prof. Johnston, of the Royal Agricultural Society of England, says, the rawer the crop is cut, the heavier and more nourishing the straw will be. Within three weeks of being fully ripe, the straw begins to diminish in weight ; and the longer it remains uncut, after that time, the lighter it becomes, and the less nourishing. " On the other hand, the grain, which is sweet and milky, a month before it is ripe, gradually consolidates — the sugar changing into starch, and the milk thicken- ing into the gluten and albumen of the flour. As soon as this change is nearly completed, or about a fortnight before it is ripe, the grain of wheat contains the largest proportion of starch and gluten. If reaped at this time, the bushel will weigh most, and will yield the largest quantity of tine flour, and the least bran. " At this period the grain has a thin skin, and hence the small quantity of bran. But if the crop be still left uncut, the next natural step in the ripening process is, to cover the grain with a better protection — a thicker THE WHEAT CULTHRIST. 341 skin — and a portion of the starch of the grain is changed into woody fibre. By this change, the quantity of starch is lessened and the weight of husk increased. Hence the diminished yield of flour, and the increased produce of bran. " Theory and experience, therefore, indicate about a fortnight before it is dead ripe, as the most proper time for cutting wheat. The skin is then thinner and whiter, the grain fuller, the bushel heavier, the yield of flour greater, its color fairer, and the quantity of bran less." Color of the Straw. When the straw immediately under the head of grain turns from a greenish to an orange hue, for four or five inches in length, it is time to cut the grain. The ker- nels or berries have then just passed out of the milky state, but are so soft as to be easily crushed between the thumb nails. At this time, some of the leaves on the lower portion of the stem may be dead, but still, that part of the stem remains vigorous for a few days. Mr. Robert Brown, of Edinburgh, a farmer, and for many years editor of the " Farmer's Magazine," says it is necessary to discriminate betwixt the ripeness of the straw and the ripeness of the grain ; for, in some sea- sons, the straw dries upward; under which circum- stances a field, to the eye, may appear completely fit for the sickle, when, in reality, the grain is imperfectly con- solidated, and perhaps not much removed from a milky state. Though it is obvious that, under such circum- stances, no further benefit can be conveyed from the root, and that nourishment is withheld the moment the roots die; yet it does not follow that grain so cir- 342 THE WHEAT CULTUKIST. curnstanced should be immediately cut ; because, after that operation is performed, it is in a great measure nec- essarily deprived of every benefit from the sun and air, both of which have greater influence in bringing it to maturity, so long as it remains on foot, than when cut down, whether laid on the ground or bound up in sheaves. * * * Taking all these things into view, it seems pru- dent to have wheat cut before it is f idly ripe, as less dam- age will be sustained from acting in this way than by adopting a contrary practice. Another authority says that grain, if not reaped until the straw is wholly yellow, will be more than ripe, as the ear generally ripens before the straw ; and it is ob- servable that .the first reaped usually affords the heaviest and fairest samples. In the "Farmer's Encyclopaedia" it is stated that the indications of ripeness in wheat are few and simple. AYhen the straw exhibits a bright golden color from the bottom of the stem nearly to the ear, or when the ear begins to bend gently, the grain may be cut. But as the whole crop will not be exactly ripe at the same time, if, on walking through the field and selecting the greenest heads, the kernels can be separated from the chaff when rubbed through the hands, it is a sure sign that the grain is then out of its milky state, and may be reaped with safety ; for although the straw may be green to some distance downward from the ear, yet, if it be quite yellow from the bottom upward, the grain then wants no further nourishment from the earth, and, if properly harvested, will not shrink. The young farmer should study this subject most thoroughly, with this book in one hand and wheat in the other. He will soon learn when is the best time to harvest wheat, and THE WHEAT CULTURIST. M3 all kinds of cereal grain. This subject should be studied thoroughly. Time to Cut Wheat. Rawson Harmon, an experienced wheat-grower of Western New York, writes, in relation to the best period to harvest wheat : " To be most valuable for millers, wheat should be cut as soon as the berry has passed from the milky to the doughy state. . Wheat cut then, con- tains more gluten and less starch, than if it were not harvested until the grain is fully ripe. If wheat is allowed to stand uncut, until the kernels become hard, the gluten is diminished, and the starch is increased, which reduces the quantity and quality of the flour. But for seed, it should never be cut till fully ripe. Starch is more valuable in its early vegetation than the gluten. One cause of the increase of smut, of late years, is the cutting of wheat intended for seed, too green. Wheat cut before it is fully ripe, should not be sown. If wheat-growers would adhere strictly to the sowing of no seed that is cut before it is fully ripe, they would find smut disappearing without the preparation of brine and lime. The farmer that neglects to brine and lime his seed wheat, does not look to his best in- terest. Smutty wheat is much improved by not cutting until fully ripe." Cutting Wheat too Green. Although there is but little danger of harvesting wheat before the grain is really fit to cut, still wheat may be cut before it is really fit to harvest ; and in- stances have been recorded, where the loss sustained from cutting a crop too green, amounted to many hun- 344 THE WHEAT CULTURIST. dred dollars. J. P. Lowe penned the following facts : " A Southern farmer once grew three hundred acres of wheat, which, in June, had attained a huge growth, and appeared remarkably promising. The agricultural papers were then recommending to harvest early, while the grain was in the milky state. He followed their advice, and cut the whole three hundred acres as soon as the juice of the kernel began to whiten. The grain shrank badly. He estimated his loss, from too early harvesting, at $5,000. The blunder, as estimated by the writer, and by the gentleman himself, who, by the way, appeared very candid, and was willing to take his full share of the blame, fairly belonged, about one-half to him, and the other half to the agricultural journals of the time. The papers had blown too strongly, and altogether too indiscriminately, on the benefits of early harvesting, and he had followed their advice to excess — had cut his wheat in a greener state than they had recommended — had misunderstood them, to an extent which he freely confessed was inexcusable." Management of Wheat. Beginners frequently inquire whether it is not better to cut down the growing wheat at harvest time, and allow it to remain in the swath for a day or two, before it is bound into sheaves. But experience proves that it is far better for the grain, especially if the straw, when cradled, is somewhat green, to be bound in bundles, and put in stooks, than to let it lie in the swath, especially in hot and dry weather. If the grain be exposed in the swath to the burning sun, for only a few hours, the intense heat scorches the soft kernels, and dries up the THE WHEAT CULTUR1ST. 345 moisture in the grain so rapidly, that its quality is seriously injured, for making the best quality of flour. Besides this, the grain shrinks far more than it would, were the heads permitted to cure in the shade. If the straw be bound in bundles, and the sheaves be set in neat stooks and covered with caps of some kind, which shade the grain, the soft kernels will cure gradually, be more plump, and make more and better grain, or flour. Mr. E. A. King, a practical farmer of King's Ferry, Cayuga County, N. Y., penned the following instructive suggestions for the " Cultivator and Country Gentle- man " : "I believe it is a conceded fact that wheat, be- fore it is perfectly ripe, gives more and a better quality of flour. Still the yield is owing greatly to the manner in which the grain is cured, after being cut. Every intelligent wheat -grower knows that grain of any kind, cut in a greenish state, and allowed to remain in swath to cure, will cause the kernels to shrink and be of an inferior quality ; while if bound almost immediately, or before it gets dry, and put up in round shocks and capped, the grain will receive the juices remaining in the green straw, and become round and plump. To prove the benefit derived from keeping the heads of grain from being exposed to the air, let any one who has practised round shocking examine the heads of the top cap sheaf, and he will find the berries much less plump and heavy than those taken from underneath. Where wheat is struck with rust, early cutting, imme- diate binding, and round shocking will often save the crop, when if put up in long shocks, as many farmers do, the damage would be great. This is especially the case with spring wheat, as this variety is with us more apt to rust than the winter variety, as the time of ripen - 15* 346 THE WHEAT CULTUEIST. ing usually occurs later, when- there is a greater amount of warmth and moisture, which is no doubt the cause of the grain rusting. To prove this, wheat, oats, or barley, sown on our hilly lake land, where the drainage is quick and immediate, are seldom struck with rust of any kind." If wheat-growers will observe this suggestion, they will perceive that when grain is harvested and cured in cloudy weather, the yield will always be larger than if the weather were burning hot while the grain is curing. If wheat could be cut when the straw is quite green and cured under shelter, without being put into a mass so large as to heat, we should perceive a vast difference in the quality of the flour which is made of the grain. When grain is designed for seed, I always let it lie in the swath, one day or more, for the purpose of curing the straw as soon as practicable, so that the sheaves might be garnered immediately. Suggestions about Grain Cradles. Every man who ever uses a cradle, ought to under- stand why every part is made as it is — with its peculiar form. He ought to be able to tell what is the best form of the scythe, and the best curvature of the fingers, and how the fingers should stand with reference to the scythe. Although the great bulk of harvesting grain will probably be done with horse-power, still grain cradles will always be needed, even if horse-reapers are used to cut nearly the whole crop. Cradles must be employed to cut the grain around stumps, trees, along fences, to cut the corners of a piece of grain, when the reaper is in motion, and so forth. No farmer can get THE WHEAT CULTURIST. 347 along satisfactorily, without a good grain cradle ; and it is important for a laborer to know what constitutes a good cradle, how to put it in good order, and how to use it, so as to cut grain and lay it in a swath in a neat and workmanlike manner. The most correct form of a cradle scythe is a point which should be thoroughly understood and appreciated, whether one can obtain a scythe of the desired form or not. Fig. 54. — The best form of Cradle Scythe. A very straight scj^the is quite as objectionable as one that lias too much curvature. When it is too straight on the cutting edge, it will cut too squarely across the standing straws ; whereas the cut should be made in a drawing or sliding manner. If the scythe be straight on the edge, the fingers must of necessity be correspond ingly straight. The illustration herewith given, Fig. 54, represents a cradle scythe of a good form. It will be seen that the cutting edge from a to b, about one foot in length, is a part of the arc of one circle ; and the other part, from b to c, is the arc of another circle of the same size, but in a different position. It may be seen by measuring, that these circles are about ten feet in diameter, and that the distance from d, in the dotted line, to e, when a scythe is four feet long, is about two and a half inches. A cradle scythe of this shape works well, if it is properly hung on the snath, and the cutting edge kept in order. THE WHEAT CULTURIST. The question is frequently asked why a cradle scythe is made broader from the back to the cutting edge, than a grass scythe ? The object of this is twofold. The first is to support the grain after it is cut off; and sec- ond, to furnish ample room for the straw to slide back from the cutting edge, against the fingers, after it has been cut off. If a scythe, no wider than a grass scythe, is attached to a cradle, as soon as the space from the fingers to the cutting edge is filled with straw, the scythe cannot cut off any more straw ; therefore, as the cradle is " full," it must slide over the rest of the clip. If the fingers do not correspond with the curve of the scythe, a cradle will not work well, even if the scythe is made according to the most perfect pattern. Fig. 55 represents a scythe of the same form as Fig. 54. The object of it is to show the relative length and curvature of the first finger of the cradle, when compared with the form of the scythe. The inside of the finger should Fig. 55. — Best form and position of lower finger. extend at least two inches beyond the back of the scythe ; and it is best to have the finger from one to two inches shorter than the scythe. The small end should stand over the point of the scythe, as represented in the figure, and be from one to two inches above the blade at the point. If the first finger rests hard on the scythe, it sometimes prevents the grain discharging freely when THE WHEAT CULTTJKIST. 3 £9 the cradle is in use. The point of the first finger should always stand as far back as possible, and not catch any straws beyond the scythe. When some straws are pulled down and not cut off, it shows that some of the fingers stand out too far. On the contrary, when the cradle does not gather all the grain that is cut off, some of the fingers are in too far, or are too short. Some- times every finger stands exactly in its most proper position, and the cradle does not gather all the grain. This can be obviated in two ways : first, by using a shorter scythe ; or second, by dulling about two inches of the cutting edge at the point. Sometimes the scythe and lower finger are all right, but the other fingers are so short that the cradle does not gather all the grain the scythe cuts off. This difficulty can be obviated in no other way than by attaching a scythe two or three inches shorter, and cutting off the lower finger to cor- respond with the scythe, as shown by Fig. 55, and to be also of the correct proportional length with the other fingers. Fingers may be " too crooked," or too much curved near the points. It is a common occurrence to see cradle fingers like a sleigh runner — having nearly all the curvature within twelve to twenty inches of the ends. Cradles having such fingers never work well, as they carry most of the grain, after it is cut off, near the forward part of the cradle, which causes it to work hard, and to hang too heavily on the point, as well as to hold the grain too much, when it is being laid in a swath. When selecting a cradle, it is better to get a short scythe than one over four feet long. These two cuts of scythes and some of the matter, I prepared for the " American Agriculturist " when I was one of the edi- torial corps of that paper. 350 THE WHEAT CULTURIST. Grading Cradle Scythes. " Now, while he brushes the dew from the clover, Lay the dull scythe to the steel-gnawing stone ; Turn with a will, boys, over and over ; Now the edge wires and the grinding is done. 11 BURLEIGU. In my Young Farmer's Manual, the reader will find a diagram of a scythe, with more extended remarks about putting a scythe in order, than I shall pen in this place. There, the philosophical reasons are given for grinding a scythe, as directed. But I will simply cau- tion beginners, as well as some old heads, who think what they don't know is not worth the trouble of learn- ing, not to spoil an excellent cradle scythe by grinding the blade too thin. A large proportion of the cradle scythes that are condemned as poor stuff, or as having a poor temper, were ruined by grinding them too thin. Scythes are often ground and ground to death, by men who don't know how to put a jack-knife in order. Then, because the cutting edge fails, after the blade has been ground so thin that there is not steel enough to give proper stiffness to the basil of the scythe, the tool is condemned. Do not spoil scythes by grinding. How to Cradle Grain. "All strike as one, with a syrnphonant cadence; All step at once, with a measured advance ; Bowing together the brawny arm's aidance, In the slow swing of the shoulders 1 expanse. 11 BtTELEIGH. A gang of skilful cradlers, rakers, and binders, such as we used to see before the horse-harvesters took the place of the cradle, is a pleasant and cheering sight. THE WHEAT CTTLTUMST. 351 A good cradler must exercise no little skill in adjusting every part of the cradle to hang exactly right, or he cannot do neat work. Do not put the scythe and fin- gers out too far, especially if the grain does not stand erect. When all the parts of a cradle are made right, properly adjusted, and correctly handled, almost every straw will be gathered, as the scythe cuts them off. A good cradler walks close up to the standing grain — ■ within a foot of it. He keeps his body nearly erect. He puts his right foot forward when he steps, and never the left foot first. There is a philosophical reason for this. I studied it out when I first began to cradle, when I was only fourteen years of age. Point-in low and point-out low. Cut the stubble a uniform height across the swath ; and do not scoop out a swath, by pointing-in high and pointing-out high. Keep the scythe level ; and bring the cradle around, at every clip, as close to the left leg as you can. Lay the grain evenly at the butts ; and do not throw the tops around too far. Let your movements be rather slow and careful, until you can make every clip with as much precision as if the work were done by machinery. There are many things about cradling which I cannot write out ; but which can be learned only by the actual use of a good cradle. Cradle Fingers, and how to Make them. There are two kinds of cradle fingers: bent and nat- ural crook. Those having a natural crook are made by first sawing the log into plank thick enough for four fingers, or about two and three-fourths inches thick. Then, pieces are sawed out of the plank, with a scroll saw, of the desired curvature, which are then slitted tli6 352 THE WHEAT CULTTJRIST. other way with a small circular saw. The fingers then have square corners, which are dressed off by hand, or machinery, which does the work very neatly and rap- idly. . Bent fingers are made of very tough timber, first sawed into tapering strips just large enough for four fingers. These pieces are then steamed and bent, and sawed into fingers the same as if they were of natural crook. While the wood is still hot and on the form, or clamp, boiled linseed oil is applied to the outside sur- face, as long as the wood will absorb it. This is de- signed to prevent the fingers from straightening out, after the cradle, is finished. The great objection to straight fingers is, most of the grain that is cut at one clip, will be gathered and held by the fingers so far to- ward the point of the scythe that a cradle will not work well, unless it cuts short clips ; whereas, if the fingers have a proper degree of curvature, the grain will slide back toward the heel of the cradle, as it is cut, thus enabling the cradler to cut a larger clip at once, and to handle the grain with greater facility. Another thing of primary importance in the form of cradle fingers is, they should be more curved than the back of the scythe. See remarks on pages 348 and 349. Raking and Binding Wheat. " The reaper binds the bearded ear, And gathers in the golden year ; And where the sheaves are glancing, The farmer's heart is dancing." In order to rake and bind grain satisfactorily, a man must possess a good degree of skill and tact to make every movement of his body and every motion of his THE WHEAT CULTURIST. 353 rake, feet, legs, and hands aid him in his labor. He must not make any false motions, nor work like a man beating the air. Every motion must be easy and effect- ive. Why will a small, light man frequently rake and bind as fast as two large, heavy men ? Because he knows how to do it ; while the others alluded to are awkward, and labor to a disadvantage. It used to be a common occurrence to see a small man raking and binding in heavy wheat, and keeping up close to a good cradler. I have frequently heard my father tell of his ambition and skill in raking and binding wheat after a good cradler, when the country was new, and the wheat was as high as their heads over the entire fields ; and that often, when on a strife — as cradlers were accustomed to " race it " in those days — he said he has raked and bound the swath alone, and took the last clip off the cradle, as he closed up every sheaf. And it is not in- credible ; for, when I was a lad, it was an unusual occurrence for two hands to follow one cradler. Some- times a boy would be employed to rake the swath into gavels,, for another boy or man to bind. I well remember, when I was fourteen years old, as it was considered too hard work for a boy like me to rake and bind, and keep up with a man who cradled wheat, that another boy was hired to assist me. He was to rake the gavels and I to bind. But he was so unac- countably awkward, and made such miserable work at raking, that I refused to have his assistance, as both of us could not keep up with the cradler. He made such ill-shapen gavels, that I was required to spend more time in straightening up the gavels than I would occupy in raking them myself. Therefore, I performed the task alone, in good wheat ; have often done it since ; 354 THE WHEAT CULTURIST. and I never met with a cradler whom I could not follow around a ten-acre field, all day, keep close to him, and do the raking and binding in a neat and workmanlike manner, and help shock the sheaves after the grain was all cut. I do not record these facts to boast of what I have done, but simply to show the superior skill that was ex- ercised when I was a young man, when compared with what we now perceive among those who rake and bind grain. In order to labor at this kind of work econom- ically and profitably, a man must understand how to take advantage of every circumstance. Raking and binding grain is a part of harvesting that should be neatly performed. If a man binds poorly, or does not rake clean, or makes a great many false motions which occupy time, consume his strength, but do not further his labor, he is an unprofitable hand, and should be taught the first principles of raking and binding skil- fully and expeditiously. The Size of the Gavels. The importance of making the sheaves as nearly of a uniform size as is practicable, should be frequently impressed on the mind of every man and boy who binds grain, or who only rakes gavels. If the sheaves are to be stacked, it is far more important that the gavels should be of a uniform size, than if they are to be stored in a barn. For this reason, care should be exercised when grain is being cut down with a reaper, to make the gavels — neither too large nor too small — ■ but of a fair size. It is exceedingly inconvenient for a stacker to make a good stack of sheaves of various sizes, as there will be holes where the small sheaves are THE WHEAT CULTURIST. 355 laid. And if the sheaves are not of a uniform length, even an experienced stacker will be liable to build an ill-shapen stack, that will not turn the rain so well, as if it had been made of sheaves of a uniform size. It is of eminent importance that the man who makes the gavels should understand all the advantages and disad- vantages of having sheaves too long, or too large, or too small, and poorly bound. My own rule always has been, to make the gavels as large as they can be bound conveniently. This thought is always kept in mind when the reaper cuts the grain, as well as when the gavels are raked by hand. If gavels be so large that a binder cannot reach around one with- out making extra exertions, he will lose time and fall behind. On the contrary, if the gavels be made too small, too much time will be consumed in making bands and binding the sheaves. Many laborers do not seem to consider that it makes any difference whether they make twenty sheaves in going across the field, or whether the same amount of straw is bound into forty bundles, requiring nearly double the time. If the straw be so short that a double band will not extend around a gavel, of course, the length of the straw must be the guide in determining the size of the gavels. I always aimed to make the sheaves as large as they could conveniently be bound, for the purpose of econ- omizing labor. Raking and binding only a few sheaves is really a small matter. But, when a quantity of grain is bound into 4,000 sheaves, when it might have been put into 3,000, without any inconvenience at all, we per- ceive a loss of time and expense required to bind 1,000 sheaves. Besides this, there is a loss of time in loading and stacking. If a certain amount of grain sufficient 356 THE WHEAT CTJLTURIST. to make 3,000 sheaves be bound into 4,000 sheaves, it will cost nearly one-quarter more to handle it when securing the crop, either in stacks or in barns. How to Rake Gavels. Beginners — whether boys or men — should be instruct- ed how to rake gavels neatly, expeditiously, and by ex- erting the least strength. There is an awkward and laborious way to rake gavels ; and there is a neat and easy way of raking. The man who practises the for- mer, will work hard all day and perform but little ; while the latter will move along with amazing ease and rapidity, and perform his task in the most satisfactory manner. Two points should be kept in mind, one of which is to keep the butts even, and the other, to keep the gavel from running out much longer than the straw. In or- der to rake a gavel easily, keep the rake-handle nearly straight up and down, and move the leg that is against the butts, along with the gavel. This will keep the butts even, and the gavel of a uniform length. But, if a man does not keep one, or both legs against the butts of the straw, the gavel will be much longer than the straw ; and the sheaves will be awkward things to stook, as they will not stand erect without help. AVhen making gavels of grain that is cut by a reaper, if the straw be of a uniform length and weight, it will not be difficult to gauge the size of the gavels, as a little observation and experience will enable an expert work- man to make them all of a uniform size. But, if half the gavels be made too large, and the remainder too small, the labor of binding will be greatly increased. THE WHEAT CULTURIST. 357 When closing up a machine gavel, or when raking a swath, let the head of the rake be always kept as nearly- parallel, as practicable, with the straw. It is far easier to keep the butts of the straw even, when making a gavel, than it is to even them with a rake, after the gavel is made. Making Bands. It may seem trivial to dwell on the various manipu- lations incident to harvesting grain; but laborers should understand how to perform every operation with the greatest possible ease, and in the shortest space of time. Some men will make a band and bind a gavel, neatly, before another man can make his band. Some binders separate a handful of straw into two equal parts, and tie the top ends together. But that is a slow and awk- ward way. Others double the ears of grain over, and catch them between the gavel and the band. But the lock is liable to become loose, when the gavel is being bound, or when the sheaves are handled. The mode adopted by all quick binders, and the most expeditious way to make a band is, to take a small hand- ful from the top of the gavel, and while separating it, hold back other straws with the other hand. Then grasp it with the left hand a little below the heads, and, dividing the straw with the other hand, take the half of the band at the right side, carry it quickly to the left side of the other half, so that the left half will rest on the back of the right hand. Now elevate the right hand above the left, thus throwing the butt ends of the branches of the band into the air above both hands. Pass the portion of the band in the right hand around all the heads of grain, and place the right thumb on 358 THE WHEAT CULTURIST. tliem, and the lock will never separate when binding, if it is well made. Bixdixg Gavels of Graen t . I know of but few little things that are more perplex- ing and trying to the patience of an ambitious farmer, than poorly bound sheaves of grain. Sheaves that are poorly bound, will fall apart when one is making stooks. They unbind when the pitcher is heaving them on the load. The bands loosen when the loader is placing the sheaves, and from the time of binding, till the grain is laid down to be thrashed, poor binding is an intolerable nuisance ; and every good man whose ambition has not been paralyzed by pitching half-bound sheaves will breathe out grumbling and muttering, and sometimes denunciation without measure, at such perfunctory and miserable work. I was always accustomed to tell men and boys, who bound grain for me, If you do not bind one hun- dred sheaves in a day, do put the bands in the middle and bind the sheaves tight. In order to have employes work advantageously, I always would spend an hour with an awkward laborer, instructing him how to make his band ; how to put it around the gavel ; how to take hold of the ends ; and how to form the lock and to make the tuck. Now, in order to bind a gavel quickly, take the band in one hand, throw it forward of, and around the gavel, while the left hand is passed beneath the opposite side, palm upward, as shown by figure 56, grasping the band in such a manner that its hold need not be relinquished until the sheaf is bound. When the hand grasps the THE WHEAT CTTLTURIST. 359 band so that the hold must be relinquished and renewed, it often occupies time enough to finish binding the Fig. 56.— A Skilful Binder. sheaf. When the right hand is passing the band around the bundle, if the stubble is sharp and stiff, keep the 360 THE WHEAT CTJLTURIST. band beneath the palm. By this means the tender skir on the back of the fingers and hand, will be protected •from the sharp stubble. There are in common use not less than three different modes of binding. One is, passing the right-hand end over the thumb, with a double twist and tuck; the next is, passing it under the wrist, with a double twist and tuck ; and the third is, passing it beneath the left hand, making a nip about the left-hand end of the band, and a tuck beneath it, or, in common parlance, " a nip and tuck." Sometimes binding over the thumb is perform- ed with a single twist and tuck. But, when bound in this manner, unless the bands are drawn very tightly, sheaves are liable to unbind. Every laborer should learn to bind sheaves over the thumb, as he will be able to bind a larger number of sheaves in an hour than if he binds under the wrist. When binding a sheaf over the thumb, put one knee on the gavel and draw the band as tightly as practicable, and hold both ends with one hand, and with the forefin- ger of the same hand grasping the right-hand end of the band. Now, while the left hand holds both ends of the band, whirl the right-hand end of the band around the other end with the right hand, giving them a twist, or two twists, which is better ; and tuck the twisted end under the band. The second mode of binding is done with the left knee on the sheaf; the right-hand end of the band is carried under the wrist of the left hand, and held by letting the wrist drop upon it, until the two ends are twisted togeth- er, and tucked under. Sheaves- are bound in the " nip and tuck " style by passing the end of the band in the right hand under the left hand, then holding it with the THE WHEAT CULTURIST. 361 left hand resting on the end of the band, when the right hand releases its hold, and renews it again above the left hand. Then the left-hand end of the band is bent over toward the binder, while the other end is brought around it and tucked beneath the band on the side toward the binder. When sheaves are thus bound, the left-hand end of the band forms a good handle for carry- ing the sheaf. Laboring Disadvantageously. When a laborer is greatly fatigued by toiling in the hot sunshine, every movement is a tax on his energies. It is fatiguing to stoop down and pick up one's rake. Most binders always throw their rake down on the ground, every time they bind a sheaf. Of course, they are obliged to spend the time and endure the fatigue required to stoop and pick up their rake as often as they make a sheaf. Now, if an active man will rake and bind one thou- sand sheaves in twelve hours, and if it consumes two seconds of time to stoop and pick up his rake at each sheaf, he must necessarily endure the fatigue of picking one thousand rakes off the ground, which will consume not less than thirty-three minutes, besides the useless fatigue. During that length of time, he would be able to rake and bind not less than fifty sheaves, which is not a little saving with many hands. While a sheaf is being bound, the rake-handle should always rest against the shoulder of the binder, as shown by the last figure. This makes it easier work for him than to lay down and pick up his rake at every sheaf. As soon as a sheaf is bound, and the binder straightens 16 362 THE WHEAT CULTURIST. his body, his rake is where he can take hold of it, with- out stooping to pick it off the ground. A beginner may experience a little difficulty in keep- ing the rake-handle against his shoulder, while he is binding a gavel ; but, by exercising a little patience and perseverance, a laborer will be able to work all day, and not be required to stoop down and pick up his rake a single time. When we have devised every possible means to lighten the labor of raking and binding grain, we find there is a great deal of hard work still to be performed. When gavels are neatly made, and bound tight with the band in the middle of the sheaf, as represented by the accompanying figure of a sheaf of wheat, every sheaf will stand alone, and it will require the force of a strong wind to blow sheaves over. But when the band is placed near the butts of the straw, sheaves will often need rebinding, before they can be stored. Beginners who are slack, poor binders, can imitate this illustration of a sheaf, until they are able to make handsome sheaves which will stand erect without a boy to hold them when no wind blows. The tuck of the band is shown, in this figure of a sheaf, as well as it can be represented on paper. Beginners should see that the ends of the band are thrust under the band, so as to hold well. Fig. -A Sheaf neatly Bound. THE WHEAT CULTURIST. 363 A Straw-band Maker. Many farmers experience great inconvenience for want of long straw for making bands to bind bundles of straw when thrashing grain, as well as for binding stalks of Indian corn. Making straw bands bj twist- ing them out of short straw by hand is a slow and tedious process. But by employing a twister, as shown by the accompanying illustration, straw bands can be '/// Fig. 58.— Band Maker. made with satisfactory rapidity. With such an instru- ment, a man and small boy can make a large number of bands in a day, when they have no other employ- ment ; and thus have them ready for use at any future period. The manner of making bands with this hook and crank is as follows : Secure a handful of straw or hay to the hook, while one person holds it with one hand. 364 THE WHEAT CTJLTUIilST. and turns the crank with the other. The person who lets the straw and hay out, should be seated on the floor, with a lapful before him. The twister walks backward, away from the layer, as the length of the band increases. The operation is similar to making ropes. The straw or hay should be wetted before it is twisted into bands, as the straws will not be so elastic as when dry. When wet, the straws will be very pliable ; and a very smooth band can be made fifty feet long in two minutes, if a person can lay out the straw skilfully. Make each band about fifty feet long ; lay it down on the ground ; let it dry one or two days ; then, with a sharp axe, cut the long bands or ropes into pieces of suitable length for binding sheaves. The pieces may be four, five, six, or more feet in length. * The desired size of the bundles must determine the length of the bands. After the long hay ropes have become dry, the bands will not untwist when sheaves are being bound. To make such a straw-band maker, procure a piece of half-inch round iron, twenty inches long. Make a crank on one end and a hook on the other. Any black- smith will do the work for a dime. The circle of the hook should be about two inches in diameter, formed as herewith illustrated. The length of the crank should not be over six inches. If the crank be too long, the twister will find it far more fatiguing to his arms than if the crank were short. For a handle, bore a hole through a piece of straight- grained hard wood, shave it true and smooth, split it in two, through the hole, place it on the shank of the twister, and glue the edges together. Put a handle also on the wrist-pin. Persons who have never made bands with such a device, will be surprised to learn how won- THE WHEAT CULTURIST. 365 derfully making bands in this manner will facilitate the labor of binding sheaves of any kind. A Binder's Day's Work. Before horse-reapers were employed to cut our grain,, when young boys were ambitious to rake and bind grain, six hundred sheaves were considered a boy's day's work, and a thousand sheaves for a man. But if a man rakes and binds one thousand sheaves in the course of twelve hours, he must labor faithfully and understand how to make his band in the best and most expeditious manner, and how to bind by exerting the least strength, and in the shortest period of time. A laborer who re- ceives a man's wages, ought to rake and bind three sheaves in two minutes, on an average of the minutes in the working hours. Ambitious men will do more than this. But muttering laborers, who are always fearful that they are going to do too much, and who will let a sheaf drop half bound, when the dinner-horn blows, will not rake and bind more than five hundred sheaves in a day ; and even one-fourth of those will have to be re- bound before they are put in the mow. In these days of agricultural machinery, men and boys ought to edu- cate their ambition to accomplish as much as laborers could perform when their fathers were young. But in most instances, our old men, now in their dotage, will mow around our common mowers, every ten rods ; and cradle around them twice in cutting across a ten-acre field ; and cut their corners at the end ; and then cradle around to the place of starting, and take a refreshing nap in the shade before their competitors come up, and are ready for another start. This is a fact. And I 366 THE WHEAT CULTURIST. record it to the shame of our young men, who lack the promptings of a laudable ambition to be able to do as much as their fathers could. A little skill and ambi- tion of a boy with a cradle or rake, will often surprise a strong man, who is as awkward as a poorly trained donkey. Shocking ok Stooking Wheat. " Now sheaves are slanted to the sun, Amid the golden meadows, And little sun-tanned gleaners run To cool them in their shadows." The " shocking manner " in which a large proportion of the wheat of our country is stooked — and in many instances by farmers who sustain a fair reputation for being skilful cultivators of the soil — is one of the chief reasons why the market is often glutted by such a large quantity of poor and sprouted wheat, and why there is such a serious complaint about poor bread. It is quite as annoying and shocking to a skilful farmer, to see his grain stooked in the awkward and perfunctory manner that is almost universally practised, as it is to a finely educated ear, to listen to harsh discords, when harmo- nious sounds were promised and expected. Were it not for the purpose of turning the water from the grain during showers of rain, the manner in which the sheaves are set up in stooks would be a matter of small account. But, since sheaves may be stooked in such a manner as to turn all the rain of a moderate shower, it becomes a subject of first importance to the wheat- grower to know how to set up the sheaves right. There is a right way and a wrong way to shock sheaves THE WHEAT CULTUKIST. 307 of grain ; and it is just as easy to adopt the right way as the wrong, when a laborer knows what is required. An active boy can be taught, in a short time, to shock grain so well, that the stooks will stand erect for several weeks without leaning or tumbling over, thus exposing the grain to storms. When I was accustomed to work on the farm, I shocked every sheaf of grain with my own hands, un- less it was not convenient for me to be in the field; and the result was, that T could often haul my grain to the ^P/mr. ■^mmmm Fig. 59. — Setting up Sheaves. barn, soon after a shower, while the sheaves of certain neighbors would be wringing wet to the middle ; and many of them would have to be unbound and spread 368 THE WHEAT CULTURIST. out before they could be dried. That was because the sheaves were stooked in such a shocking and perfunc- tory manner. Since shocking grain in a proper manner is a subject of such eminent importance, I deem it proper to lay down the details in the manipulations of putting sheaves in stooks. How to Handle Sheaves. When a laborer is carrying sheaves to the place where a stook is to be a made, he should either take hold of the band, or grasp a large handful of the straw near the band. But when the sheaves are to be set up, especially when long shocks or stooks are to be made, each hand should grasp a sheaf as represented by the preceding illus- tration (Fig. 59). Then the two sheaves should be set down at one thrust, with the tops leaning toward each other sufficiently to settle toward each other. If one sheaf stands erect, and the other leans against it, both will soon fall to the ground. The accompanying representation of a stook of wheat put up as thousands of laborers shock grain, shows what a complete rain-catcher such a shock of grain is. Look at it ! The sprawling tops will not turn rain any bet- ter than a binder's old straw hat, when placed bottom-side upward in a hard rain-storm. The gavels were unskilfully made ; the binding was only half done ; and the sheaves were shocked in a most shocking manner, so that every ■'A-i^l 9 maim Fig. 60.— Badly Shocked. THE WHEAT CULTURIST. 369 drop of rain that falls within the area of such wide- spreading sheaves, will be conveyed by the straws down into the middle of the bundles. Look at the cap- sheaf! How much water will that conduct off the sheaves beneath it ? Not a single drop. Water always runs down hill. The manner in which that cap-sheaf is put on the stook, will be the means of collecting most of the rain that falls on it, and conveying it toward the band — down hill — and thus down into the sheaves be- neath it. Those sprawling tops of sheaves should be gathered into a smaller compass, and placed beneath the straw of the cap-sheaf, which should be spread out so as to carry the rain beyond the sheaves. The representation of a shock of wheat herewith given (Fig. 61), shows as nearly as is practicable how to stook wheat neatly, so as to turn off most of the rain. There are two cap-sheaves spread out on the tops of the bundles which are set on the buts. My own practice has always been to set about ten sheaves together, in a round and snug compass, and crown them with two caps r Fig. 61.— Neatly Shocked. instead ol one, as shown by the illustration, Fig. 61. Yet the cap-sheaf in this figure is not represented with the tops and butts spread as much as they ought to be. It is extremely difficult to show every important point on paper. But the reader should understand, that it is important to have the straw spread all over the top of the standing sheaves, so that they will conduct the rain to the outside of the stook. 16* 370 THE WHEAT CTJLTURIST. Fig. 62.— Round Shock of Wheat. SttsGLE-CAPPED STOOKS. A great many wheat-growers set their sheaves in round stooks ; and cap them with only one sheaf, as rep resented by the accompany- ing figure 62 of a shock of wheat. But I never ap- proved of this mode of stooking sheaves of any kind ; because more skill is required to put on the cap- sheaf, than is necessary when two cap-sheaves are employed, as shown in a preceding figure. In this style of stooking grain, one of the largest sheaves is selected for the cap, and placed with the butts upward. During a heavy shower of rain, that large butt-end of the cap-sheaf will catch, in some instances, more than a gallon of water, all of which will be conducted down into the sheaf, and much of it will pass down among the grain beneath the cap ; whereas, the rain that falls on a stook having two cap-sheaves, like the shock on a preceding page, will nearly all be conveyed off the grain to the ground. Although I prefer making stooks with two caps, still I will pen directions to enable a beginner to shock his grain neatly, with one cap-sheaf. The number of sheaves in a stook, will depend in a great degree, on the size of the bundles and the length of the straw. My practice always was, when making stooks without assistance, to set up the largest sheaf per- pendicularly for the middle of the shock ; and then, set THE WHEAT CULTURTST. 371 eight more sheaves around it, being careful to lean them all a trifle toward the middle- sheaf. When setting up the outside sheaves, one hand must support the middle sheaf from being thrust from its perpendicular position, until sheaves have been placed on the opposite side. After the circle is complete, as shown by the accom- panying diagram of stars, gather in all the * * # spreading straws and lopping bunches of * * % grain, and form a snug round top. Then, # # having previously chosen the sheaf having * the longest and straightest straw, loosen the band, hold the ends with one hand, and chuck the bundle down on the ground, butt-end first, and bind it again with the band about eight to twelve inches from the butt-end of the sheaf. Now place the sheaf again on the butt-end, and break the straw down horizontally in every di- rection from the centre of the sheaf. Then place this cap on the stook as represented by the illustra- tion on page 376. For the purpose of corroborating the excellence of this mode of shocking grain, I copy the notes of J. J. Thomas, of the " Cultivator and Country Gentleman," who writes : " Two years since, when the wheat was almost universally injured or spoiled by rains during harvest, the only exception which we met with was a field belonging to an extensive farmer, the wheat of which was cut early — a week before the common time — and well secured in shocks, like that shown in the preceding figure. The grain thus secured remained in the field uninjured through all the rains, and ripened into excel- lent bright, plump wheat ; while all the other fields of this farmer, and all the wheat of his neighbors, were nearly ruined. We will describe a systematic method 372 THE WHEAT CULTURIST. which we have practised for many years, and know that it operates well : " 1. Grain should be firmly bound in smaller sheaves than it is almost universally bound. Loosely bound sheaves cannot be well shocked ; they also admit more rain than tightly bound ones. " 2. Two men can shock better and more advantage- ously than one. " 3. Let the shocker always take two sheaves at a time, holding them with his elbow against his side, bringing the heads together with hands well spread upon them. Lift them as high as possible, bringing them with force, in as nearly a perpendicular position as can be, to the ground. Never make the second thrust, if the sheaves stand erect, for every one after the first, by breaking the butts, makes the matter worse. " 4. Let two persons bring down two sheaves each at the same time, as described above, being extremely care- ful to keep them perpendicular. The form * * * of shock at this period, may be represented " * * thus : " 5. As lastly stated, two more each, thus : ^ # The reader will perceive we now have ten * * sheaves, forming a circle as nearly as can be. # * * # " 6. While one man presses the head of the * * shock firmly together, let the other break, not bend, the two cap sheaves, and place them on well-spreading heads and butts. " The main points are, to have grain vjell bound,sh.e&ves to be stood in an erect position, and then put cap-sheaves on firmly, and every gust of wind will not demolish your work." Let boys, and awkward men also, observe these directions, till they oan shock o-rain neatly. THE WHEAT CULTURIST. 373 How to Make Long Shocks. When sheaves of any kind are set up in long shocks, the stooks should stand north and south, rather than in any other direction, so that the sun may shine on one side in the former part of the day, and on the opposite side in the afternoon. If the stooks be set up in an east and west direction, the north side of the sheaves get the benefit of very little sunshine, while the south side receives more than an equal proportion. When those laborers who cannot set up sheaves satis- factorily, carry the bundles together, they should be taught to lay the sheaves in two rows, tops toward each other, with about three feet space between the heads. Then, the operator takes a sheaf in each hand, and chucks them down on the butts, once only, on the ground, with the tops leaning inward only a little. The sheaves should not lean as far as the rafters of a house. After they have been set down, press the tops together. Then set up two more sheaves, close to the first pair ; and then two more ; and so on, until the shock is finished. If a sheaf is chucked down more than once, the butts will be broken and bent around in various directions; and the sheaves will not maintain their erect position so well as they will when jammed down only once. Long shocks may be made of any desired length. But great care should be exercised, that the sheaves do not lean lengthways of the stook. If they be set up correctly, they will stand erect as long as it is desirable to allow the grain to remain in the field. Whether the sheaves be set up in long shocks or in round shocks, a sheaf should never be jammed down on the ground more than once, if we would have it stand up well. 374 THE WHEAT CULTUfilST. Wooden Grain and Hay Caps. The accompanying illustration represents a shock of wheat covered with wooden caps, which may be made at a cheap rate, when lumber and labor are cheap. They may be made in the following manner : Saw out a lot of sticks of hard wood, four feet long and one and a quarter inches square. These are to be employed as a ridge pole to a barn roof. Select wide shingles, sea- son them thoroughly in the sunshine, until the w T ood will not shrink any more ; then joint the edges and nail %£r hww** Fig. 63. — Wooden Grain Caps. the butts to the miniature ridge-pole. Such a roof will cover a cock of hay of large size, or a shock of wheat, keeping it dry through any storm. The only question is, whether they will not be too costly, and inconvenient to handle. But tapering shingles would be lighter than shingles of uniform thickness. Thin boards of bass- wood, whitewood, or pine, not more than one-fourth of an inch thick, would subserve quite as good purpose as. wide shingles. Such caps could be carried to and from the field in a wagon ; and packed in a small compass in a "nest," like wooden bowls. It would be necessary THE WHEAT CULTURIST. 375 to make the tops of the cocks of such shape that the wooden caps would fit well, and not be blown off, even by high winds. At times, where there is but little to do, such caps might be made and painted with coal tar, to prevent the shingles shrinking and swelling by the action of showers and sunshine. If four feet in length should not be of the right leugth, they can be made five or six feet long ; and several caps can be put on a long shock. Cloth Grain Caps — How to Make them. As there is so much uncertainty about having fair weather during the days of harvest, grain caps, or hay caps, for covering shocks of grain in stormy weather, seem to be almost an indispensable requisite to success- ful agriculture. Indeed, I think that grain caps are far more important than a mowing-machine, or a reaper. If I could have but one of the two, I should consider it most economical to purchase a hundred dollars' worth of hay caps, rather than a mower and reaper. The chief reason why they have not been introduced more generally is, the expense of procuring the material for making them. Besides this, few farmers really under- stand and appreciate the eminent value and advantage of such appendages. I think, that if a farmer who has been accustomed to secure his crops without grain caps, will employ them during a wet season, he would ever after be unwilling to dispense with their use. When a farmer has a crop of grain ready to be garnered, and the clouds pour down torrents of rain, so that every sheaf would be wet through and through, and many of them have to be unbound before the grain could be dried, I 370 THE WHEAT CULTURIST. cannot describe the feeling of transcendent satisfaction which that farmer experiences, when he goes to his fields after a heavy rain has fallen, and finds every sheaf dry enough to cart to the barn ! On the contraiw, witness the woe-begone countenance of him who fore- sees the hard labor of drying his wet sheaves ; and who grieves over the large quantity of sprouted grain, per- haps wheat for his family ! In localities where long and heavy storms of rain are apt to prevail during the haying and harvest season, every farmer ought to prepare a good supply of hay caps, not only for protecting his hay while it is in cock, but' for protecting his cereal grain, and Indian corn- stalks, when they are in the shock. Such caps will often pay for themselves, in a single season, in protect- ing hay only. But, after the hay has been gathered, they will be found quite as serviceable for protecting barley, wheat, and oats. That farmer who has never used them has no correct idea of the great advantage of hay caps, both in making hay and in protecting grain from rain. If, for example, one has a lot of hay that is ready to go into the mow or stack when a heavy rain is at hand, he can put on his caps in a short time, and his hay or grain will receive no dam- age. Then, as soon as the storm is over he can re- move his caps, and go to work immediately at his grain or hay. On the con- rio. u.— cioth Grain-cap. trary, had it not been for the protection of his caps, the damage done to his hay THE WHEAT OULTURIST. 377 or grain might have been more than equal to the value of the caps. I have examined various ways of making hay-caps, and among them all I can recommend the following mode of making them as the most convenient to han- dle : Procure common sheeting, or bed-ticking, or any kind of cloth, one yard or two yards wide, and make the caps about six feet square ; let the rough edges be hemmed. Now turn up each corner about three inches, and sew them down tightly. Work a small eyelet-hole near each corner, like Fig. 64, for the wooden pins to go through into the hay. The pins may be made of airj hard, straight-grained wood, about sixteen inches long. These pins can be made the most expeditiously by sawing off a log of green timber, and split it out, as one would rive out staves. Then shave them, so that they will be about half an inch round at the large end, with a knob on one end, and pointed at the other end. The neatest way would be, to have the pins turned, like the illustra- Fi». 65. 1 Grain-Cap tion here given. Pin - Painting Grain-Caps. Some people paint their caps ; but this renders the cloth rotten, and very stiff. But unless the cloth is very good, they will not turn the rain during a very heavy shower, if the cloth is not painted. Others have saturated the caps with a solution of alum, and some quicklime ; but I cannot recommend this preparation. Yet the following preparation I can endorse, even for rather poor cloth. If the caps are made of heavy bed- 378 THE WHEAT CULTCRIST. ticking they will not let the rain through, should it rain a week or more, even if they have not been smeared with any preparation : Make a paint of three parts of coal-tar and one part of benzole, or benzine, or spirits of turpentine, and apply it to the cloth, in hot weather, and you will have caps that will last as long as one man will need them. The most expeditious way to put the caps on a cock of hay or stook of grain is, let two men throw a cap over the top, and draw it down, both together, and thrust in the pins into the eyelet-holes, with the points a little upward. Weights in each corner of the caps will hold them well ; but they are said to be very heavy to carry around, as one hundred caps must necessarily weigh some six or eight hundred pounds. The editor of the " Cultivator and Country Gentleman " says : " We experimented this season on this modern protect- or, and the result is, that I believe the small caps of three feet square are comparatively useless — those one and a half yards square the best size. Those not oiled did not keep out the wet effectually, but those dipped in boiled oil repelled the rain of nearly a week's duration, so as to require but an hour's airing of the cocks to fit them for drawing. The stones sewed in the corners will, I think, be abandoned on trial, as they make them too heavy to move in quantities ; besides proving inade- quate in a brisk breeze to retain them in their place ; while pegs not only hold them on, but also spike the hay from caking off the top, as it sometimes does, cap, stones, and all. When weights are employed at the corners of caps, one pound, at least, at a corner, will be as li^ht as the weights should be made." THE WHEAT CULTURIST. 379 More about Grain or Hay-Caps. Hay-caps are sometimes made four feet square, hav- ing a wooden pin fastened in the middle of each cap, which pin is thrust into the top of each cock. Then, there are pins fastened to small cords at each of the four corners. But the centre pin is of little use, while it in- creases the expense ; and four feet square is quite too small, to protect cocks of an ordinary size ; or, to pro- tect shocks of grain. Experience teaches, that caps will usually be more convenient, when they are made with eyelet-holes at each corner, for receiving the pins, than when the pins are fastened to the middle. When they are made as recommended, the pins can be carried in a basket, and the caps in a large roll, very conveniently ; and if the holes be made at the corners, the caps can be used to cover a stack with ; whereas, they could not be so em- ployed, when the pins are fastened to the corners with cords. The caps should all be made of a uniform size ; and the holes should be marked out by a pattern, so that the caps will all be just alike. Now, to protect, or shingle a long stack with caps, begin at the top, and lay one cap on one side of the stack, and another one on the opposite side ; and, let a pin be thrust through a hole in the corner of four different caps on the top of the stack. Then put another course of caps below the first course, and put a pin at the corners. Round stacks cannot be covered with caps in this way. But, long stacks, and stacks that are only partly finished, which need to be protected from a shower of rain, can be covered with caps made as di- rected in a few minutes, so as to turn a heavy rain. 380 THE WHEAT CULTURIST. Scott's Patent Grinder. This invention consists of a grindstone turned off true on the side, as well as on the periphery, and supported on a frame, as repre- sented in the figure. The grindstone is adjustable to any required angle, and the cutter bar, or knife, is securely held in the swing- ing frame, and placed at the pro- per bevel. The stone slides the Grinding Machine Knives. whole length of the frame, and grinds each section to its proper bevel with great accuracy and facility. Every person who has had experience in grinding the sections of mowing machines, will appreciate the value of such a device. The grinder is manufactured by Richardson & Co., Auburn, N. Y. ; and has met with excellent favor wherever it has been introduced. How to Pitch Sheaves. There are numerous little considerations which a pitcher must understand perfectly if he would pitch sheaves easily and expeditiously. In the first place, he should have a fork and tines much straighter than for pitching hay or straw. A fork with crooked tines, and spread wide apart, is a disagreeable tool to pitch with, THE WHEAT CTJLTURIST. 381 as the tines stick in the sheaf, and require more of an effort to withdraw them than if they were straighter, or not so much curved. Another thing is, always thrust the fork into the sheaf astride of the band, unless the band be loose, and near one end of the sheaf. Beginners should be in- structed how to take np a sheaf with a fork, and how to give it a skilful turn while it is on the fork, so that it will land in the most desirable position. An active boy of only ordinary strength, if he have skill, will pitch sheaves more satisfactorily than a strong, but awkward man. In order to pitch off a load of sheaves easily, the pitcher shonld take them np in the reversed order in which they were laid down, as the sides frequently over- lap each other. These suggestions, it is hoped, will be sufficient to enable beginners to aim to perform the task of pitching with a good degree of skill. How to Load Sheaves of Wheat. When building a load of sheaves on a wagon or cart, there are several points to be kept in mind by the load- er ; among which are — carrying up the sides uniformly, so that the load will ride safely to the barn or stack, and placing the sheaves in such a manner that the load may be pitched off with facility, carrying all the loose grain with the sheaves. Loading sheaves, so as to save even only a quart or more of the best of wheat at every load. is an item of importance, when the grain is worth three dollars or more per bushel. The first sheaves, when making a load, should not be thrown hap-hazard into the rigging, unless the bottom and sides are grain-tight. 382 THE WHEAT CULTURIST. But let the loader take each sheaf as it is pitched and place a course of sheaves across one end of the rigging. Then lay the tops of another course of sheaves on the ears of the preceding bundles. If the sheaves be placed in this manner they will catch all the loose grain that may be shelled out of the other sheaves. One or two courses more will be sufficient to fill the rigging. This rigging, or box, or " shelving," on which the sheaves are carted or hauled, should not be filled flush with the out- side before the first course of sheaves is laid in the desired place. If the middle be filled even with the outside shelving, the sheaves will be apt to slide off the sides before they can be secured by a middle course. After the middle is filled, lay a large sheaf on each cor- ner first. The object of placing a large sheaf on the corner is to keep the corners a trifle the highest. If the corners be carried up true there will be no difficulty in putting a load on square. A mason, when building a brick house, always car- ries up his corners first, as the corners are a sure guide. A loader must do the same thing. Let the but ends of the sheaves be laid beyond the shelving, nearly to the bands which encircle them. Place the sheaves as close- ly together as they can be conveniently pressed. If the ground be rough, so that the sheaves are liable to be jostled out of place, lay the binding course of sheaves in the middle. When loading the binding or middle course of sheaves, place the tops of every alternate sheaf in the opposite direction. Select the smallest sheaves for the middle, so as to keep the outside of the load a trifle the highest. When the middle appears too full, let two courses of sheaves be laid around the outside, and onlv one course in the middle, as fast as the outside THE WHEAT CULTTJRIST. 383 courses are laid. It is always better to lay the middle course of sheaves across the load, instead of lengthwise, because, when laid crosswise, they keep the outside courses from working outward. If a load be made un- usually wide, and the middle sheaves be placed length- wise of the wagon, upon passing over a rough or uneven way, the sheaves will slip and slide about, and half of them will fall to the ground, when not a sheaf would have moved out of its place, had the middle course been laid crosswise. When the sheaves are short, the butts must not be laid so far beyond the shelving as when they are long. The load should be so wide that the binding course of sheaves will extend almost to the bands of the sheaves of the outside courses. In order to load sheaves well, the loader should move on his hands and knees, and place the sheaves as close together as practicable. Another very important consideration is, to have every sheaf pitched clear from the butts of the last course of sheaves, and placed on the top of the load, as no man can make a load with true sides, when the per- son who pitches thrusts his fork against the last course, so as to displace the sheaves. When a mason's hod-carrier, through lack of skill, or from heedlessness, knocks the bricks or stones out of place, after they have been laid in the wall, he hears from the " boss " in emphatic language ; and he seldom repeats the careless offence. A man or boy who is load- ing sheaves on a wagon should watch his work as close- ly as a mason observes the courses of the wall which he may be building. If the foregoing directions are ob- served, a loader will find no difficulty in building a load that will not tumble off the wagon. 384 THE WHEAT CULTURIS,T. How to Mow Sheaves of Wheat. There are two modes in vogue of mowing away sheaves of wheat, colloquially called the "Yankee mode" and the "Dutch fashion." When sheaves are mowed according to the Yankee mode, a course of bundles is laid around the outside of the mow, with the butts out- ward. Then another course of sheaves is laid inside of this first course, with about half the length of the sheaves lapping on the course beneath. The old way is to lap the butts of the second course on the first course of sheaves, and thus continue to work round and round until one course laid in the middle covers the surface of the mow. In some instances the tops of the sheaves are lapped on the first course, instead of the butts. Those who practise this manner of mowing their grain aver that when the butts are placed outward, rats and red squirrels find it more difficult to work into the mid- dle of the mow than when the sheaves are not mowed in the foregoing manner. But experience proves that if such animals have access to a mow of grain, they will destroy as much grain when one style of mowing is prac- tised as another. When a barn is not entirely rat-proof, or when a stack is not placed on a platform beyond the reach of rats, it is folly to think of mowing such ma- rauders out of the middle of a stack or mow. The Dutch manner of mowing is to lay courses of sheaves back and forth entirely across the mow, letting the tops of each course overlap about half of the sheaves of the preceding course. This manner of mowing sheaves is decidedly preferable to the practice cf laying the courses round and round, until one sheaf will finish in the middle of the mow. This Dutch system has every- THE WHEAT CULTURIST. 385 thing to recommend its adoption over the Yankee mode, as a much larger number of sheaves can be mowed in a given space, and they can also be mowed more conve- niently ; and when the sheaves are removed from the mow they can be taken up more readily than when they are mowed in the style just alluded to. Another consideration of no little importance is to work always, except the bottom course, from the back side of the mow to the front. In practice this will be seen to be more convenient than to work from the front to the back side of the mow. It may seem trivial to expatiate on such minor topics. But laborers who are always seeking the easiest and most expeditious way to perform every laborious opera- tion, appreciate such little details in giving directions for saving labor. When a mow is first commenced, however, the first course should be laid on the front side of the mow, instead of the back side. The object is to save all the loose grain. If the mower begins his work on the further side of the barn, or bay, all the loose grain that falls from the sheaves, both when mowing the bun- dles and When pitching them off the mow, will fall to the floor. But if sheaves be mowed as directed, and be taken up, when they are pitched off, without turning them over, the loose grain will all be carried along with the sheaves, instead of being left, perhaps, where it can- not easily be collected. Every observing farmer will perceive all the advantages which have been stated, and some others also, by working from the back side of the mow to the front side, after the bottom has been cov- ered with one course of sheaves. One suggestion further, which few persons ever think of, is this : The mow, for example, is forty feet long. 17 386 THE WHEAT CULTURIST. The sheaves are pitched on one side, near the middle. It will be easier for both the mower and the man who pitches the sheaves to the mower, if he will work from each end toward the middle of the mow, instead of mow- ing from the middle to the end of the course of sheaves. The advantages will be perceived as soon as these direc- tions are observed. The mower should always work toward the pitcher. The man who pitches can make very hard work for a mower by throwing the sheaves wrong end first ; or he can facilitate the labor of mow- ing, simply by the exercise of a little skill in turning the bundles as he pitches them, so that every one will fall directly before the mower, with the heads where they should be. In order to mow sheaves neatly, and thus be able to get as much, grain as possible into a given space, the mower should move on his hands and knees, placing the sheaves as closely together as they can be crowded. Sometimes sheaves can be kept closer to each other by placing a sheaf say ten inches distant from the one be- neath the knees of the mower, and then by crowding another bundle between two sheaves and placing the knees on it. By adopting this method a much larger amount of grain can be mowed in a given space than if the sheaves be put in the mow in a perfunctory man- ner. When barn room is scarce, it is important to know how to make a limited amount of space subserve a given purpose. The Cayuga-Chief Reaper. The Cayuga-Chief represented by the cut is a com- bined two-wheeled machine. It can be changed in a few moments from a mower to a reaper. The cutter- 388 THE WHEAT CULTTJRIST. bar can be set to cut any desired height. The platform and cutters can be adjusted to any angle desired, for the more perfect cutting and easy delivery of lodged as well as standing grain. The raker's seat is comfortably and conveniently lo- cated, and can be adjusted so as to enable the operator to sit in any position he may desire. Many farmers, when using this machine, drive the team and handle the rake at the same time. The grain is delivered at the side of the swath, giving abundant room for the team and machine between the gavels and the standing grain. The reel is overhung and driven so as to operate properly at all times. As a harvester, the drive-wheels have a bearing surface of sixteen inches ; and the weight is so distributed that the machine will operate success- fully on very soft ground. When mowing or reaping, this machine turns as easily as a cart, cutting square corners without any backing of the team, being sup- ported on its own wheels, and balanced independently of the tongue. The raker's seat and platform preserve their proper relations to each other, and the injurious and annoying vibrations experienced in machines balanced by the tongue are prevented. The best evidence of the success and popularity of this machine is found in the fact that upwards of twenty thousand are now in use throughout the United States. The Cayuga Chief Manufacturing Company at Au- burn, Xew York, manufacture two sizes of this machine as combined hand and self rake reapers and mowers, and a smaller size. Mr. C. Wheeler, Jr., the president of the company, a practical farmer and mechanic, is the inventor of the THE WHEAT CULTURIST. 389 machine ; and lie makes it his sole business to study and experiment for the " Chief," and keep it fully up in all respects with the improvements of the times. I am assured by this company, that they are taking especial pains in the selection of material for their machines, so that farmers have the assurance that the Caynga Chief machines will be unsurpassed for strength of material, workmanship, perfection of finish, and durability. They say, that they intend that the " Cayuga Chief" shall, hereafter, excel all others in mechanism and excellent 7naterial, as it has heretofore done in its combinations of valuable principles. I can say from personal knowledge of the Cayuga Chief for several years, that I can confidently recommend it to farmers who desire a good mower and reaper. Mr. Wheeler has expended a fortune in bringing the "Chief" to its present state of perfection ; and the brain-labor expend- ed, from first to last, in originating, improving, and perfecting the various parts, is truly wonderful to con- template. Stacking Sheaves of Wheat. It requires the combined knowledge of an intelligent practical farmer, a natural philosopher, and the con- structive skill of an architect to build a good stack. The chief object to be kept in view is, to place the sheaves so that the straws will conduct the water off the stack. Let me illustrate the idea more plainly : Let a shed be covered with rails, or poles, laidjiorizontally, as a roof ; and, when it rains, all the water will pass down between them ; but elevate one end of the same poles to an angle of forty-five degrees, and they will convey nearly all the rain that falls on them, to the lower end* 390 THE WHEAT CULTTJRIST. Straws of wheat represent poles. When the sheaves lie horizontally, the rain will pass readily down between the straws. But elevate one end of the sheaf to the above-mentioned angle, and the straws on the upper side will carry off nearly all the water. Very little of it will find its way into the sheaf. Water always flows down hill. The Foundation of Stacks. The first thing in building a stack is, a suitable foun- dation to keep the dampness from injuring the grain. When rails or poles can be obtained conveniently, they will subserve an excellent purpose. A good foundation may be readily made of plank, by placing four planks on their edges, with other planks or boards resting on these for the stack. A stack should always be so high from the ground that dogs and cats can go under them. This will give a circulation of air under the stack, and the cats a chance to keep it free from mice, rats, gophers, etc. At any rate there must be a foundation of wood sufficient to keep the grain from acquiring moisture from the earth. This clone, it is always a good practice to make a round stack about a pole set firmly in the ground. This will keep it erect when it is settling. When mak- ing a round stack, where there is no pole in the middle, it will always be found advantageous to stick a fork at the middle, keeping it there as the stack is carried up. Then a stacker can always judge whether he is carrying up the sides true. How to Place the Sheaves. In building a stack of any kind, there are two points of great importance to be observed. The first is tc THE WHEAT CULTURIST. 391 carry up a stack true ; and the next is to place the sheaves or material in the best position to carry off the rain. Always begin in the middle to lay the first course of sheaves. Set a centre pole firmly in the ground, and brace it securely on four sides. The braces will not interfere with the stacking. Now set up sheaves around the centre pole, letting them all lean toward the cen- tre. Place a pole against the centre pole, and carry the other end entirely around the outside of the stack- bottom, in order to have the last course of sheaves on every side of the pole at a uniform distance from the centre pole. When the bottom course of sheaves is laid, lay an- other course on the outer side ; and if the circumference seems too low, lay two courses of sheaves, one above the other, and tread them down firmly. Now lay another course on the inside of the first one, letting the butts lap on the tops of the outside course, almost to the bands. The butts should never extend beyond the bands. Keep the stack nearly level, until it is carried up to the top of the bilge. The middle should be kept full, and a few inches higher than the outside ; and the sheaves should be well trod down. If the middle be kept much higher than the outside, before the stack is built as high as the bilge, the outside course of sheaves will continue to work outward, and the stack will spread faster than it is desired to have it. The outside course of sheaves should be placed as close together as they can be, to prevent large holes in the outside, where rain will find its way into the sheaves be- neath. To prevent the sheaves slipping outward, ele- vate the top end of every bundle when placing it, aa the stacker is represented as doing, in the figure ; and 392 THE WHEAT CULTURIST. thrust the butts on the underside into the course below it. When they are simply laid down without this secu- rity, the courses are very liable to slide off. This is one 'ti^§* : w,c :::■■■ Fig. 67.— Stacking Wheat. of the manipulations in stacking that but comparatively few understand. I have seen half a wagon-load of sheaves slide at once from the side of a stack built by a man who was ignorant of this part of stacking. As the straw of barley and cornstalks is very slippery, it is THE WHEAT CUXTURIST. 393 difficult to keep the courses from sliding, unless the butts of every sheaf are secured in this way. To Prevent a Stack from Leaning. A common and effectual way is to build a stack around a tree. Then it must settle evenly ; and main- tain an erect position. Another way worthy of adop- tion is, to set a stiff pole in the ground ; and brace it firmly, on four sides, as previously alluded to. This will be as effectual as a tree. If the pole be set two feet in the ground, and the soil be well rammed around it ; and braces four feet long be nailed to the pole at the upper ends ; and if the lower ends be secured at the surface of the ground by a flat stake, a hurricane would not dis- turb a stack. When a long stack is made, two or three such poles should be set up. It requires but a little re- sistance to keep a stack erect. But, after a stack has settled over, it is no easy job to put it back to an erect position. Bracing stacks, after they begin to lean, is often re- sorted to, by thrusting rails, or poles, against one side. This practice, however, is not to be commended, as poles thrust beneath the bilge of a stack, will often turn up the courses of the sheaves, so that the straws will slant toward the middle of the stack, in which position they will convey the rain inward, instead of conducting it off the stack. Another mode of maintaining the erect position of a stack is, to brace one side, with a plank and pole, or with two planks, as represented by the braces shown in Fig. 68. The upright plank should stand in a perpendicular position, so that the side of the stack may settle down 17* dy4 THE WHEAT CULTURIST. without leaning from its erect position. The brace should be secured in its place by nailing a cleat above the upper end across the upright plank, as represented by the illus- tration, Fig. 68 ; and by driving a broad stake at the lower end of the brace. If one such brace be not suffi- cient, a half dozen may be placed on one side of a stack. Then, after the stack is done settling, the braces may be removed. But if the ends of braces be thrust against a stack, they cannot be taken away at pleasure. Furthermore, when tall stacks are in danger of being blown over by a high wind, this manner of bracing them will be found more convenient and efficient than any other mode. What Causes a Stack to Lean. When a wheat-stack has been built as true as the form of an egg, it will sometimes settle sideways so far as to fall over unless braces are applied in time. This fact is a mystery to most persons : and they often ejaculate, inquiringly, " What does make it lean f " The prime cause must always be attributed to im- perfect workmanship when building a stack. I will mention certain things that cause a stack to lean. When all the grain is pitched on the stack at one side, the heft of the sheaves and the tread of the man who pitches them to the stacker, keeps that side pressed down more compactly than the stack is on the opposite side. Of course the side that is trod down the most will settle least. The settling of the opposite side, more than the side on which the pitcher stood, causes the stack to lean. Another cause of leaning is, the sheaves are laid out THE WHEAT CULTURIST. 395 farther on one side than they are on the opposite side. There being nothing to support the overhanging bilge, that side of the stack settles much more than the other. The consequence is, that the courses of sheaves on one side of the stack will be turned up, at the butts, to such an angle, that the rain will be conducted to- ward the middle of the stack instead of running off the outside. It is eminently important, that the straws on the outside courses of the stack, should always be so inclined downward, that they will conduct the rain out- ward, from straw to straw, until the water will all flow off the bilo-e of the stack. How to Top Off a Stack. If the stack is being built of sheaves, the middle must be kept so full that there will be a good inclination of the straw in the butts of the bundles. This is always a much better guide than to attempt to keep the mid- dle of the stack at a certain height above the outside. The stacker should move on his knees, as already stated on a previous page ; and, in order to keep the sheaves close together as they can be conveniently, he should lay each sheaf partly on the side of the one last laid ; and as it is pressed down with the knees, hold it from slipping with both hands. By this means a much larger number of bundles may be secured in a smaller compass than otherwise. If the straws only have a suitable in- clination to carry the water outward, instead of toward the middle of the stack, rain will injure but a small portion of either straw or grain. If one side of a stack should be lower than the other, it may usually be car- ried up even, by using the large sheaves for the lower, 396 THE WHEAT CULTURIST. and the smaller ones for the higher side. This onesided- ness should be guarded against before the stack has become onesided. The straightest and handsomest bun- dles should be placed in the outside course, for the purpose of keeping the stack of the correct shape, as well as carrying off the rain better, than tangled bun- dles, which should form the inside courses, whenever there is any difference in the sheaves. If it is necessary to have a man or boy stand on the stack to pitch the Fig. CS. — A Stack Braced, to Prevent Leaning. sheaves to the stacker, he should alwavs remain as near the middle as practicable, and not travel about so as to displace the sheaves, after the stacker has left them. Keep the middle full, the form circular, and draw the courses in gradually. When the stack is not built around a pole, sharpen a small rail or scantling, and set it erect at the centre, by thrusting it in, two or three feet, so that it will stand while the top is built around it. As the area of the top of the stack diminishes, con- THE WHEAT CULTURIST. 397 tin ne to place the sheaves more erect, nntil the straws the last course incline at an angle of abont forty-five degrees. Bind the tops of these securely to the pole. Then make a large bundle of long rye straw, wet it thoroughly, so that it will keep in place better ; and hav- ing bound it with one band, at about one- third the dis- tance from the top to the butts, slip it down over the top of the stake, and bind the top with several bands, as represented in the illustration. Spread out the butts evenly, and rake them down straight. A stack made according to the foregoing directions will turn heavy showers almost as well as a shingle roof, and the water will all fall clear of the bottom of the stack Further Suggestions about Stacking. A writer in the " Wisconsin Farmer " recorded the following suggestions about building stacks : " In the Eastern and Middle States very little grain, or even hay, is stacked out. In those regions, it is re- garded as shiftless for a farmer not to have barn-room enough to cover all his crops. The sentiment probably grew, in part, out of the old method of thrashing all the grain out by the nail, which required a barn-floor and high guards on either side, to keep the grain from flying over and wasting ; and partly from the small cost of barns in early times. "But most of our farmers are from the East, and never learned to build a stack, to do which, or to make an axe helve, requires either a man of genius, or a good deal of training. But the less a man knows about either, the more apt he is to think he can do it first rate ; and the consequence is, that large quantities of grain are 398 TITE WHEAT CULTURIST. spoiled every year by bad stacking, especially of wheat. A farmer should never attempt to stack his own grain unless he is sure he knows how ; and he can never be sure of that until he has a vivid recollection of the time when he did not know how. In Great Britain it has long been the custom to secure grain in stacks ; and they have brought the art to a great deal of perfection ; and every farmer who has not learned the art himself, should secure the services of some English, Welsh, or Scotch farmer to do that job for him until he has thoroughly acquired the art himself. u A man may understand something about the theory of stacking without being an adept in the business. Building a stack correctly can only be acquired by prac- tice under the eye of a competent instructor. But the theory is useful, if for nothing but to enable the farmer to know when he has found a competent practical man. This theory, as w T e have seen it practised by English- men, is substantially as follows : " Topping Out a Stack. "When laying sheaves above the bilge of a stack, the same writer says, commence in the centre by setting up sheaves as for a round shock, adding course upon course, setting the butts of each succeeding course a little more out, so as to have the outside course at about the angle of a quarter-pitch roof, being care- ful to force the butts down on the next course so they will not slip and flatten down as weight is added. Let this last or outside course, in working from the centre, serve as the first course in the layer which you make back to the centre, laying the butts of the next THE WHEAT CULTURTST. 399 course about even with the bands of the course un- der it, and thrusting the butts of each bundle, as you lay it, into the bundle under it, to prevent its slipping outward by pressure. Go round with a single course, keeping your work before you and pressing down the bundles with your knees. Then lay another course in the same manner, lapping at the same place, and so on till you get to the centre. Then commence again at the outside, leaving the butts of the first course even with those of the lower course, or projecting a little over, being careful as before to catch the butts of the new course into the lower one, and work inward as before. The outside should be as little pressed as convenient, in building, and the inside packed as close as possible, so that the pitch of the bundles outward will be in- creased rather than diminished as the stack settles. If the heads of the bundles do not keep up the pitch of the sheaves equal to that of an ordinary roof, when above the bilge of the stack, put in extra sheaves, in any way which will keep the surface regular in form. " The butts of each outside course should project a little over the course below it until you are ready to draw in, so that the stack, when done, will have the shape of a hen's e^sr, a little flattened at the large end. A little marsh hay makes a good cap, which should be secured against the winds by ropes made of the same, placed over the top and held by weights at the sides. When you see a man build a stack in this way, you may know he understands his business ; but do not imagine you can do it yourself at the first or second trial." I have given these rather tautological directions, in the stacker's own language, that beginners may understand them the better. 400 THE WHEAT CTTLTUPJST. Dodge's Ohio and Buckeye Reaper and SELF- RAKER. • v- The beautiful illustration on this page represents an excellent combined mower and reaper, made by Dodge & Stevenson Manufacturing Company, Au- THE WHEAT CTTLTTTRIST. 401 burn, New York. This machine is a neat mower, and can be rigged for harvesting in a few minutes. Large numbers of this style of mowers and reapers have been manufactured ; and wherever they were introduced, farmers have been well satisfied with their operations. The workmanship is of a superior charac- ter ; the draft is light ; material is good and durable ; and the machine is well adapted to all kinds of work. The self-raker consists of four independent rakes, so constructed as to allow all of them to be in use for reel- ing on the grain, or, by a slight movement of the hand or foot, causing either rake to rake off the cut grain, in any sized gavels required. Warner's Sulky Rake. This wooden rake combines all the advantages of both the Sulky and Old Revolving Rakes. By means Sulky Rake. of the lever with its cams and stops, the driver has more perfect control over the rake than can possibly be had over the old-fashioned revolver. It does not dust the hay as wire teeth usually do ; is easily handled by a boy ; and the inclination of the teeth is easily regu- lated, so as to pass over any obstacle, or dip into a 402 THE WHEAT CULTURIST. swale. The draw-bars are jointed, so that the rake can be folded up, upon the sulky, and thus be easily trans- ported. This rake is made by H. K Tracy, Essex Junc- tion, Vermont ; by Blymyer, Day & Co., Mansfield, Ohio ; and Blymyer, ^Norton & Co., Cincinnati, Ohio. Alden's Wheel Rake. The illustration herewith given (Fig. 71), represents an excellent spring-tooth nice, which T can recommend Fig. 71.— Alden's Wheel Rake. as being a valuable, labor-saving implement. The cut furnishes such a correct idea of it, that I shall give no THE WHEAT CULTURIST. 403 description of it. M. Alden & Co., Auburn, New York, are the only manufacturers that I know of. The Buckeye Mower and Reaper. The illustration accompanying these notes represents the celebrated Buckeye Harvester with the self-raker 404 THE WHEAT CULTURIST. attachment, which is very light, simple, and compact, its weight being no greater than that of an ordinary hand-rake attachment. It does not interfere in the slightest degree with the simplicity of the machine as a mower, and is very readily and easily attached and de- tached. The following is the description of the Self- Raker given in the official report of the great Auburn trial, when the Buckeye won such world-wide fame : "A disk with four joints carries four rakes or sweeps with rollers at right angles, which work in inclined ways, with a switch, which makes them act as beaters or rakes at pleasure. The rake-teeth drop clown nearly to a level with the guards to catch lodged grain, and pass over a rake-guard, to prevent the teeth from springing down on the guards in rough ground, the rake rising quickly afterward. The inclined ways are adjustable, to give different motions to the rake. The ability which this arrangement gives to the machine, to cut long or short grain with equal facility, without making tedious adjustments, constitutes its greatest merit. It will deliver the gavels in regular intervals of space when the grain stands equal in height and thickness, or the rakes may be regulated by the hand or foot of the driver so as to deliver any size of gavels that may be desired, or by fastening the switch open, it will deliver the grain in swath. It has cleaners hinged so as to brush back the grain which collects on the dividers while acting as reels, leaving it in good shape for the rake to deliver." The "Buckeye" is still manufactured by Adriance, Piatt & Co., 165 Greenwich street, New York city ; and the best thing I can record for this reaper and self- raker is to mention the fact that, after having been put THE WHEAT CULTURIST. 405 to the most severe tests in mowing and harvesting heavy and tangled grass and grain, it was driven into a field of heavy rye, which was seven feet high, and every part, self-rake and all, worked as beautifully as a lawn mower. The " Buckeye" needs no words of commend- ation from my pen. American farmers are familiar with its worthy record. Fig. 73. — The Montgomery- Fork. The Montgomery Fork. I give an illustration of this celebrated fork, made by the Montgomery Fork Company, 254 Pearl street, New York city, because it is just such a fork as farmers will find to please them. The illustration shows how the tines are secured to the handle. Some of the merits of this fork are these : In case a tine breaks, an- other can be replaced instantly at a trifling cost, and without loss of time. In repairing one tine of a common fork, the other tine is invariably spoiled, rendering the fork good for nothing. Should the handle break, the tines can be refitted to another handle in a few minutes. The handle is not tapered at the end near the fork ; but, the whole strength of the wood is left ; and when the ferrule is in its place it binds the whole together, as if one solid substance. The process of manufacture gives a more uniform texture of steel than can be produced by any other method. The weight is no more than the common fork. The tines are warranted not to work loose. This fork took the first premium at the New York State Fair at Buffalo, 1867. 400 THE WHEAT CULTUKIST. CHAPTER V. Mildew m Wheat. There have been volumes penned about mildew in wheat, and other plants ; but I am sorry to be obliged Fig. 74. — Mildew in Wheat. to record that, after all that has been said, we know very little about it. In order to give wheat-growers something of an idea of mildew, I herewith furnish an THE WHEAT CULTURIST. 407 illustration (Fig. 74), which represents the mildew of wheat, greatly magnified. To the naked eye these beau- tiful fungi seem more like the minute particles of dust on a miller's hat, than anything else. To the practical wheat grower the great question is : What is mildew? what causes it? and, what is the remedy f I answer in brief: Mildew is a disease of the grow- ing wheat. The plants are covered with a white sub- stance, which is made up of minute fungi, which ap- pear in spots on the straw. These parasites, repre- sented by Fig. 74, are minute plants, growing on the wheat plant, and extracting the juices that should be appropriated to the development of the grain. After reading scores of pages about mildew, in which various plausible theories are broached by one author, and the same theories controverted by an- other author of equally reliable authority, I have to again ac- knowledge that we- know little about the cause, or the remedy. By referring again to Fig. 74, it may be seen, that the ends of the delicate creeping threads bear spores, or sporules, which fall off, an I fly like dust, in the air. Some- times these spores form quite a little cloud. Strange as it may appear, these intinitesimally small parti- cles of dust are seeds, so to speak, from which millions Fig. 75. — Rust magnified. 408 THE WHEAT CULTURIST. of plants spring. The spores are borne along in the wind, among the growing wheat; and wherever the straw is not perfectly healthy, and able to resist the attacks of such parasitic fungus, the seeds adhere to the diseased leaves and stems, germinate, grow, and tend to destroy the crop. There are many kinds of mildew and rust, which originate from spores. Fig. 75 represents a magni- fied view of a small portion of what is scientifically called uredo rubigo vera, in which the spores are repre- sented with a sort of basket-work extending from one to another. Smut in Wheat. The illustration herewith given (Fig. 76) represents a' magnified view of what is scientifically known as uredo caries, which is common to wheat ; and seldom«attacks any other cereal plant. The dark-colored excrescences rep- resent the spores or seeds of the uredo caries. Unlike other maladies, this one takes its ori- gin in the interior juices of the wheat plant ; and affects the kernels, instead of the straw. The pericarp of the kernels of wheat contains a black mate- Fio.m-smut magnified. ^ greaS y to the touch, in- stead of flour. The dust of caries, unlike that of smut, emits an unpleasant odor; and the nauseous smell is sometimes perceived in wheat bread. The semeniform grains of the caries (Fig. 76) attach them- THE WHEAT CULTURIST. 409 selves to the minute hairs that are usually seen with the naked eye on kernels of wheat. Machinery will sel- dom remove these spores. Therefore, their removal must be effected by soaking the grain, and applying some chemical substance, that will decompose the spor- ules, without injuring the germs of the kernels of wheat. Those spores adhering to the sound grains at the time of sowing, remain in that state, till the young plant starts its growth, when they are supposed to enter the spongioles of the roots of the young plant ; and, with the ascending sap, are propelled through the tissues of the plant, till they reach the young ovum, where they find a suitable place for vegetation, rendering fecunda- tion impossible. Yet the grains continue to swell ; and when harvest comes, they are perhaps larger than the healthy ones ; and curiously enough, the stigmata of the flowers are not destroyed. • Pickling Seed Wheat. In this important operation the science of chemistry affords the practical wheat-grower important aid. We have seen, on the two preceding pages, how smut or " bunt " is propagated. The object now is to destroy it. The basis of all pickling or dressing consists in converting the greasy, oily sporules which adhere to the sound grains into a soap, which facilitates their removal. Sulphate of copper (blue vitriol) is sometimes em- ployed for pickling wheat, in the. following manner : Four pounds of the vitriol should be dissolved in about two gallons of boiling water ; and when fully dissolved, placed in a large tub — an old hogshead cut through the middle answers the purpose very well ; and add about 18 4:10 THE WHEAT CULTURIST. twenty gallons of cold water. Procure a wicker basket, of suitable shape to go into the tub, large and strong enough to hold a bushel and a half of wheat. Place the basket in the liquid, and gently pour into it the wheat. By adopting this precaution, the light and imperfect grains, chaff, or small seed will float at the top ; and may be skimmed off the surface. Having proceeded thus far, lift the basket, and allow it to drain over the tub. Empty the same, and proceed with the next lot. While the seed is soaking, let it be stirred with a stick, for a few minutes. "By this means, all the light and imperfect kernels may be worked to the surface, and skimmed off the surface of the water. For each four or five bushels of wheat, dissolve one pound^f blue vitriol in water sufficient to cover and properly soak the wheat. Some farmers say, let it remain in this soak twenty to twenty-four hours, and sow immediately after taken out of the soak. But there is great danger of soaking the seed too long. It requires but a short time to destroy the sporules of smut. So soon as the spores are destroyed, the seed should be removed from the soak, or steep. The seed should not be kept in the liquid long enough to moisten the germs. The main point is to remove the material that adheres to the ex- terior of the kernels. Spread the wet seed on a floor, and sift lime, or gypsum, or ashes over the surface ; and rake it in. This will render the seed dry, so that it can be sowed, or drilled in, without difficulty. A North Carolina farmer says, that the best prevent- ive of smut is, to make a brine strong enough to bear an egg ; pour this as hot as the hand can bear into a half-barrel tub ; put in half a bushel of the wheat you are about to sow ; stir it up well in the tub ; let it set- THE WHEAT CULTURIST. 411 tie two or three minutes ; skim off all the light grain and chaff that rises to the top ; stir it up again ; repeat skimming ; then ponr off the brine, which can be warmed again, and used for another lot of wheat. Now spread the wheat on clean boards or a cloth in the sun, or on the barn floor, or any convenient place. Take slacked lime and sift enough over the brined wheat to cover it well ; and as soon as dry, put it into a bag or basket for sowing. Some farmers damp the wheat in a heap on the floor, and mix up two or three quarts of lime with it, and then spread it out upon boards. If in the sun, it will dry in half an hour ; if in the shade, it sometimes takes two or three hours. But, let no man suppose that his crop will be safe from smut, unless he has first secured a hardy variety of wheat, as laid down in another part of this book. Various preparations of vitriol, nitre, sulphur, and arsenic have been tried, in some instances, with considerable benefit. Our agricul- tural papers and books are full of directions for the treatment of seed wheat. But let the reader beware of puerile experiments with his seed, such as he will find recorded on page 318. Experiments with Smut in Wheat. For the purpose of determining the influence of smut on sown grain, Mr. Bailey, of Chellingham, tried experi- ments on seed in which were a few balls of smut. One third of the seed was steeped in urine, and limed ; one third steeped in urine, dried, and not limed ; and the othei third sown without steeping or liming. The result was, that the seed which had been pickled and limed, and that which was pickled and not limed, was almost free 412 THE WHEAT CTTLTUEIST. of smut, while that which was sown without under- going this process was much diseased. The following experiments were made at Lord Chesterfield's farm of Bradly Hall, in Derbyshire : The first was on a peck of very smutty wheat, one-half which was sown in the state it was bought, and the other washed in three waters, steeped two hours in brine strong enough to float an egg, and then limed. The result was, that two- thirds of the wheat grown from the unwashed seed was smutty, while that produced by the steeped and limed seed had not a single ear of smut. The second experi- ment was made upon some very fine wheat, perfectly free from smut. A quart of this was washed in three waters, to make it perfectly clean ; it was then put for two days into a bag in which was some black dust of smutty grain ; and the result was, that a large portion of wheat thus sown was smutty, while out of twenty acres sown with the same grain, not inoculated, not one smutty ear was found. Mr. Taylor, Jr., of Ditching- ham, near Bungary, rubbed a number of ears of wheat with the powder of smut, having moistened them to make the powder adhere ; one-half of these were washed, wetted with chamber lye, and limed. A similar quan- tity of dry wheat was then procured, the whole being dibbled, each parcel by itself. The produce of the in- fected wheat was three-fourths smut ; the same infected wheat, steeped and limed, was perfectly sound. The contagious smut-powder adheres to sacks and barns with which it has been in contact ; it attaches itself to the straw and chaif, and is thus probably in many instances carried from the barn and stable doors, when the dung is taken green to the fields, without being properly turned and fermented. The infection may indeed be THE WHEAT CULTURIST. 413 carried by the wind from other fields, and in various ways which cannot be guarded against. But no per- son, who is duly sensible that the disease may be checked, if not wholly eradicated, by careful attention, should hesitate to employ all those means of preven- tion which may be in his power. The barn in which wheat has been either stored or thrashed, should therefore be thoroughly aired, and every corner swept ; if also the walls of the interior were well washed with strong lime-water, the precaution would not be improper ; and sacks which have held the infected grain should be im- mersed in a similar solution." Ergoted Wheat. A writer representing the Botanical Society of Can- ada West, records the following suggestions concern- ing the ergot in wheat, in that province. But little is known of ergot in wheat in the States, except in certain localities. The writer says : " In addition to the various pests that have already been noticed as affecting the wheat crops this season, there is one in more than usual abundance, viz. : Ergot. This is a very remarkable fungus, Clavicejps purpurea, Fr., which swells up the grain into an enlarged, black, tough mass. If a field of wheat be examined, it will be seen that some of the ears have one or more large, black, horn-like processes projecting from among the grains. These are the ergoted grains. This disease is common in many parts of this province. " Ergot of wheat has similar properties to ergot of rye, but is by no means so common in Europe. On the American continent, however, it appears to be more 414 THE WHEAT CULTUKIST. abundant, and especially this season. The ergot now present in the wheat fields will, of course, damage the sample of grain by blackening, and render the flour to a certain extent unwholesome, if not separated. For- tunately, the ergoted grains being much larger in size than the uninfected ones, there is no great practical difficulty in separating them during the cleaning of the grain. The wheat ergot has no disagreeable taste, in fact no decided taste of any kind, only a slight flavor of mushrooms is perceptible, after chewing for some time. When we reflect on the energetic physiological action of ergot, it will be seen how important it is that the ergoted grains should be carefully cleaned out, not only to improve the sample, but to render the grain and flour wholesome. Bad grain is apt to be given to pigs and other domestic animals. Ergoted grain cannot be used with impunity in the preparation of food for either man or beast." Whatever may be the cause of ergoted wheat, the remedy is effectual and practicable, which is this : pro- cure hardy and prolific varieties of wheat ; save the seed from year to year as directed in this book ; culti- tivate thoroughly on rich ground ; and put the seed through a pickle, as directed on preceding page*. If a man sows the wind he reaps the whirlwind. If he sows smutty or ergoted wheat, the product will be smut and ergot, just as certainly as he will be able to raise good grain when superior seed is employed. Rust in Wheat — the Remedy. Without occupying space in attempting to tell what rust is, and how it is produced, I shall endeavor to point THE WHEAT CULTURIST. 415 out the remedy for it. The reader can find all the theories about rust that he will care to read, in works on agriculture, where the remedies are not recorded. The forlorn farmer often rails at the climate, and cries out that his wheat is killed by rust, while in fact it has died from starvation — from the want of that food which, as a provident husbandman, it was his duty to have provided for it. Fig. 77. — Magnified section of Straw, showing Silica deposits. The illustration herewith given represents a small section of the thin pellicle, or skin, of the stems of grow- ing wheat, highly magnified, and showing the manner of depositing silica in the epidermis of the stalk. Silica is a substance that imparts stiffness to straw. The liquid silica is deposited all around the straw, similar to enclosing it with a thin glass tube. Silica is what ren- ders wheat straw so harsh and stiff. Now, then, the practical consideration is to sup- ply the roots of growing wheat, in large abundance, 416 THE WHEAT CULTURIST. with such materials as glassmakers use for making glass, which are sand and potash, or soda. The pot- ash can be obtained most economically by the appli- cation of wood ashes. By this means the growing stems will be enveloped in a glass-like covering, which will resist the attacks of rust and mildew. The more ashes, with a dressing of sand, that can be applied to wheat soil, the less liable the growing wheat will be to suffer injury from rust, mildew, or insects. Insect Enemies of Wheat. The principal insect enemies of wheat are the midge, the Hessian fly, -the chinch bug, and the weevil. As almost every agricultural paper and book contains de- scriptions and illustrations of the insects injurious to wheat, I shall pen but brief remarks about any of them. The main point will be to offer suggestions relative to an effectual preventive of the ravages of the wheat insects. Every successful wheat-grower will readily admit that one of the most effectual preventives of the ravages of wheat insects, is a rich soil thoroughly tilled. It in- variably happens that the crop is most seriously injured on lands that have been carelessly tilled, and have be- come impoverished by an exhausting course of cropping. The thin, puny plants on such soils, that are not entirely destroyed, are left still more enfeebled ; whereas, when the fly-time has passed, on the well-tilled fields, properly enriched, the wheat, in a great measure, recovers from the slight injury. I might pen a score of pages about the habits of wheat insects, and their mode of propa- gation and ravages ; but I will cut everything short by simply stating, that the correct way to avoid injury from THE WHEAT CULTUKIST. 417 wheat insects is, to commence with the seed first, as directed in the chapter on Seed Grain. Follow all the minute directions about cultivating and fertilizing the soil, so as to produce a luxuriant and healthy growth of both straw and grain ; sow the seed at the most pro- pitious period ; and the growth of the grain will be so healthful and rapid, that the insects will do but little damage. Read the remarks about The Best Time to Sow Wheat, on pages 260-269. Levi Bartlett, an experienced farmer of Warner, N". H., writes : " To avoid injury from the ravages of the midge, some farmers, when the season will permit, sow early, sometimes in the latter part of April. In favorable seasons the wheat gets into blossom before the fly makes its appearance, and thus the grain mostly escapes the midge and rust. Others prefer sowing their wheat late, say from the 20th of May till 1st of June, the midge having generally disappeared before the wheat comes into bloom. But late-sown wheat is more liable to suffer loss from rust, mildew, etc., than the early sown. From better manuring of the land, and more care in its preparation for the reception of the seeds, wheat-grow- ing is evidently upon the increase in this State ; though much of this increase is derived from the more extended culture of winter wheat within the past ten years. Winter wheat can be grown, yielding good crops, on low-lying farms, where it was useless to attempt the raising of spring wheat, for the reason that the winter wheat would, when sown early, and on suitable soil, get so far advanced in growth before the appearance of the midge fly, as to entirely escape its ravages, provided the soil is filled with grain-producing pabulum." 18* 418 the wheat cultukist. Habits of the Wheat Midge. This insect remains in the earth in its larva state, at least ten months in the year, and buries itself in the soil from half an inch to two inches in depth. This is true, at least in regard to the larger number of them. Others remain in the chaff of the wheat, and are conveyed to the grain-mow, or the stack. But there is no positive evidence that these ever become sufficiently vitalized to perpetuate their species, although, according to experi- ments made by Dr. Fitch, of Xew York, there is reason to believe that they do. Certain kinds of wheat are less liable to injury from the attacks of these insects than others. See page 47. Dr. Rathvon is of the opinion that the larvae of the wheat midges do not im- bibe the milky fluid of the young wheat grains ; but feed upon the epidermis or outer integument, and that the destruction or injury of this, is what causes the ulti- mate depletion of the grains. Mr. Rathvon is also satisfied that the wheat midge has not the power to puncture or penetrate the chaff of the wheat with its ovipositor, for the purpose of deposit- ing its eggs upon the grain ; nor do the larvae reach it through such a puncture. But the grain is reached through the separation, or opening of the valvules that enclose the grain, generally when it is in bloom. The largest number of the eggs of the insect are de- posited on the outside of the chaff, where they are either washed off by the heavy rains, or are burnt or dried up by the hot sun. But, in whatever way these insects may injure the growing wheat, the only effectual remedy has already been given, on pages 415 and 416. the wheat culturist. 419 Wheat Worms. In several States, numerous farmers have observed a kind of minute caterpillars on their growing wheat, such as are frequently seen on red clover. The editor of the " Western Rural " states that they are supposed to be identical with the clover worms, which may be seen spinning down from lofts on which clover has been stored. The caterpillars assume the form of chrysalids in September and October; and the perfect insect ap- pears in June, and deposits its eggs on the wheat, shortly after the ears have shot out. These worms are called by various names, in different localities. In some places they are spoken of as gray worms, and in other localities wheat worms. It is not probable that any of the eggs are attached to the ripened grain ; but in order to guard against danger from this source, and also to kill any of the insects that have not been separated from the grain by the fanning mill, the seed should be steeped in a strong brine, and afterward mixed with dry lime. By this treatment, insects and their eggs will be destroyed, and smut prevented. Chaff which con- tains large numbers of these caterpillars, should be burned. The true remedy, in addition to the foregoing sugges- tions, is, to fatten the soil, so as to make the wheat grow so luxuriantly, that the little which the insects consume will not be missed in the growth of the wheat. The Chlnch Bug. This pernicious insect is a very small bug, of a black color, with white wings. In some localities they are 420 THE WHEAT CULTUBIBT. called " Mormon lice." See Dr. A. Fitch on Insects, and Klippart's Wheat Plant. Dr. Sherman, of Waukegan, Illinois, after a patient series of microscopical observations, made a discovery which will surely interest wheat-growers who have been troubled by the chinch-bug pest. His investigations have shown that the seed wh.eat or kernel was used as a sort of "foster-mother" by the bug ; and that in all wheat grown upon land where there are bugs, there is deposited, in the fuzzy end of the kernel, a large quan- tity of eggs, which produce the bugs next season. It follows that, if the kernel of seed wheat is the general depository of the eggs of the chinch bug, our farmers have been sowing the pest each year, as regularly as they have their wheat ; and if such is the case, the erad- ication of the bug will be easily accomplished — either by sowing no wheat that has been in contact with the bug, or by steeping the seed in some solution before sowing, which will destroy the larva. If this remedy fails, when the seed has been selected for a few years, according to directions in Chapter III., the wheat crop must fall a prey to these devouring insects. It will be an interesting exercise to read all that may be said about the numerous insects injurious to growing wheat, in the books alluded to above. But, after all that can be said, the practical consideration is, What can be done to prevent or escape their ravages f I answer, for the third and last time, Save your seed vrith care / select varieties that are insect-proof, if pos- sible j sow the seed at the most auspicious period ; and fatten the soil with rich manure. Let wheat culture receive the same attention that breeders of choice ani- mals give to rearing improved stock. THE WHEAT CULTURIST. 421 Improved Thrashing Machines. The illustration shown on this page represents a iCi^-" new style of thrashing machine, made by Wheeler, Melick & Co., Albany, New York, for thrashing wheat 422 THE WHEAT CULTUKIST. and long rye without breaking, or tangling the straw. This thrasher is one of the most ingenious labor-saving machines that I know of. It is similar to a thrasher invented by Rev. N. Palmer, Hudson, Eew York, which operated with two long cylinders about five and a half feet long and fourteen inches in diameter, made to re- volve toward each other. The unthrashed grain is fed sideways into the machine, instead of lengthways. If some of the straws enter in a diagonal direction, they will be brought out straight. The straw is carried by the carrier beyond the rear end, where it is deposited in gavels of any desired size. When the machine is in operation, two active laborers will bind the straw as fast as the machine thrashes it. Straw thrashed with such a machine is much more valuable in market than if it had been thrashed with a machine that breaks it into short pieces ; and more than this, the bundles can be stored in a smaller space, and it is more convenient for being fed into a straw-cutter after being thrashed. This machine will thrash all kinds of cereal grain as fast as spiked machines ; and when the straw is long and heavy, I think it will thrash faster, .. with the same power, than the other thrashers which shell out the grain by means of spikes. Two horses will drive such a machine, when attached to a railway power, and do a fair business ; but a three-horse railway power will give the cylinders a furious velocity ; and an active man will be obliged to work lively in order to feed the machine to the capacity of the thrasher. The reason why such a machine will thrash long heavy straw more rapidly than a spiked thrasher, is, that a large proportion of the effective force of the team is absorbed in breaking the straw to pieces by means of THE WHEAT CTJLTTJRIST. 423 the spikes, while the corrugated cylinder works the long straw through the machine with the expenditure of little power. The National Fodder-cutter. The accompanying illustration of a fodder-cutter re- presents a machine of great superiority, made by J. Fig. 79. — Fodder-cutter. D. Burdick & Co., New Haven, Connecticut. These machines are made of several different sizes, to suit the requirements of small as well as large farmers. The small ones are worked by hand, and the large sizes can be driven by horse, or steam power. I consider a good fodder-cutter to be an implement that every successful wheat-grower needs. In order to raise wheat successfully from year to year, a farmer must keep neat cattle or sheep; and if he makes such 424 THE WHEAT CULTURIST. use of his wheat straw as will be necessary, in order to maintain the fertility of the land, he must cut his fod- der and make rich manure by feeding cattle, or sheep. In order, therefore, to be able to cut straw or any kind of fodder economically, one must have a first-rate machine. I know of no kind better adapted to the wants of common farmers than the National Cutter. Management of Wheat Gleanings. The grain that is, gleaned with horse rakes in wheat stubbles, after the crop has been harvested, should never be mingled with the other grain, as the gleaned grain is seldom fit for seed, and never suitable to be ground into flour for human food. When the scattered heads of grain are gathered witli the horse rakes, the teeth of the rakes will always tear up sods, grit, and small stones, much of which will be collected with the gleanings. Then, when this unthrashed grain is put through the thrashing-machine, small hard stones are liable, in many instances, to injure the machine more than the value of several bushels of gleaned grain. Gleaned wheat is only fit for cattle feed, because the heads have usually lain in the rain, dews, and sunshine, until the kernels have been swelled and shrunken and dusted over with grit which is dashed over the straw during showers of rain. This alternate wetting and drying of the grain injures the germ of every kernel. Therefore, if the grain be mingled with clean grain for seed, a loss must be sustained equal to the value of such grain. Such kernels will make meal for domestic animals ; but if employed for seed, they will not vegetate. When such grain is ground into flour, after having been mingled THE WHEAT CULTURIST. 425 with clean wheat of a bright color, a small quantity will injure the* excellence of the bread, by rendering the white flour dark-colored and the bread gritty. The truth is, that no one can make light white bread, such as an ambitious farmer would place on a table before his guests, when a portion of the flour is made of grain that has been gleaned. If such grain be ground into Graham flour, the bread made of the unbolted flour will be dark-colored, heavy, and gritty. The most skil- ful baker in the land cannot make excellent bread of any kind, nor pie-crust, nor o&ke, out of the flour of gleaned wheat that has been wet and dried. Most farmers contend that such grain will sell for just as much per bushel, if mingled with the crop — which is all true. But dealers ought to make a deduction in the price of every bushel of wheat, which has gleaned grain mingled with it. The large quantities of gleaned wheat that are gathered with horse rakes, in the wheat-growing districts of the country, is one prime cause of so much dark-colored flour and heavy, soggy, and clammy bread, of which the great mass of people have just cause to murmur. Farmers alone are the parties on whom the blame ought to rest. And farmers are the persons who should correct this world-wide evil, of which so much complaint is constantly made in relation to dark flour, heavy and gritty bread. Wheat gleanings should be kept entirely separate from the clean wheat, and thrashed separately, or be thrashed with other cereal grain that is to be employed for feeding domestic animals. Gleaned grain will make excellent chicken feed ; and if the gleanings be thrashed with oats, barley, or rye, which is to be ground for feed- ing stock, its value will not be lost. And although a 426 THE WHEAT CULTURIST. person may not realize quite so much money per bushel for his gleanings, when used up in this manner, as when the gleaned grain is sold with the crop, still, he would have the satisfaction of knowing that his wheat went to market in a merchantable condition, and that the flour produced from it, would not fail to make excellent bread, both for the rich and the poor, who depend on the farmers to deliver them a good article of food, which no one would hesitate to set before his guests. When grain has been gleaned with horse rakes, the wads or rakefuls should *be shaken apart with much care, for the twofold purpose of removing all stones and sods that may have been gathered by the rake-teeth, and for exposing the damp straw to the influences of the sun and drying wind. In case of a storm of rain before gleanings can be secured in the barn or stack, let the windrows be forked into large cocks and covered with hay caps. Then as the gleanings are usually hauled to the barn after the sheaves have been gathered, they can be thrashed and kept separate from the clean grain with little or no difficulty. Cutting Vegetables foe Stock. Every careful farmer who has been accustomed to feed fruit and vegetables to any kind of stock under- stands and appreciates the importance of reducing all kinds of vegetables to small pieces, before feeding them to any kind of domestic animals, except horses and mules, which have front teeth on both jaws, with which they can nip their food. When neat cattle and sheep are required to eat pumpkins, turnips, carrots, po- tatoes, or apples, when the pieces are so large that they THE WHEAT CTTLTURIST. 427 cannot be placed readily between the double teeth, the animals are exceedingly liable to get choked. Besides this, if an animal's teeth are poor, they are required to make a great exertion to eat vegetables unless they are cut into small bits. The accompanying illustration represents a vegetable cutter, which has given excellent satisfaction, for cutting pumpkins, turnips, and all kinds of roots into' small Fig. 80.— Excelsior Boot Cutter. pieces for sheep or cows. I think it is the best cutter in market, at the present writing, as J. S. Robertson, Syracuse, N. Y., the inventor, has received many pre- miums and medals from Agricultural Societies, on this cutter. At the State Fair, Buffalo, it cut a bushel of potatoes fine enough for sheep in twenty-six seconds. 428 THE WHEAT CULTURIST. The pumpkins or roots to be cut are put in the box so that they come in contact with the cylinder, the upper side of which is shown in the figure. The cylinder is hollow, being made of hard iron. Small gouge-shaped cutters are secured to the surface of the cylinder, which gouge out pieces of the vegetables about as large as a man's thumb. Such pieces are of convenient size for sheep or any other stock to eat with facility. A small lad or girl can cut a bushel of roots in about one min- ute, with comparative ease. The cutters can be adjusted to cut very fine, or coarse. If the knives become dull, the edge can be put in order in a few minutes with a round file. If vege- tables and apples could be reduced to a fine pulp before they are fed to stock, the animals would extract more nourishment from the feed, than if such coarse materials were simply run through a vegetable cutter. It is an excellent practice, when feeding stock of any kind with cut or pulped vegetables, to mingle meal of any kind of grain with the pulped feed, as there is al- ways more or less advantage in mingling several kinds of food together, before animals are supplied with their usual allowance. Every wheat grower should have such a root cutter. When raising roots, feeding stock, and growing wheat are properly combined, our country will be noted for beautiful crops of excellent wheat. THE END. INDEX. PAGE Absurdities Exposed, ... 78 Alabama Wheat, .... 100 Alden's Quack Rake, . . . 145 Andriolo Wheat, four-rowed, 104 " Red and Hairy, . 102 11 Black, 101 B Bands, How to Make, . . . 357 Band Maker, 363 Binder, Skilful, 359 Binding- Disadvantageous^, . 361 Blossoms of Wheat, ... 39 Black Sea Spring Wheat, . . 116 Blue Stem Wheat, .... 96 Botanical Description of Wheat, 24 Bull Wheat, 97 C Cahoon's Seed Sower, Caps, How to Make, . Cayuga Chief, . . . Carbonaceous Material, Cattle and Wheat, . . Charcoal Dust for Wheat, . Chemical Structure of Wheat, Climatic Influences, . Climatology of Wheat, . . Clover Sod for Wheat, . . . " Ploughing in, . . . Conclusion of Wheat-growing, 294 Coulter, Spink's, .... 295 Crevecoaur's Speech, ... 23 Cradles, Suggestions about, 346 " Form of Scythes, . 347 " How to Handle, . . 350 Cultivator, The Star, . . . 296 297 375 386 168 196 228 10 12 57 213 215 PAGE Cultivator, Alden's, . . . 209 Ide's, .... 142 " Fink's, .... 199 Cultivating on Sod Ground, . 203 " after Potatoes, . 186 " after Turnips, . 188 " after Peas, . . 190 growing Wheat, 200 Shallow Plowing for Wheat, . 184 Culture of Wheat Chemically Considered, 133 Cutter, National Fodder, . . 423 Cutting Vegetables for Stock, 426 D Day's Work, 365 Depth to Cover Wheat, . . 284 Degeneracy of Wheat, . . 253 Dibbling Wheat, . . . .303 Difference Explained, . . . 289 ' ' between Winter and Spring Wheat, . 63 Dodge's Reaper, .... 400 Drilling-in Wheat, .... 309 Drill, Beckwith's, .... 306 " The Star, 321 " Brown's Celebrated, . 314 " The Buckeye, . . .316 Drilling-in, Philosophy of, . 312 Drilling Crosswise, . . . .316 E Early Wheat, How to Raise, 280 Emblem of Civilization, . . 18 Ergoted Wheat, . . .413 F Fanning Mill, Nutting's, 301 430 INDEX. PAGE Fanning Mill, Harder's, . . 303 Fallows, about Summer, . . 143 Fastidiousness of Growing Wheat, 66 Fattening the Soil for Wheat, 139 Fields, Rough vs. Smooth, . 212 Fingers for Cradles, How to Make, 351 Fink's Cultivator, .... 199 Flint, Old White, .... 97 Force in Vegetation of Wheat, 67 Fork, Montgomery's, . . . 405 Fodder Cutter, 423 Freezing and Thawing of Soil, 123 G Gavels, How to Rake, . . . 356 " How to Bind, . . .358 " Size of, 354 Genesee Wheat, 99 Gilbert's Subsoil Plough, . . 162 Gleanings, How to Manage, . 424 Great Yield of one Kernel, . 85 Grain, Remedy for Lodged, . 163 " Sowing Broadcast, . . 299 Growing Wheat Then and Now, 14 Guano for Wheat, . . . .180 H Habit of Wheat Plant, . . 49 Harvest, When to Cut Wheat, 343 " Cutting Wheat too Green, .... 343 " Time, 333 Harrow, Monroe's, .... 290 " Nishwitz's Disk, . . 324 Harrowing Wheat, .... 201 Hard Wheats, 74 Heavy Kernels, 238 Holbrook's Plough, . . 232^234 Hybridizing of Wheat, . . 40 Illustration of Winter Wheat, 126 " Wheat Head, . 25 Improvement in Wheats, . . 81 Introduction, to Wheat Cul- ture 9 Influence of Climate on Wheat, 12 Insects, Enemies of Wheat, . 416 " Midge, 418 " Wheat Worms, . . 419 " The Chinch Bug, . 419 K Kernels in a Bushel, . . . 278 " Greatest yield of one, 85 " Large or SmaU, . . 242 " of Wheat, how formed, .... 137 ' ' How they Germinate , 26 Kentucky Red or Whig Wheat, 1 03 Kernel Magnified, .... 27 Knives, Keeping Sharp, . . 331 " Reynolds', .... 332 Laboring Disadvantage ously, 361 Lodging Grain, Remedy for, . 163 M Manures, for 177 or Nitrogenous Wheat, " Burying Deep ShaUow, . . .183 " Surface Manuring, 216 " Manuring Sandy Soils, .... 219 Machine, Thrashing, . . . 421 Manufactory of Poudrette, . 176 Manure, Different Kinds on Wheat, 172 Manuring the Surface for Wheat, Material, Carbonaceous, May Early Wheat, . . Mediterranean Wheat, Mildew in Wheat, . . Monroe's Harrow, . . Mulching Wheat, . . Mucky Soils for Wheat, 216 168 98 114 406 290 225 218 N Names of Varieties, ... 90 Nomenclature of Wheat, . . 87 Nutting's Fanning Mill, . . 301 INDEX. 431 o Organic Elements of Wheat, 153 Pasturing Wheat, . . . .223 Pedigree Wheat, .... 91 Ploughs, Gilbert's Subsoil, . 162 " Cast-Steel, . . .323 " Gang, 142 Ploughing Deep for Wheat, . 157 Plant of Wheat Illustrated, . 52 Plumule Magnified, ... 30 Potatoes before Wheat, . . 186 Polish Wheats, Hard and Soft, 74 Poudrette, Home-made, . .174 " Manufactory, . . 176 Prolificacy of Wheat, ... 69 Q Quack Rake, Alden's, . . Quantity of Seed per Acre, R Rake, Warner's, . . . " Alden's, . . . Raking and Binding, . Reynolds' Sections, or Knives. Reapers, The Kirby, . " Dodge's, . . " Buckeye, . . " Cayuga Chief, Roots and Spongioles, . Root Cutter, Excelsior, Rule about Seeds, . . Rust, and Remedy for, 144 276 401 402 352 332- 327 400 403 386 31 427 241 414 S Sandy Soils for Wheat, . . 219 Salt for Wheat, 227 Scythes, How to Grind, . . 35 ' ' for Cradles, best form of, 347 Seeding without Ploughing, . 222 Seed Wheat, How to Save, . 235 Seed Wheat at the North, . 249 Seedtime, The Best, . . .259 Seed Wheat, Suggestions, . 281 " " Proper Depth to Cover, . . 284 PAGE Seed Wheat, Fatal Experi- ments with, 318 " " Brining, . . 320 Seeding Thick and Thin, . . 274 ShaUow Culture for Wheat, . 184 Sheep and Wheat, . . . .193 Sheaf of Wheat, . . . .863 Sheaves, Setting up, . . . 367 " How to Handle, . 367 " How to Pitch and Load, . . 380, 381 " How to Mow, . . 384 Sheep in connection with Wheat, . 193 Shocking Wheat, . . . .366 Smut in Wheat, 408 " Experiments with, . .411 Silica, Deposits of , . . . . 415 Soils, Sandy Loam for Wheat, 221 " Best for Wheat, . . .128 " How to Raise Wheat on a Poor, . . . 210 " What it Requires for Wheat, 167 Soil, What Barren Lacks, . . 170 SoH, Best Quality for Wheat, 128 " What it Requires, . . 167 u and Preparation for Wheat, 120 Sowing Wheat Broadcast, . 313 Sowing Wheat in Winter, . . 266 Sowing among Indian Corn, 205 Sowing on Corn Stubble, . . 206 Spring Wheat, When to Sow, 270 " " Sowing Broad- cast, . . 213 " " Culture of, . . 287 Spring and Winter, Difference between, 63 Spring Black Sea, . . . .116 Spongioles Magnified, ... 29 Speech of Old Crevecceur, . 23 Spring Wheat, Triticum CEsti- vum, 17 Straw, Color of 341 Stories about Large Crops, . 71 Stems, How Formed, ... 55 Stooks, How to Make, . . 370 Stool of Stubble, .... 54 " Wheat, 53 432 INDEX. Stem of Wheat Magnified, . 30 Stories, Large Wheat, ... 71 Subsoil Plough, Gilbert's, . 162 Subsoiling for Wheat, . . . 160 Summer Fallows, .... 143 " " Object of, . 150 " Fallowing an Ex- hausting System, . 153 Stacks, How Made, . . .390 " Topping Out, . . .398 T Tappahannock Wheat, . . . 114 Turnips and Wheat, . . .188 Varieties, How to Produce New, ... 244 " Names of, ... 90 " Undescribed, . .119 " Should be kept Pure, . . .247 Vitality of Seed Wheat, . . 239 W Wheat, Degeneracy of, When to Sow, . 253 259 266 Sowing in Winter, Sowing Early and Late, .... Thick and Thin Seed- ing, Amount of Seed per Acre, .... What becomes of Seed, .... Raking and Binding, 352 Chemical Structure of, Emblem oC Civiliza- tion, .... Botanical Description of, Hybridizing of, Hard, Soft, and Polish, . . . Prolificacy of , . . . 270 274 276 278 Wheat, After Spring Crops, . 145 Stems of, How Formed, ... 55 Fastidiousness of Growing, ... 66 Force in Vegetation of, 67 Organic Elements of, 135 Limit of Region, . . 75 Improvement of, . . 81 On Clay Loam, . . 131 Fattening the Soil for, 139 Culture of, on Prairies, 140 On Sod Ground, . . 203 Among Indian Corn, . 205 On Corn Stubble, . . 206 On Mucky Soils, . . 218 Pasturing, .... 223 Mulching, .... 225 Salt for, . . . .227 Alabama, .... 100 Andriolo, . . . .101 Diehl, 105 Egyptian, .... 107 Bald, 94 Black Sea, . . . .116 Blue Stem, .... 96 Bull, ...... 97 Early May, .... 98 Genesee, .... 95 Indiana 98 Kentucky Red, . . 103 Golden Straw, . . 112 Fife, Spring, . . .118 Mediterranean, . .114 Rio Grande, . . . 117 Tea, China, . . .117 Silverstraw, . . .118 Pedigree, .... 91 Tappahannock, . . 114 Whig, 103 White Flint, ... 99 Week's, 109 Tillering of, . . . 53 Winter, Triticum Hy- bernum, . . . 17 " Spring, 17 Winter Fallowing, .... 154 3 5185 00069 1798 T^SS: