Issued by | Ihe Silo Publishing Company tomio, as ie | | illyer- Deutsch Lumber Call at any of our Aes at the - following points BRYAN FOWLERTON ~— NATALIA PLACEDO _ CHARLOT -GOLIAD PT. LAVACA THREE RIVERS | cy K 0 KERRVILLE PLEASANTON J. K. BERETTA, R. L. BALL, President Mania OR, DD. outnge Phe Vice-President DIRECTORS JOHN M. BENNETT, SR. . KLEBERG BR. Le BAMA ie CHARLES SCHREINER J. K. BERETTA est ie Hig Sa ah pee a : Photographic Work * { nih 5i% BE. Houston St. Complete F ine Lin e Jersey Vehicles Cows and Harness Fo. A. COCKE The Horse and Mule King Absolute Satisfaction With Every Purchase Gunter Hotel SAN ANTONIO, TEXAS A Hotel Built for the Climate CATERING TO TEXAS PEOPLE © Absolutely Fireproof European RATES $1.00 PER DAY AND UP PERCY TYRRELL, Mgr. FREE KQDAK PICTURE ALBUM KODAK FILMS DEVELOPED 8 to 12 Exposures 10c a roll—all sizes We give coupons with kodak pictures when money is sent with order, entitles holder to choice 50 presents for different number of coupons. Write for particulars. PRINTS FROM 214 EACH AND UP Send Us This Coupon for Free Album Simply send us opposite INarmne yas oases els eee sj sie aye oe Ae coupon and answer Town Die leila ha feta o'lfel jay ntlWiisiieiiat is Navel jp \leualLeli=gtn/ia ton itemaltalrntte questions eu it and well send you by return Stated. en cic cars iiele ahevalel sista ehe eee ee mail a nice album free. . my H ; . THE FOX CO. > 5), Ousoste Mee ee A. L. Mattock Attorney at Law 517 Bedell Building SAN ANTONIO, TEXAS Practices in all court$, State and Federal. Special attention given to examinations of ‘ Land Titles. Represents for sale some of ooo Choicest Farm Tracts and Stock Ranches € . in South Texas. All business and correspondence given prompt and proper attention Index Page “GTi TERNS CS eas a el Re ie AE eB Nema SBE SP 1 WM eT SO TIAN CMON SI OS cee esse ea ice vei Nig 8b ea ween lance 8 Tug, SHUN ES 8 Se 2a 0 TY al 0 A lta UR cone SAC ei as Oe RE 9 PIACEVOlete SUG dM LMM SCHON sie en es ee 10 Place of the Silo in Limited Rainfall... eee il! Eye MMCMMELG CELUIDOe percees tema ewe Meine. mae tite ALS se EN etc See L, SHWRS CTROVOS, oe ied Sot th eae ete ALAN BA ace Bee epee oe en ea MMT SB APE 17 ye Poet Cea tetL CS NU CLO ee tne Ute Mee RE eM cine att a en ISL 18 SIMMONS OIG MLOnieen ine oe eran Ne ih Aleck sh eB ena ena 22 Acreage Required to 1ill Silo............ sess ath hand Na ROMER alae se tendo Cult 23 PRONG Aen SI eee tert eg As eet NN Yr ve tll A ee 25 Cu B iD GiR SiS) STUNG Se las SNA Re re Hana ys eee ee TONE POR SE 27 (HegyG heise bm 016 TSN ey Ae ae TD eS eset at Oo ere eta 7 30 The Test of Cottonseed Meal and Silage... ..2..2cciee seo seeeeteeeeeee eee 33 A Zine, ENED, nc IO vt ae oe CY CS a Dae ep nea Pode 39 “SS TTYL SEE SIS Ss Ry st i ce dena Um ane Oe NN OE Un 40 Ai Ot AI AH CO) NIE CQTTT 2 ao Nac ac Se De es Cae cee ea 40 Biimcrmmninygo reine SilOs4 eae Gy kd ta TE ea ye 41 Parmeter Cee SLO Mis UCIT Oust h eae Se AR es oe Uae 43 When Farmers Produce More.....2... 2.2.02... Se es Se ER OO A 44 ger snle@ ona exas) Wainy, Barmy eo tee ccecte cassette A Sy 45 iienamcs rans tooth the, Sir: Gs poke ee ees A 49 Costot Milling the Silo... pie) eh CRS AE ARP IN Ate Bee 50 ELSEKGITCNEE NYT TIS ea ROASTS G2 tart Se NST Se MPRA, oP ena eT er--n 51 Hecding silageun the, Southwest.20.6 000.52) e ae ae 52 iiveroad=to: More; Prime, Beets. goo 0 Se oN Se ee Geers 54 NMerrsran GOOG riCeSsPAMCAG 0.2289) 5.21 Fone A apes Ce ee ee eae 55 Hewer Cattle for’ Corn Belt: Feeders... i.e ee 56 Heenimoy Methods! Discussed... 0 ae 58 Sugeestion on Peeding Corn Ensilage 00 oo ee 59 Efamaton lake uMone yes oie 5) tet bee oe ARS on 60 OMIM MICINESIONS kite ey a opie et hah aa es a ek soo So 61 Bivery Dairyman Should Have a Silos. oa tee es 62 NORM ACTS TA b OUT, OILOStre sent oer an meee 7 ie so nt eee 63. “THE FARMERS’ FRIEND” This is the ENGINE that spells success for THE MAN WITH THE SILO. Runs on Gas, Gasoline, Kerosene, Solar Oil or Distillate Do you want an ENGINE that will DO THE MOST WORK in the shortest possible time and in the most economical way? If so, you had better get a DEMPSTER. This is the en- gine you need. Let us mail you full descriptive circular. HECK MACHINERY CoO., Inc. SAN ANTONIO, TEXAS Prudential Life Insurance Co. OF TEXAS Office: Second Floor Prudential Life Building SAN ANTONIO, TEXAS E issue all forms of Non-Participating Insurance. All val- ues are guaranted by the Company. Each Policy is reg- istered and signed by the Insurance Commissioner of the State. WE WANT REPRESENTATIVE AGENTS IN EVERY TOWN WRITE TO THE HOME OFFICE I] Sa SSNS, SS a Silos land Their | Uses Issued by The Silo Publishing Company SAN ANTONIO, TEXAS ———— —_—_—————Seeee Copyrightedby The Silo Publishing Company = San Antonio, Texas ebay The Farmer By Auice L. Wess. a ~ Who used to be the butt of jokes? The farmer. Who stood in awe of city folks? The farmer. Who bought the gold bricks and said, ‘‘I vum!”’ And wished that he had stayed ‘‘tew hum’’? Who got least for his work, by gum? | The farmer. Why buys the autos nowadays? The farmer! Who pays the tax for good highways? | The farmer! Who feeds us all from day to day, And gives us good, strong men? I say Who owns this blessed U. S. A.? The farmer! Why the Demand for a Silo? There is but one answer—the prosperous farmer of to-day reads, and realizes the economic changes that are assisting and materially affecting all other industries. Progress, improved machinery, economy, are as necessary to the success of the farm as to any industry in the world. The wasted by-products of yes- terday is converted into a utilized and profitable product of to-day. This most pronounced step of progress and economy was accomplished on the farm when the Sito came to the farmers’ rescue. The farmers are just beginning to centralize their efforts; eranges are springing up like mushrooms in all parts of the coun- - try; they meet and hear what their fellow-farmers have to say. The Government or State experts impart to them their knowl- edge from experiments carried on, regardless of expense, from year to year. The wise man is he who benefits himself by the experience of others. Too many crops are raised for the fruit alone, the straw, the stalks, the by-products being cast into the barn-yard and allowed to waste. The Smo. came to solve one of these problems. It presented an always ready economical way of saving a large crop with the least possible waste. It converted the cornstalk from an otherwise withered unpalatable fodder to a sweet suc- eulent food in a cheap, convenient and desirable form. It has done more than this (if you so choose)—it provides for the whole crop, the grain, the stalk undivided, to be fed at your pleasure with no other mechanical agency or expense, converting the labor of a winter into a few days. Advantages of the Silo 1. Silage keeps young stock thrifty and growing all winter. 2. It produces fat beef more cheaply than does dry feed. 3. It enables cows to produce milk and butter more economi- eally. 4. Silage is more conveniently handled than dry fodder. 5. The silo prevents waste of corn stalks, which contain about one-third the food value of the entire crop. 6. There are no aggravating corn stalks in the manure when silage is fed. —~ 7. The silo will make palatable food or stuff that would not otherwise be eaten. 8. It enables a larger number of animals to be maintained on a given number of acres. 9. It enables the farmer to preserve food which matures at a rainy time of the year, when drying would be next to impossible. 10. It is the most economical method of supplying food for the stock during the hot, dry periods in summer, when the pas- ture is short. Ten Factors of Profitable Farming The ten essential factors of profitable farming, as recently set forth by Dr. W. J. Spillman, of the Federal Office of Farm Management, are: 1. Low real-estate prices for the land cultivated. 2. Production of commodities for which the supply is less than the demand. 3. Management of the business on as large a scale as capital and managerial ability will permit. 4. Production fo commodities of the highest quality. 5. A reputation for reliability. 6. Location for good markets available, and ability to buy and sell profitably. 7. Keeping only animals of highest productive capacity. 8. Large yields with relatively little labor and fertilizer. 9. Production at low cost. 10. Production of staple commodities for permanent profits. The Silo The silo is a large cylindrical tank or cistern having air-tight _ walls and bottom, the height or depth being approximately twice the diameter. It is made for the purpose of storing and pre- serving green fodder in a chopped-up condition, keeping it in its green state for feeding all classes of live stock at times when natural green pasture is not available. This preserved green feed is called silage. By the use of the. silo the entire plant, including stalks, leaves and seed, is ‘‘canned’’ very much as a housewife cans or preserves fruit and vegetables. Not an Experiment.—While the silo is new throughout the Southwest, yet it has been in use in the United States for over thirty years, ninety-two farmers using them as early as 1882. It has long ago passed the experimental stage. Those who have used it most extensively are its most enthusiastic supporters. It is generally true that the farmer or stockman who constructed his silo long enough ago to thoroughly try out the silage with his stock has already built another, or perhaps a third one. Advantages of ‘the Silo—The silo eliminates practically all waste in connection with the feeding of live stock. One ton of BENG) we euved forage will make three tons of silage, so that on farms where the forage has heretofore been cut and cured the quantity has been increased two-thirds when handld through the silo. Loss in Field Curing —Under field conditions of curing fodder — much of its feeding value is lost. Various governmental experi- ment stations report this loss from 30 to 50 per cent. These reports do not consider losses caused by the wind blowing away the leaves and filling the fodder with sand and dirt. When we take all of these factors into consideration it is safe to estimate this loss at from 50 to 60 per cent. In other words, fully half of the feeding value is lost, resulting from field curing and dry fodder feeding, as is now commonly practiced throughout the Southwest. Loss in Silo—Silage retains practically all of the feed value together with all of the succulence and palatability of the green crop. Every farmer knows the value of green kaffir or sorghum _ when fed to his dairy cows, steers, sheep, hogs and horses when pastures are dry and short. This indicates the value of an equal quantity of silage given to the same animals in the winter. Good silage is equal in feeding value to the green crop. Silage may be considered as winter pasture. The silo makes it possible to supply live stock with June feeds in winter months. Experimental data show that the total loss on feeds stored in the silo does not exceed 10 per cent, if the crops are properly handled, in well constructed silos. This slight loss is unavoid- able and is largely due to surface spoilage and to certain chemi- eal changes which take place. Thus the live-stock farmer with- out the silo often divides one-half of what he raises with the elements, when the silo will save at least 90 per cent of it. Place of the Silo in Humid and Irrigated Sections The farmer in the humid or irrigated section states that the silo is an absolute necessity with him. He has found out that the silo will take the place of pasture where land is getting ex- tremely high in price. He finds silage as valuable for summer as winter feeding. It is the farmer described above who has found out that the silo saves all the feed by making use of the entire crop, stores economically and safely, provides a succulent feed equal to grass, reduces the cost of feeding, stimulates milk production, produces growth and beef cheaply, reduces to a minimum the labor of saving and feeding, and:is a feed on which all classes of live stock do well. Place of the Silo in aOR of Limited Rainfall Conditions are more favorable to silos in the Southwest than in any other section of the United States, and the use is more necessary and of greater benefit. Here it is that live stock must be combined with diversified farming. Under limited rainfall . conditions there are very few cash crops. Kaffir, milo maize, and sorghum are the sure crops and in some high-altitude sec- tions corn will take the place of kaffir and milo maize. The farmer who produces the crops named cannot afford to sell them for cash, especially when he stops to consider that he can realize more than twice as much out of them if handled through live stock, Again, the farmer or stockman who handles live stock. cannot afford to feed the dry feed when he can make the same feed go more than twice as far if handled through the silo. The silo permits the storage of crops produced in good sea- sons for use in seasons of total or partial crop failure. Again, the silo is always ready for storing crops that fail to fully ma- ture. If a kaffir or milo maize crop gets only partially matured, and on account of dry weather or late season will not complete its growth, it can be made into silage at any time, thus pre- serving the entire crop that would otherwise be practically worthless. The immature crop placed in the silo is often worth more than if it had matured and been fed dry These features are of great importance to the dry-land farmer, giving him a practical insurance of a continuous feed supply. Is this Business-ike?—This question is worthy of closest con- sideration! Thousands of farmers throughout the Southwest are working hard the year around raising and caring for their fodder crops, and then when these crops are matured 50 per cent of the gross results are allowed to waste through the lack of silos. Enough good feed is going to waste every year on the average farm to build a silo that would hold it, and the silo is good for many years’ use if properly constructed and handled. Mr. C. M. Steed of Clovis, New Mexico, who owns an under- eround silo having a capacity of 135 tons, recently made the following statement to the writer: ‘‘My silo cost $250, and I have been milking about 75 cows on an average for the past winter, there being fed a large ration of silage. I have saved enough on my bran bill alone this past winter to pay for my silo. My silo is giving perfect satisfaction, despite the fact that it cost more than it should to construct it. My plans of con- struction were poor and if I had it to do over I could build it very much cheaper.’’ see fy fee Silos and Stock Farming Necessary The bulk of the crops of the Southwest are feed crops, and these cannot be considered as cash crops.. To get the greatest cash income from these crops they must be marketed on the hoof. By combining good tillage methods with live stock farm- ing, silage crops can be produced every year. The entire South- west is a natural live stock country. We must bring the stock to the feed, instead of shipping the feed to the stock. At pres- ent the entire Southwest is not producing enough finished beef, pork, mutton or pouliry products to supply its own demands. The beef’ animal, dairy cow, hog and hen are the factors that must change our southwestern feed-stuffs into more marketable products. It is through this class of live stock that the agricul- tural possibilities of this country will be developed. Silage Feeding Silage for Dairy Cows.—From the date of introduction of silos in this country, dairymen more than any other one class have found silage an ideal feed. The chief value of silage for dairy cows is in the succulence afforded, placing it on a par with grass for milk production. Silage not only supplies a cheap source of winter succulence, but will also supplant the dry pastures of midsummer, or it may take the place of the pasture system entirely. As with other farm animals, dairy cows should be fed rough- age in the form of hay or fodder in addition to silage. Forty pounds of silage per day is plenty for a cow. The amount of silage fed depends on the amount of other feed given. Silage should be fed after milking, and not before or during the milk- ing period, as feeding at this time prevents the silage odor from getting into the milk. Less Grain Required—tThe results of an experiment conducted by the Ohio Experiment Station on this subject, as found in Bulletin No. 155, show the following: One lot of cows received over 50 per cent of the dry matter from silage and less than 18 per cent from grain. The second lot of cows received over 57 per cent of dry matter from grain and no silage. The production of the two lots per 100 pounds of dry matter fed was as follows: Cows fed silage produced 96.7 pounds of milk and 5.08 pounds of butter fat. Cows fed grain produced 81.3 pounds of milk and 3.90 pounds of butter fat. This shows the silage-fed lot to have produced nearly one- pete pee ee sixth more milk and one-fourth more butter fat than the lot given grain ration, and at very much less expense. Recent results in silage feeding in Minnesota on 12 herds of 216 cows showed an average net profit of $33.04 per cow, while 16 herds with a total of 239 cows—to which no silage was fed— showed only a profit of $22.98 per cow. This case shows that silage increased the net profit per head to somewhat more than $10. How to Feed Silage to Dairy Cows.—Following are good dairy balanced rations for our conditions: 1. Silage 40 pounds and fodder (milo or kaffir) 10 pounds, wheat-bran 5 pounds and cotton-seed meal 3 pounds. 2. Silage 30 pounds, millet hay 10 pounds, kaffir or milo chops 4 pounds, bran 3 pounds, and cotton-seed meal 2 pounds. 3. Silage 40 pounds, millet 8.pounds, bran 414 pounds, cotton- seed meal 3 pounds. 4, Silage 40 pounds, cow-pea or peanut hay 8 pounds, kaffir chops 5 pounds, cotton-seed meal 244 pounds. 5. Silage 40 pounds, sorghum 10 pounds, kaffir or milo chops 3 pounds, cotton-seed meal 214 pounds. 6. Silage 20 pounds, alfalfa 20 pounds, kaffir or milo chops 3 pounds. 7. Silage 40 pounds, cow-pea hay 15 pounds. 8. Silage 40 pounds, bran 6 pounds, ground field peas 6 pounds. Corn will replace grain or fodder in any of the above rations where kaffir or milo maize is mentioned. The above balanced rations are calculated as the total amount of feed needed for an entire day for a cow in full milk, weigh- - ing the neighborhood of 1,000 pounds, the animal to be fed twice a day, one-half of the ration to be fed at each feeding. it will be seen from the havoe rations—Nos. 4, 6, and 7—that such feeds as cow-pea hay, peanut hay and alfalfa hay decrease the grain ration very much. Many dairymen find that they get extra good milk yields without any grain in connection with plenty of silage, alfalfa, cow-pea or peanut hay. It will, how- ever, pay to feed a small amount of grain with these rations. The three hays mentioned are especially rich in protein or milk- - producing elements, but this is not true of millet and the dry fodders. The best grain feeds to buy are cotton-seed meal and wheat bran, both of which are rich in protein. However, it is dangerous to feed live stock too much cotton seed meal, espe- cially dairy cows, 3 pounds per day being considered as the maximum amount for a cow. Where alfalfa cannot be produced the farmer will certainly find it profitable to raise cow peas, field peas or peanuts for hay. By doing this it will not be nee- essary to buy or ship in much of such feeds as cotton-seed meal and bran to supply the protein or nitrogen. Segue Winter Dairying.—Without the silo it is almost impossible to jo profitable winter dairying. Under dry farming conditions it is desirable to breed so that the cows come fresh in the spring. if they freshen in the fall and are dry fed during the winter, the chances are that the majority of the cows will either be dry or nearly so by spring. Summer dairying often does not pay well, prices are poor, flies bad, and other conditions are unfavorable, On the other hand, with the silo method, cows coming fresh in the fall go through the winter with little if any decrease in milk flow before being turned out to grass. In this way the milk flow will be kept up well through the summer or until the early fall, when the cows are dried prior to calving again. Winter dairying, under these conditions, is more favorable than summer’ dairying—no flies to bother, less other farm labor to interfere and prices are better. Siliage for Beef Production.—Silage is forcing itself into the feeding ration for beef throughout the entire Southwest. Here it is that pasture grass is depended upon almost entirely, yet it is often not available for the growth of the beef animal more — than six months out of the year, the other six months it usually maintains the life of the animal, but makes very little Boney or fat. Many of the cattle men of this section figure on losing a per- centage of their herds each year. Some of them figure that if they do not lose over 5 per cent from cold weather. and short- age of grass, they are doing well. In these calculations they usually fail to take into consideration the shrinkage in the grow- ing of young stock, which often amounts to as much as 150 pounds the average animal. For example, take a steer of 900 pounds, allow him to run on the range all winter, and by the time grass comes again he will weigh about 750 pounds, which loss at 5 cents per pound would amount to $7.50. Place the same steer on a silage ration at the beginning of the winter, and instead of a loss of 150 pounds he will gain that much, a saving of $15, and has not consumed more than $5 worth of silage, provided that he has been fed 40 pounds daily, an average feed for 120 days. This represents a clear saving of $10 on this one steer alone, to say nothing of the thousands of others that could be handled in the same way, besides saving the total weight of the 5 per cent in number which the cattle man had expected to lose through death on account of feed shortage and cold. To show further the value of silage for beef production, we give the following, which tells of Mr. B. F. Markland’s expe- rience at Altus, Oklahoma, during the first five months of 1913: January 1 Mr. Markland bought 30 head of Panhandle calves at $35 per head. He fed these calves a good ration of silage ean yew and a small amount of cotton seed meal. Five months later he sold the calves on the Fort Worth market for $60 per head. After paying for the feed and all other expenses and deducting a de salary for himself, he states that he still had $400 profit. During the winter of 1911-12 the Texas Experiment Station conducted a steer feeding experiment on the farm of Col. T. S. Bugbee of Clarendon, Texas, comparing silage with cotton-seed hulls, with the following results: Cattle used were 40 head of range bred three and four-year- old grade Shorthorn and Hereford steers., They were fairly ‘uniform as to conformation, quality and condition. The aver- age weight when the experiment began was 904 pounds and the value per head was $42.50. The feeds used were cotton-seed meal, cotton-seed hulls, silage and hay, all of average quality. The silage was composed of -about 75 per cent of milo maize, 15 per cent of corn and 10 per cent of sorghum. The cost of the feeds was as follows: Cotton-seed meal, per ton________----+--_ $27.00 Wotou-seed hulls, per toms. -- 2-2 * - - 8.00 SILL St Sha SHEP 10 a eg a eg en 2.50 SSIS JOSIE LH OU tel a nc) ee 7.00 When on full feed the rations were as follows: Lot 1..Cotton-seed meal 7 pounds and hulls 30 pounds. Lot 2. Cotton-seed meal 7 pounds and silage 50 pounds. _ It is stated that Lot No. 2 was also fed a small amount of hay. The results of the experiment, showing a profit of nearly $10 per head in favor of the silage-fed steers, were as follows: Lott, on hulls, profit per head____------_= $0-75 Slio: 2. onisilage, profit per head_—_ 22-22 2u- 10.40 The results showed that the silage. was the cheapest feed, and there was practically no shrinkage difference in the two lots in shipping, while the dressing percentages were practically the same. The silage steers showed better finish and brought 20 cents per hundred weight more than the hull-fed steers on the market. : While silage provides succulence and roughness and places the animals under grass conditions, yet it is advisable to furnish some feed in addition that is rich in protein or nitrogen that produces muscles, bone, hair, ete. Alfalfa, cow-pea hay, peanut hay or field-pea hay is rich in protein and makes a good com- bination with silage. Cotton-seed meal in small quantities of from 2 to 3 pounds per day is a good addition to this silage ration. For a fattening ration this cotton-seed meal can be fed in larger amounts for short periods only. Ordinarily when alfalfa hay is worth from $12 to $15 per ton for beef production, silage is worth from $5 to $6.25 per ton. Feeding experiments on beef production at the lowa Ex- periment Station during 1911-12 on two-year-old steers showed silage at $3.20 per ton to be equal to clover hay at $7.66 per ton. Silage for Sheep.—Silage is especially valuable to stimulate the milk flow of ewes with lamb, but it should not form more than one-half the ration. Good silage, that is not mouldy or too acid, is very desirable feed for winter feeding of both ewes and lambs. Silage-fed ewes giving too much milk at lambing time should be allowed a limited ration of silage shortly before - the time of birth. It must be remembered that silage is a milk © producer, and that there is some danger of feeding too much at lambing time. Some dry roughness should always be com- bined with silage for sheep feeding, preferably alfalfa, cow-pea hay or field-pea hay. A good grain ration to combine with the silage may be composed of about two parts kaffir or milo, with one part of oil meal or cotton-seed meal. Silage is an excellent feed for fattening lambs and older sheep as well as for ewes. It increases the gains and cheapens the ration. Lambs should be brought to a full silage ration very carefully and slowly to prevent scouring. Two pounds ‘per day will be sufficient silage for lambs in addition to other dry roughage and grain. Year-old fattening sheep will require more feed, both of silage and roughage, three pounds of silage being: about right for a daily ration. Silage for Horses—Mouldy silage is not good for horses. Horses do well on a small amount of silage fed with other feeds. Young growing horses, as well as older ones that are not work- ing, will make good use of from 5 to 15 pounds of silage daily. For work horses, silage is too washy to be fed in quantity over 4 to 5 pounds daily. Silage for Hogs.—The hog is not a roughage-eating animal, although grass 1s a necessary addition to its ration. Silage will take the place of grass to a large extent, although it is bulky and low in feeding value for the hog’s limited digestive capacity. Many hog breeders claim that silage makes an excellent and succulent feed for brood sows, causing them to produce strong, healthy pigs. A small amount of silage is good for the hog and it makes a saving in the cost of feeds. Silage for Poultry.—Silage fed in small quantities is an excel- lent pounltry feed. It takes the place of grass in the winter feeding ration. Silage within itself is not much of an egg pro- ducer, but it furnishes succellence, which is very necessary, help- ing to keep up the general condtion of the flock, thereby pro- ducing desirable results. mee gee ee Silage Crops Kaffir corn, milo maize, and the sweet sorghums must be con- sidered as the best silage crops for the entire Southwest. These crops are drouth resistant and more depndable than corn. Corn is considered the best crop for silage in what are known as the ‘Corn States’’. It may also be best in the higher altitudes, like certain sections of New Mexico, and in some of the irrigation districts. bi Kaffir Silage-—There ig no question but that kaffir is the best general crop for silage throughout the entire Southwest. It will out-yield corn in both seed’ and fodder, it is dependable and produces feed that is equal if not superior to corn grown in the Southwest. Feeding experiments show silage made from this crop to be equal to corn silage. In a recent report from the Kansas Experiment Station, kaffir silage and cotton-seed meal produced the highest profit in a calf-feeding experiment, the second best results coming from sweet sorghum and cotton- sed meal. The calves used in the experiment were high-grade Herefords. The Kansas station reports that it cost $2.66 per ton to produce the kaffir and cane silage and that the corn silage cost $3 per ton. The cost of the added weight on these calves, per 100-pound gain of the animals under test, was: Kaffir silage and cotton-seed meal_____-___-_ $3.20 Sorgham silage and cotton-seed meal____~_-_ 3.46 Corn silage and cotton-seed meal___------- 3.60 Corn stover, shelled corn and alfalfa hay_--_ 3.66 Some silace and. altalfa hay 220) 42 aes 3.83 Kaffir is ready to be siloed at the time the seed is in the dough stage and before it is thoroughly ripe. Stunted kaffir without seed makes good silage and should be cut before it dries up. It will pay to cut and silo this crop, even if it does not make more than one ton per acre. In this way the silo will save what otherwise is usually lost. Sweet Sorghum Silage-—Until recently the sweet sorghums have usually been considered a poor substitute for corn or kaffir in the silo. The conditions under which this crop grows in sec- tions of limited rainfall overcome the difficulties found in other sections. Many claim that sweet sorghum silage contains too much acid. This is often true unless the crop is made into silage at the proper stage, this stage being at the time the seed is in the dough, beginning to harden. Sour or acid silage comes from putting up the crop too green. Sorghum made into silage by itself does not make as good quality as is the case in mixing it eae a with one-half kaffir or milo maize as the silo is being filled. Sorghum for silage should be grown in rows and cultivated the same as kaffir. Milo Maize for Silage-—Milo maize does not produce as good quality of silage as kaffir or sweet sorghum, although it is a crop worth filling a silo in case the supply of kaffir or sweet sorghum is not sufficient. Corn for Silage-—Indian corn, where used for silage, should be placed in the silo, ear and all, at the time the corn is getting into the hard dough stage. Other Silage Crops-——Cow peas grown with kaffir and other crops improves the feeding qualities of the silage very much. The cow peas furnish the protein or nitrogen part of the feed, which is very necessary and costs so much when bought in the form of cotton-seed meal and oil meal. Field peas are equal to cow peas as a Silage crop, especially when mixed with corn or © other crops. Usually it does not pay to make silage of alfalfa. The im- provement shown in making silage of it is not sufficiently great . over the dry hay to justify the expense of the process. Making the Silage The crop for silage should be cut while green, before the leaves dry, and at the time the seed is in the dough stage. The entire plant cannot be placed in the silo in its whole condition, and it must be cut into short lengths of one-half to one inch. Cutting the Crop in the Freld—The cutting can be done with corn knives by hand, or with a corn harvester, the latter being preferable. The crop as it is being cut should be delivered directly to the silage cutter, not being allowed to partially dry, but should be made into silage at once. Cutiing the Silage-—The silage cutter must be placed near enough to the silo so the feed can run directly into it from the machine. The green fodder as it comes from the field is run through the cutter, lengthwise, and is chopped into lengths of one-half to one inch. Is Anything Added to this Silage?—The question is often asked: ‘‘Is salt added to the silage?’’ no. There is no advan- tage in adding salt. Nothing else is added unless it be water. Water Added.—Water is added to the silage as it is being placed in the silo only under condition that the crop being placed in the silo is too ripe to dry. Enough water is added to make up for the juice that should naturally be contained in the plant. This water should be thoroughly mixed with the ee Noe silage. If a blower elevator is used the water should run into the blower through a pipe or hose from a tank or barrel, keep- ing a steady stream running all the time. The question is asked: ‘‘How much water shall I add?’’ There is more danger of not adding enough water than too much. Add about as much water as the silage will hold without accu- mulating. Silage is not pickled in its own juice like sauer kraut, but all the juice is held within the stalks and leaves. Remember that no water is added unless the silage crop is too dry or overly ripe. Silage from Dry: Fodder.—lt often happens that all of the silage is removed from the silo at a time when a large amount of dry fodder is still available. It may be desirable to make silage out of this fodder before grass comes on. A fair grade of silage can be made from this fodder by running it through the silage cutter into the silo. In this case a large quantity of water must be added to make up for the dried-up juices natur- ally in the green plant. This water should be thoroughly mixed with the cut-up feed and should be running into it constantly as the silo is being filled. At the time the silo is finally filled, more water should be added at the top. In a silo holding 100 tons or more the writer has known of instances where a three- fourths inch stream was allowed to run into the top for at least 24 hours, with good results. _ Tramping Necessary.—During the time the silo is being filled the silage should be kept well distributed and thoroughly tramped, especially around next to the wall. The tighter the silage is packed the better it will keep. This is particularly true of that feed which is near the top of the silo. By thoroughly tramping the top less silage will spoil than when it is left loose. Remember that the thorough distribution of the silage and packing it as the silo is being filled has much to do with its keeping qualities. If the cut material is allowed to drop all in one place, and has no further attention, the constant falling of the feed will tend to make that portion more solid, while the outside will be loose, and the coarse materials will roll to the outside while the finer portions will remain in the center, ren- dering the silage less uniform than with a general distribution and thorough packing. Surface Spoilage—Feeding may begin immediately after fill- ing the silo, but usually some time passes before the feeding starts, and in this case the exposed surface will mould and spoil to a depth of from a few inches to a foot or more, depending on the amount of tramping at the top. The top is often covered with chaff, chopped bear grass or something else, to prevent the spoilage below. Oats are sometimes sowed thickly on the top and are watered occasionally, causing them to sprout and form HEC mee a sod which protects the silage. As the silage settles, it tends to draw away from the walls, but by tramping around the edges © every day for a week or ten days, the spoilage can be deereased very much. Water should be added to the surface for a few days, especially if it becomes dry. On account of the danger of some surface spoilage, it is advisable to remove the seed from the last two or three loads placed in the silo, as the grain which might otherwise be lost can thus be saved. Number of Men Needed to Fill Silo.— The number of men and teams needed for hauling the silage crop to the cutter will de- pend upon the distance the haul is to be made, the size of the cutter, the engine, and the size of the loads. Just enough teams should be used to keep the cutter going. At least one man is required in the silo, another to run the cutter and a third to operate the engine. Co-operation Advisable-—Neighbors owning silos will find it advisable and profitable to ‘‘exchange’’ work in silo filling, and also in the buying of silo-fillimg machinery, as in this way the burden of labor and expense is greatly lightened for all parties. Is it Necessary to Fill Silo all at Once?—Ilt is not necessary to fill silo all at once, or continuously, unless the feed crop is drying too rapidly. Suppose the silo is to be filled from two or three different fields, these maturing at various times. In this case the field first maturing is siloed and thoroughly tramped into place. The top of the first fillimg may spoil to a slght depth before the second becomes matured, in which event it is only necessary to remove the spoilage and continue the filling as the succesive crops mature. Is 1 necessary to Remove all Silage from Silo each Year?— The foregoing question is easily answered—no. Any part of the silage not needed this year can be held over until next year, or longer, if necessary. At any time when it is desirable to fill the empty part, all that is required is to remove the spoiled surface and begin placing the new silage on top, just as though it contained nothing or was entirely empty. Silage will keep for an almost indefinite time, instances being on record of per- fect condition at the end of seven years. Frozen Silage——No bad results-come from feeding silage that has been frozen, provided it is fed as soon as it is thawed, but silage spoils very soon after thawing. It should not be fed in the frozen state. When thawed it is eaten with the same relish as though it had not been frozen. Cost of Silage—Col. T. S. Bugbee of Clarendon, Texas, states that he can produce the silage crop and put it in the silo for $2 per ton. Col. O. Keiser of Canyon, Texas, states that the cost of silage, counting interest on the land, cost of raising and gathering the silage crop, silo depreciation, also on the filling 2 and farm machinery, is about $1.30 per ton, according to his records during the past two years. The writer is certain that the cost may be safely placed at $2 per ton. Changes that Take Place in the Silo.—The silage being placed in the silo in its green, wet condition, soon heats. No alarm need be felt on account of this, as it is perfectly natural. This heating continues for several days, after which the silage gradu- ally cools off. Slhght fermentation takes place. This process requires air. The silage carries only a limited amount of air into the silo, and as soon as this is exhausted the fermenting process stops. The odor and acid taste of the silage is due to a chemical change of the plant sugar to, organic acids. This process that goes on in the silage softens the contents of the silo and par- tially pre-digests it, while the heating process partially cooks it, and the two combined really render the feed more digestible and palatable than it was in the natural state. Machinery.—Machinery required for filling the silo consists of a silage cutter, with an elevator or blower, but the elevator or blower attachment is not necessary in filling the underground silo. An engine or horse power is also required to furnish power. Silage Cutter.—The size of the cutter required depends on the rapidity with which it is desired to fill the silo, and also on the available power. For small farms and silos, where an engine is not to be had, a two or three-horse sweep or tread power may be used with a cutter having a capacity of from two to four tons per hour, depending on whether the silage is elevated or dropped into a pit. - It is usually desirable for a farmer to own his own cutter. Often it is a good plan for several neighbors who own silos to co-operate in buying both the cutter and the power or engine, a gasoline engine being excellent for this purpose. A cutter having a capacity of from three to four tons per hour can be ecured with elevator for about $100, and without the elevator this same cutter will cost about $40. An engine of 3 horse- power will run the cutter without the elevator, while one of 5 to 7 horse-power will be required where the elevator is used. A 13-inch cutter without elevator and with a capacity of 4 to 6 tons per hour and requiring an engine of 2 to 4 horse-power to run it will cost about $65. With carrier or elevator 30 feet long this cutter will cost about $130, and will require from 6 -to 8 horse-power engine. Oftentimes the owner of a threshing outfit can be induced to buy a large size cutter, and an outfit of this kind can be hired by the day. Sometimes two or three farmers will go to- gether and buy a cutter, and then hire someone with a thresher engine to furnish the power. About twice as much power is eC) ee required for a cutter with a blower attachment as where no blower is used, and the common carrier requires very much less power than the blower. Thus it will be seen that without either the blower or the elevator the owner of an underground silo ean get along with less expensive cutter and power machinery. The machinery, like the silo itself, should be made of first- class material, not being purchased too much with the idea of cheapness. It will pay to secure good, standard machinery. Silo Construction Two Types.—In this part of this book two general types of silos are recognized: Those above ground and those under ground. The underground type will be handled largely from the standpoint of low cost of construction and its adaptability to the needs of the farmer or stockman of limited means. Materials used in both types of silos, as well as the class of their construction, should be first class in every respect, as silo losses depend largely upon the construction. Silo walls and bottoms must be air-tight. Shape of Silo.——The shape of the silo should be that of a eylinder—round without corners, as silage cannot be packed suf- ficiently tight in corners to keep the air out, and thus prevent spoilage. The walls must be rigid with little or no tendency to springiness, and they should also be smooth on the inside so as to offer no obstruction to the settling of the silage. The depth should be as great as practicable in proportion to the diameter, so as to keep the exposed feeding surface small, and at the same time to secure pressure. : Depth and Diameter.—The advisable depth of a silo is twice its diameter. The diameter is controlled by the size of the herd to be fed, and the depth by the length of the feeding period. In order to feed silage faster than there is danger of it spoiling, about 2 inches should be removed from the entire surface each day. The silage should be removed evenly from the surface, and not gouged out first here and then there. By removing 2 inches of silage daily, 5 feet will have been removed at the end of 30 days, and a silo that is 30 feet deep will furnish feed at this rate for 180 days, or 6 months. Capacity of Silo.—The size of the silo should be made in pro- portion to the size of the herd to be fed. Since the capacity of round silos is not so readily computed as in the ease of rec- tangular silos, the following table shows at a glance the approxi- mate number of tons of silage that a round silo, of a diameter from 10 to 26 feet, and from 20 to 32 feet deep, will hold, of well-matured_silage, in tons: BOI Inside Diameter of Silo, Feet. of Silo, — Feet. Hepler eet toate (|, Lk. 80 eat on 1..9¢ me Poressh oy s59"| N67) 85. ( 101 127 | ib. | 177, 2 Tes ees ea 2S wO MnO OS ere | OL dol Ta sl ep | 189 he 30 | 43 | 59] 671 77 | 97 | 120 | 145 | 172 | 202 2S! tees SU Son ee Guin agai 72) me Soa 103 | p99 | Ta | 184.1 O16 Hl OF Seni ae 34} 49 | 66| 76]! 87 | 110 | 135 | 164 | 195 | 229 25) Ae 36 | 52 | 70] 81] 90 | 116 | 143 | 173 | 206 | 242 CAG 8 kee SS OD oa lesa, OP 193 159 | dee ly oToe) 957 Oi Ak Se a 40 | 58 | 78 | 90 | 103 | 130 | 160 | 194 | 2931 | 271 Promameeetie 2s 42 | 61]! 83] 95 | 108 | 137 | 169 | 204 | 243 | 285 Co): Re 45,|, 64 | 88 | 100 | 114 | 144 | 178 | 215 |°265 | 300 240)! A 47 | 68-| 93 °}105 | 119 | 151 | 187 | 226 | 269 | 315 Sl ee 49 | 70 |] 96 | 110 | 125 | 158 | 195 | 236 | 282 | 330 0. 5 a ae 51 | 73 |-101 | 115 | 131 | 166 | 205 | 248 | 295 | 346 As there will be from 5 to 6 feet of settling, the silos will not have the capacities shown in the foregoing unless they are re- filled. Acreage Required to Fill Silos, Includ- ing Feeding Capacity ~The following table does not claim to be accurate as to frac- tional parts of acres required for filling, neither minutely exact as to number of cattle to be fed, but is as safe as a table of the kind can be made, taking into consideration certain and ever- present variations in quality and density of silage, ete. Acres to fill, Cows it will keep 6mo., 40 Ibs. Dimensions. Capacity, tons. | 5 tons per acre. of feed per day per head. 10 x 20 28 6 8 12 x 20 40) 8 11 12 x 24 49 10 13 112)x 28 60 12 15 14 x 22 YS) il 12 14 x 24 61 2 15, 14 x 28 67 15 23 14 x 30 87 17 25 16 x 24 67 15 23 16 x 26 87 1G 25 16 x 30 115 23 32 18 x 30 124 24 35 18 x 36 135 27 41 —23-— It is safe to say that we can depend upon securing at least 5 tons of green kaffir, sorghum or milo from an acre any aver- age season, and in many years the yield will be greater. Amount of Silage required—The following table shows ap- proximately the feeding rations of silage for different classes of live stock: ; Kind of Stock. Pounds Daily. BVO) easssroayyy oa © OWS scene eee 25 to 40 Stock Cattle (wintering ration) 25 to 40 Fattening Cattle (18 months to 2 years).........-..-.----- 15 to 30 RS Tee Ona CVVLE Ss 3 tO 9 BES) ty nv Ora See a ee 3 to 9d A Peart te rattan Oa EVE pp seem ace eee see eee ree | 3 to 4 TENOR SES: G1 ces Si oc eee eee ae tae ara Rie a ane | Somes Foundation.—Whatever material is used in silo construction, wood, brick, stone, conerete or metal, it should stand on a good, solid foundation. A concrete foundation is as good as can be made. Excavation should be made deep enough to give the footing a solid bottom. In constructing a concrete foundation it is a good plan to set bolts in the cement before it sets, having the threaded ends stick above the surface far enough to pass through the sill or bed plate of the silo. This furnishes a means of anchoring the silo to the foundation. The inside of the foundation should be made flush with the inside of the silo, especially if the bottom of the silo is below the top of the foundation. The thickness of the foundation wall should be from 15 to 20 inches at the base, but may be drawn in at the top to from 8 to 12inches, the mixture being one part of cement to three parts of sand and three to five parts of gravel, this furnishing a good construction. Floor.—The underground silo does not require a floor. In order to prevent rats from -working under the silage in the silo constructed above the ground, it is usually a good plan to make a concrete floor. This floor should have a drain which is: pro- tected against rats and vermin. The accumulated juices from silage, gathering in the bottom, should not be allowed to cover any part of the silage, as it will cause it to spoil. Roof—As far as the keeping qualities of the silage is con- cerned, a roof on the silo is not necessary. The roof sometimes strengthens the silo construction, besides adding to its appear- ance. In humid sections heavy rains should be kept out, and in such localities the roof is needed. In sections of limited rain- fall no damage comes from rain. The underground silo top should be protected from dirt or sand. eG ae \ Cost of the Silo—tThe cost of the silo depends upon size, ma- terial used, workmanship and type. Silos constructed above the ground cost more than those under the ground. Wooden silos, which are the oldest and most generally in use, cost from $2 to $3 per ton capacity, depending on size, the smaller costing more in proportion than the larger ones. Concrete silos usually cost shghtly more than those constructed of wood. The metal silo has perhaps the highest cost of any on the market at present. The costs mentioned in this connection represent first costs and not those of maintenance, the latter being very small. The cost of the underground silo is about $1 to $1.50 per ton capacity, depending on size, it being understood of course that. the larger sizes are built at a decreased cost as compared to the smaller ones. sh Wooden Silos Location of Silo—tLocation is an important matter, as the silo should be placed as close as possible to feeding pens or barns, the feeding of silage being an every day matter during the whole winter. If the silage is to be fed in the barn, it is advisable to construct the silo in connection, as this will be found to greatly facilitate the handling of the feed. Stave Construction.—The wooden stave silo is simple of con- _ struction, and is therefore not an expensive type. It is this type of silo that has been favorably mentioned by agricultural writers for many years. Commercial stave silos are on the market in large numbers, each having its own peculiar talking points or merits. Tt is known that a well-onstructed wooden silo will preserve silage as good, if not better, than any silo now on the market. It is a type of silo that can be constructed quickly and cheaply. In the construction of this type of silo, especially in the entire Southwest, it pays to use the best materials obtainable. It does not pay to use cheap lumber, redwood, cypress, and fir being considered the best materials for wooden silos, as the contrac- tion and expansion of these woods is very limited under either dry or wet conditions. The main objection urged against the wooden stave silo throughout the Southwest is that the staves shrink during dry weather, or at the time when the silo is empty, and expand again at the time the silo is filled. There is no question of the application of this objection to the poorly constructed silo, or one made from an undesirable grade of lumber, and even the well-constructed silo made of suitable woods in not entirely free from this criticism. Extreme dry and hot weather causes the best of wood to contract slightly, and at the time of such con- a traction the slack should be'taken up by tightening the hoops or metal bands always found at regular intervals or spaces apart, to hold the stave construction together. When the silo is re filled, the hoops or bands should be loosened as much as ‘they were tightened to meet the expanded condition, tollow= the contraction. The wooden stave silo that is allowed to dry apart too much without having the slack taken up, is likely to be blown down or to become loosened from the foundation during high winds. All staves should be tongued and grooved, as in the absence of this precautionary method or process the continued shrinking and swelling will create cracks sufficiently large to admit air. With a variable lumber of poor grade and grain skrinkage can- not be entirely taken up by the tightening of the hoops. Desirability of the stave silo depends upon the material, con- struction and care with which the hoops are tightened and loosened to meet the variant moisture conditions, and likewise on how well it is painted inside and outside, as coal tar on the inside and paint on the outside will greatly increase the life of the construction. The wooden stave silo in addition to being placed on a good foundation should be well braced with guy wires and securely anchored. ““Common Sense’? Wooden Silo—This type of silo is con- structed of 2x4’s laid flat-wise on each other, producing a structure of octagonal form, or having eight sides, with as many angles or corners. This silo most nearly approaches the round construction, and for this reason is far better than the square one, as the latter presents four sharp corners. These 2x 4’s are laid around rather than up and down, thus making a strong construction. This silo is painted on the inside with roof coating, and then lined with roofing paper, and should also be painted on the out- side the same as other farm buildings. It is a good plan while laying the 2 x 4’s upon each other to put some kind of a coating like coal tar between the layers or courses. These silos are sometimes furred, weather boarder, and painted, as a means of assuring prolonged life. Some criticism comes from owners of these silos, setting forth the high cost of material required for the making of the 4-inch wall, and also that the lining or roofing paper sometimes cracks, and that it is a hard matter to pack the silage tight enough in © the corners to keep out the air. There is contraction and ex- pansion in this type of silo to limited extent. This silo is a good one when properly made of first-class materials. BEG) te Concrete Silos The conerete silo has been given a thorough trial throughout “nearly all of the dairy and stock feeding districts of the United States, and is now past the experimental stage, with results showing that it not only preserves the silage, but is durable, cheap in construction and well adapted to Southwestern condi- tions: Concrete silos are more cheaply and readily constructed in sections having an abundant supply of sand and gravel, as these materials enter largely into the construction. For Southwestern conditions the concrete silo has an impor- tant place, as it can easily be made air-tight, and does not shrink or expand to any appreciable extent by dryness or moisture. A concrete wall is a poor conductor of heat and cold, and therefore _ the silage is kept at almost uniform temperature. It has suf- ficient weight and strength to withstand severe windstorms, and its cost does not exceed that of the average over-ground type of silo. Conerete silo construction requires skilled labor and cannot properly be put up by the average farmer or stockman; however, one expert can erect the silo with the assistance of the farmer or stockman. . With concrete construction like that of wood and metal, it pays to use only the best of material and workmanship, special -eare being taken to avoid the use of dirty sand or gravel and an inferior grade of cement. . Unfavorable Criticasm of Concrete Silos—Statements are in constant circulation by representatives of different types of silos to the effect that silage does not keep well in concrete con- struction. Statements of this kind are erroneous, even though it is true that a part of the silage does spoil in some concrete silos. It is equally true that the same thing occurs with wooden and metal silos. The truth of the matter is that properly put up silage keeps as well in properly constructed concrete silos as in most other types. Many concrete silos have been faulty on account of the use of poor materials, improper reinforcing of the walls, porous walls that are not absolutely air-tight and poor foundations. Many wooden and metal silos have produced bad results because of the use of poor workmanship and poor materials, and yet this does not prove that all wooden and metal silos are failures. Solid Wall Silos.—The solid wall concrete silo is now in more general use than any other concrete type. This silo is con- structed as a one-piece wall. A two-piece mould, one for the outside and one for the inside, is required, and between this = the wall is cast. The mould may be made of wood or sheet iron to a height of from 3 to 8 feet, thus requiring that the wall be made in sections. The mould should be adjustable, so that it may be easily removed from the freshly cast wall to a position for the next section above, and so on to completion. The thickness of the solid wall is usually from 6 to 8 inches When this type of silo was first used it was customary to con- struct the walls very thick, and no metal reinforcements were used. Later, it was found that much stronger walls could be made by making them thinner and using metal reinforcements in them, this reinforcement being in the form of woven hog wire, bands of iron or strands of wire placed in the center of the conerete wall as hoops during the time it is being cast into the mould. To make the solid wall conerete silo or any form of concrete silo perfectly air-tight and water-proof, the inside of the wall should be washed or painted with pure cement and water as soon as the mould is removed. A good wall is made of one part cement, two parts of clean, sharp sand, and 4 parts clean gravel or broken stone. The hollow wall concrete silo is more expensive than the solid wall, and is no better for Southwestern conditions. It is espe- cially adapted to cold sections where there is danger of the silage freezing. Concrete Block Silo.—There is no question but that the con- crete block silo is better adapted to conditions prevailing with — the average farmer than any other concrete type. With a little knowledge of concrete mixing, he can construct the blocks at home. These blocks can be made in commercial moulds, or home-made moulds. The commercial mould usually makes a hol- low block having circular form, while the home-made mould makes a solid block not circular in form. The hollow block shows a saving in material and adds a dead-air space to the wall. The dead-air space has no particular value for Southwestern conditions, but is not at all objectionable. The circular form of block lays in the wall to an advantage without causing open joints on the outside. These open joints are overcome in the home-made straight-faced block by making the block slightly longer on its outside face than on its inside face. The regu- lar dimensions for solid blocks are about 8x 8x16 inches, and for hollow blocks 8 x 10x16 inches. The required reinforcement which takes the place of the hoop on the stave silo is placed between every second course of blocks. This reinforcement is in the form of an iron rod, heavy wire like No. 6, or several strands of smaller wire twisted together and made into the form of a hoop, with the ends tied together. The reinforcement is laid into a groove cast in the block for fly la that purpose. After the reinforcement is placed, the groove is filled with rich cement mortar made of about one part cement and two parts sand. Enough of this mortar is then spread over the top of the course of blocks for laying the next course of blocks. The block silo is made air-tight by plastering the inside di- rectly on the blocks with a rich cement mortar. This is done before the mortar between the blocks sets, thus causig the plas- ter to set to it. The completed plastered wall is finally washed on the inside with pure cement and water. Col. E. 8. Bugbee of Clarendon, Texas, has five block silos of 150 tons capacity each, which he constructed at home with farm labor, the block mould bseing home-made 8 x 8 x 16 inches, with groove for reinforcement. These blocks were made 15 - inches long on the inside and 16 inches long on the outside face, which made them lay to a circle without causing open joints on the outside. The blocks were laid and the inside plastered with no labor excepting that available on the farm. Colonel Bugbee states that the entire cost of these silos, hold- ing 150 tons each, was $250 per silo. It is the stated intention of this gentleman to build a number of addition silos of the same type this year. Cement Plastered Silos——The cement-plastered silo is not a common construction throughout the Southwest, although it is being found very successful and practical, and is made by using metal lath as reinforcement and also as a form on which to plas- ter. This lath is held in place in the circular form for a silo by use of temporary studding placed on the outside. With the studding in place, about three coatings of cement are appled to the inside. These three coats as soon as set are strong enough so the studding can be removed, after which from two to three coatings of cement are applied to the outside. This completes the wall except the washing with pure cement and water. This wall is from 21% to 3 inches thick, resembling a silo cast in a mould. Cement Stave Silos —The cement stave silo is of recent origin, only a very few being in use. They promise, however, to be all right, and we belive that they will fulfill the requirements placed upon them.. The cement staves 2x 10x30 inches are made like cement blocks before being placed in the silo, the staves being properly cured are tongued and grooved, set on a good foundation, and are held in place by means of iron hoops like the wooden stave silo. After being erected the cement stave silo im made air-tight by use of an inside covering of water- proofing. Metal Silos Metal silos are now coming into use throughout many of the Southern states. This is a new type of silo, the use of which has not been fully demonstrated in all sections, but the results, so far as observed thus far, are proving very satisfactory, and we know of no reason why this type should not prove a success from every standopint. The common objection to the metal silo has been that the silage - acids will injure the metal, but the manufacturer is overcoming this by protecting the-metal with some sort of paint. It may be said in support of the metal silo that it does not dry apart, nor is it so subject to blowing down as those silos made of lighter materials, or those materials used in the form of strips or staves. The present cost of the metal silo is somewhat higher than many farmers care to pay. Underground Silos The underground silo is exceptionally well adapted to those districts having a limited rainfall, and in such localities may with impunity take the place of the over-ground construction. It is distinctly a Western type, and the Western farmer and stockman, especially those of limited means, find it possessed ue many interesting and worthy features. No longer an experiment, the underground silo has a we that is Fully demonstrated. In New Mexico, Texas, and Colo- rado, as well as Nebraska, a number of these silos have been in constant use for years, giving perfect satisfaction. The under- ground type, if properly constructed, will keep silage as well as the average silo of the over-ground variety and will be found to justify all reasonable claims made for it. The underground silo is not only free from the possibility of blowing down or drying apart, but has no hoops that need tightening or expanding, and the expense of maintenance is com- paratively nothing. Its type of construction appeals strongly to the man who has but little capital and who desires a silo. It can be built by the farmer himself when he is not otherwise engaged on the farm. The cost of construction is conservatively placed at from $1 to $1.50 per ton capacity, which includes the price of materials and labor. Not only is the cost of construction of this silo cheap and favorable to the farmer who desires to make a dollar go as far as possible, but owing to the fact that neither a blower nor an elevator is required in connection with the silage cutter, expen- Sive machinery is unnecessary. The silage cutter without con- —30— . veyor costs about one-half as much as with the combination. The power required is about one-half as much with the cutter alone as compared to cutter and conveyor combined. Construction.—As stated in the outset, the underground silo is especially well suited to sections where this is limited rain- fall, but it is equally true that it should not be constructed in wet ground, or where the water is near the surface. The walls should be even and perpendicular, the depth about twice the diameter, and the size of the hole, which is round, proportioned to the number of animals to be fed. The assump- tion that an underground silo must of necessity cover a wide area at the expense of its depth, thus causing a great loss through spoilage on account of its.extensively exposed surface, is illy based and has no legitimate place in the consideration of this important construction. There is no more reason for the as- sumption that the underground silo should have a width out of harmony with its depth, than that the over-ground construction should be equally disproportionate with the ‘accepted rules of is especially weel suited to sections where there is hmited rain- silo building. There is no reason why the depth should not in all cases conform to the rules of dimensions applying to the over- ground silo, namely: Depth equal to twice the diameter. Cement Covering.—The earth wall of the successful under- ground silo must necessarily be covered with cement to prevent the silage juices from being absorbed. If the earth wall stands well, without danger of caving, a 14 to 34-inch covering of good, rich cement plaster on the dirt will be found sufficient. It is often found advisable to plaster on close-mesh rabbit wire that has been securely anchored to the dirt wall, this plaster being “put on in from two to three coats, the first being a roung or scratch coat. The first two coats will be well constructed if made of about one part cement to four parts of clean sharp, sand, while the third coat should be made of one part cement and three parts of sand. In applying these coats of cement the second should be put on before the first gets well set, and the third should be put on before the second gets set. Tn order to save the necessity for scaffolding in the applica- tion of this plaster, it should be put on at the time of digging the hole, beginning at the top and finishing downward in sec- tions as the excavation progresses. If there is danger that the earth wall will cave, or not stand well, the applied cement wall should be made from 2 to 3 inches thick, a wooden or metal mould or form being required to hold the cement in place until after it ‘‘sets.’’ This mould or form ~ need not be over 3 feet in height, which arrangement requires that construction of the cement wall begin at the bottom of the silo, and the structure will be in sections of 3 feet each, rather ee ef = than all at one time. Thus three feet at each placing of the mould or form, the wall is continued upward from the bottom until the top is reached. The form is moved up as rapidly as the section which it last held sets) A good mixture of this wall will be made of about 1 part cement, 21% parts sand and 214% | parts of gravel or broken stone. This mixture should be made wet enough to pour, and must be tamped or stirred enough after being placed in the mould to insure driving out all air and closing open spaces. The top of the underground silo should be constructed suf- ficiently high above the surface to keep out storm or flood waters. This cement wall or plastering should not be considered as finished until after it has been plainted or washed with pure cement and water, which can be easily applied with a white- wash brush or broom. This wash fills up all pores and small openings, thus making the wall both air-tight and water-proof. It is not necessary to construct a floor in this type of silo. Removal of Silage——Perhaps the main objection against this type of silo has always been that it is too laborious to elevate the silage from it, but this is not so serious as it has often been represented, and is largely offset or over balanced by the cheap- ened cost of construction and the lessened expense of machinery, together with the ease of filling. The silage is easily elevated by use of a horse in connection with a block and tackle or wind- lass. It is also raised by hand with a swinging derrick in con- nection with a windlass and pulley. This silage is often ele- vated to an overhead track from which it is suspended and ear- ried to the stable or yards in an invertible manure carrier box or trip-bottom box. OG) The Test of the Relative Values of Cot- ton Seed Meal and Silage, and Cotton Seed Hulls for Fattening Cattle. By Joun C. Burns — Assisted by T. P. METCALFE The experiment reported in this bulletin was conducted dur- ing the past winter and spring in co-operation with Colonel T. S. Bugbee of Clarendon, Texas, who furnished the cattle, the feeds, the scales, and, in fact, everything connected with the work except the man who did the feeding and collected the data. Th purpose of the experiment was to ascertain whether cotton- seed meal and silage may be used more profitably for fattening eattle than cotton-seed meal and cotton-seed hulls, the two feeds which compose the ration that is used much more than any other for fattening cattle throughout the South. The high price of cotton-seed hulls during recent years emphasizes the importance of finding, if possible, a more economical feed to take its place, either partially or altogether. Because of the low nutritive value of this feed and the relatively large amount necessary to use, it is this portion of the ration rather than the meal that makes the feeding of meal and hulls so expensive at current _ prices. The feeding of silage to dairy cattle has been practiced exten- sively and with a high degree of success for many years, but only recently has it been looked upon with much favor for beef production. The experiment herein reported is the first one that has been conducted by this Station for the purpose of testing the value of silage in a ration for beef cattle. The results should be of considerable practical value from the fact that the experi- ment was conducted entirely under actual farm conditions. Since these are the results of only one experiment, they should not be taken as absolutely conclusive and for this reason the Station will conduct other experiments along the same line during the coming fall, winter, and spring. Cattle Used The cattle used in the experiment were 40 head of rang bred three and four-year-old, grade Shorthorn and Hereford steers, all of which were dehorned. Though not highly graded they a showed a preponderance of improved blood and represented about the average of the cattle of the Panhandle section of the State. They were the ‘‘tops’’ of a bunch of about 200 head and were fairly uniform as to conformation, quality, and condi- tion. Their average weight when the experiment began was 904 pounds, and the value placed on them was $42.50 a head. Feed Used The feeds used, namely, cotton-seed meal, cotton-seed hulls, silage, and hay, were of average quality. The silage was composed chiefly of milo maize, which had been - harvested when the heads were about mature and the stalks and leaves were still green. The other components of the silage were sorghum and Indian corn. It was estimated that the larger portion of the silage fed consisted of about 75 per cent milo maize, 15 per cent Indian corn, and 10 per cent sorghum. That which was fed during the last 20 days of the test contained a somewhat higher percentage of Indian corn. The hay was composed of sorghum and Johnson grass, about half and half. An average sample of each lot of feed was analyzed by the Chemical Division of the Experiment Station. These analyses are shown in the following table: TABLE I. Percentage composition. Feeds. Period used. — Nitro. | Water.| Ash.| Pro- | Crude |freeex-| Fat. | | tein. | fiber. | tract. Cotton-seed | Dee. 8, 1911, te 6.42 | 5.65 | 43.45 | 739 | 24Gn io meal, [9 ule 1835 a2 | Cotton-seed | Mar. 14,1912, to 6.26 | 5.49 | 44.05 9.28 | 25.72 9.20 meal. Noi, Dy UG Cotton-seed | Dec. 8, 1911, to 10.91 | 2.50 5.07 | 46.05 | 33.79 1.68 hulls. | Feb. 26, 1912. Cotton-seed | Feb. 27,1912, to | 10.15 | 2.58 | 4.81 | 43.00 | 38.33 | 1.13 hulls. | lene iy aie Cotton-seed || Mar.15,1912,to | 8.24 | 2.44 | 4.50 | 45.65 | 37.49 | 1.68 hulls. Apr. 5, 1912. Silalse. oes | Dee. 8,1911, to | 66.02 | 2.82 | 2.54 | 8.86 | 19.15 61 | Mar. 14, 1912. | | Silage) 22 Mar. 15,1912, to | 60.52 | 3.05 | 3.28-| 10.57 | 21.70 88 | Avon. 5, 1912! Hays ets Jan. 8, 1912. to 8.48 | 7.21 | 4.22 | 30.78 | 48.02 | 1.29 Aprao, 1912. The cost of the feeds was as follows: =e ae Cotton-seed meal-_..--_---._.--. $27.00 per ton. Warmon-seed. hulls: ik ee 8.50 per ton. STINE 2 ae ARE Si a 2.50 per ton. ISLS ih/ us 23 Se eee a 7.00 per ton. The crops from which the silage was made were grown on Colonel Bugbee’s place. Though the actual cost of production— including rental value of the land, the preparation of the soil, planting, and cultivating the crops and placing them in the si was estimated to be considerably less than $2,50 a ton, this price is placed on the silage because it is thought that it represents more nearly what the average cost of production would be throughout the State. —~. Plan of Experiment The afternoon of December 7, 1911, the steers were divided into two lots, designated as Lot 1 and Lot 2, the former con- taining 15 head and the latter 25 head. The division was made as equally as possible with regard to average weight, quality, and breeding. Only 15 head were used in Lot 1 for the reason that this number was considered sufficien to eliminate any dif- ferences in the result that might be attributed to differences in individuality, and because it was not desirable to purchase any more cotton-seed hulls than was necessary to conduct the experi- ment properly. The pens in which the cattle were fed were practically equal in-all conditions that might have had a bearing on the results. Each had a shed open on the south side which afforded protec- ‘tion against the ccld north wind to some extent, but which did little more than this as will be explained later. The cattle in both pens had free access to salt and water at all times. The two lots were fed as follows: Lot 1. Cotton-seed meal and cotton-seed hulls. Lot 2. Cotton-seed meal, silage, and, during a part of the ex- periment, mixed sorghum and Johnson grass hay: The cattle were fed twice daily, early in the morning and late in the afternoon. The meal and hulls were thoroughly mixed together in the feed trough. The silage was placed in the trough, the meal sprinkled over it, and then the two feeds were thor- oughly mixed together with an ordinary hull fork. The hay was supplied in a separate trough, though a rack would have been better. A preliminary feeding period of a few days would have been desirable in order to get the cattle to eating well before begin- ning the actual test, but on account of the late date, the experi- ment proper was begun on the day of the first feeding. = 35= The Feeding Test The experiment covered a period of 119 days, from the morn- ing of December 8, 1911, to the evening feed of April 4, 1912. -The rations per steer for the first day were as follows: Lot. 1. Three pounds cotton-seed meal, 19 1-3 pounds cotton- seed hulls. Lot 2. Three pounds cotton-seed meal, 24 1-5 pounds silage. Hay was added to the ration of Lot 2 on January 8. This adition was made because the steers in this lot were not eating a sufficient quantity of the silage, possibly because of its succu- lent character, to afford them as much dry matter as was being | consumed by those in Lot 1. It was found, however, that the steers did not take to the hay very readily; indeed, they did not — seem to relish it at any time, though they were supplied with it until the end of the experiment: It is doubtful, therefore, whether the addition of hay proved to be of any advantage. The average daily amount consumed per steer was shghtly over 3 pounds. After the first few days as much hulls for Lot 1 and as much silage for Lot 2 were supplied as the steers would clean up, the daily amounts for each steer being about 28 2-3 pounds of hulls, and about 50 pounds of silage, respectively. The cotton-seed meal for both lots was gradually increased. On January 6 the amount. reached 6 pounds a head daily for each lot, this amount remaining unchanged until February 11, when 7 pounds a head daily was fed. When, therefore, the steers were on full feed their rations were as follows: Lot 1. Seven pounds cotton-seed meal, 30 pounds seed hulls. Lot 2. Seven pounds cotton-seed meal, 50 pounds silage, 3 pounds hay. The writer feels confident that the results would have been more satisfactory if a smaller quantity of meal had been fed. There was one steer, in particular, in Lot 1 that showed the evil effects of the heavy meal feeding towards the end of the experi- ment. Though Lot 2 received the same quantity of meal per steer there were apparently no injurious effects—a fact which © would seem to indicate that a larger quantity of meal may be fed successfully in connection with silage than with hulls, or that the injurious effects of the meal may, at least to some extent, be counteracted by the silage. For a feeding period of 119 days, with cattle of the weight of those used, better results should have been obtained, especially in Lot 1 and probably in Lot 2 also, if the quantity of meal and been increased gradually from 3 pounds at the start to 5 pounds pein gois eS ee at the end of 40 days; continued on this amount until the end of 80 days and then increased to 6 pounds for the remainder of the period. A great mistake made by many feeders in Texas is that they do not feed their cattle sufficiently long to finish them; As a general rule the higher price received for finished cattle will _ more than pay for the 30 to 60 days of extra feeding necessary to finish them. It is rarely the case that cattle are in proper condition to be marketed at the end of 120 days of feeding. Three or four-year-old steers should generally be fed 150 days and younger cattle a still longer period, two-year-olds requiring about 180 days. It is, however, less practicable to carry cattle on straight meal and hulls for longer than 120 days than on many other kinds of rations. The eattle that were used in this experiment were not finished _ when they were marketed, and it is believed that had they been fed 30 days longer the results would have been more profitable, provided the quantity of meal previously fed had been such as to permit of further feeding, which, however, was not the case. Though, apparently, the silage-fed steers could have been fed longer without injurious effects, it would probably have been better for them as well as for the hulls-fed steers, if the feeding was to have lasted 150 days, for the allowance of meal to have been about as follows: Two to 214 pounds of meal for the first thirty days; 3 to 3144 pounds for the second 30 days; 4 to 444 pounds for the third 30 days; and 5 pounds for the last 60 days; the increases to have been made gradually or not at a greater rate than about 14 pound per day: There was no trouble in getting either lot of steers to eating well, but it was very noticeable from the beginning to the end of the experiment that the steers of Lot 2 relished their ration of meal and silage much more than the steers of Lot 1 relished their ration of meal and hulls. The steers in Lot 2 would eat the silage about as readily before the meal was mixed with it as afterwards, whereas those in Lot 1 did not care for the hulls until after the meal was mixed with it. The droppings from the steers of both were in good condition ~ throughout the experiment, no scouring or digestive disorders being indicated. The weather conditions were Seenally severe during the greater portion of the period that the expriment was in progress. A few days after the cattle were started on feed a heavy snow fell and in melting placed the pens and the space under the sheds in very bad condition. This was followed by alternate freezing and thawing, so that when the ground was not frozen the mud was knee deep. The steers’ feet became very sore and for several days it seemed to be an effort for them to get to the SRC aan feed troughs. These conditions begain about December 19, and with the snows that fell in February, the pens and sheds were kept in such a bad condition until near the close of the experi- ment that there was no dry place for the cattle to lhe down. Neither lot, therefore, made the gains that they should have made had the conditions been tiene The final results of the experiment are shown in the following table : TABLE II. a | S BSS ON | = S Ms ie o 8p Ky Z| = a =I 5 FA oD of 2 es ie Gis a eS Sr oy 54) SS me 4S ‘=| og] 2 ss aia o's Be be | © we 4 Pairs ep ® & saree 33 ee: ES on 4 oD) & Di) de o & mo a 4 eS apa | gy car? | on a8 og a a iS) = & eee Sn =| =} Ewe co Se Orth Se a) =>)