TALKS ON MANURES A SERIES OF FAMILIAR AND PRACTICAL TALKS BETWEEN THE AUTHOR AND THE DEACON, THE DOCTOR, AND OTHER NEIGHBORS, ON THE WHOLE SUBJECT
TEXT
Results for Same. Open a page to see the matches highlighted.
Page 1 6 matches
o the American Farmer.-- The growth of Wheat Year after Year on the same Land, unmanured, with Farm-yard Manure, and with various Organic and Inorganic Fertilizers.
Page 2 4 matches
immediately active and available. It is unquestionably true, that the same amount of nitrogen in barn-yard manure, will not produce so great an effect as its theoretical value would in
Page 3 4 matches
for twenty-seven years, there has been a great loss of nitrogen. The same remarks apply to this case. No one ever advocates summer-fallowing land every other year, and sowing nothing
Page 4 4 matches
d grass, root, stem, and branch, all are composed or made up of these same dozen elements. If I ask you what bread is made of, you say it is composed of the dozen elements aforesaid. I
Page 5 2 matches
refreshes the plants, and fills the leaves with sap, precisely in the same way. All these fertilizing effects, however, belong to climate. It is inaccurate to associate either mulching
Page 6 7 matches
and on the other. This will give you some good, rich muck, and at the same time drain your swamp. Then cut some _under-drains_ from _y_ towards the higher land at _w_, _v_, and _h_, an
Page 7 4 matches
om the soil. In this way the “condition” of the soil would remain the same. If we sell _less_ than we develop, the condition of the soil will improve. By “condition,” I mean the amoun
Page 8 3 matches
ed at the breweries with the “grains,” and are sold to milkmen at the same price--from 12 to 15 cents per bushel. Where their value is not known, they can, doubtless, be sometimes obta
Page 9 10 matches
enting in an exposed heap for six months, it still contains about the same _percentage_ of water. When kept in the heap until August, the percentage of water is much greater. Of four t
Page 10 3 matches
gen, and 30¾ lbs. of soluble mineral matter. If they buy a ton of the same manure that has been kept under cover until February, they get, nitrogen, 15 lbs.; soluble minerals, 42½ lbs.
Page 11 2 matches
, and the manure becomes rapidly deteriorated in value, whilst at the same time it is diminished in weight. “21. Well-rotten dung is more readily affected by the deteriorating influen
Page 12 3 matches
garden, more than two loads of the straw and corn manure. To get the same amount of nitrogen, phosphoric acid, and potash, you have to spend more than twice the labor in cleaning out
Page 13 2 matches
imes, when comparatively dry, we use the refuse sheep bedding for the same purpose. Where the sheep barn is contiguous to the pig-pens, and when the sheep bedding can be thrown at once
Page 14 8 matches
iately available. It makes it more soluble. We ferment manure for the same reason that we decompose bone-dust or mineral phosphates with sulphuric acid, and convert them into superphos
Page 15 4 matches
nd in the manure.” How to keep cows tied up in the barn, and at the same time save all the urine, is one of the most difficult problems I have to deal with in the management of manur
Page 16 1 match
nd supporting 20 cows, would give us a gross return of $1,204.50. The same farm so improved as to produce 2¼ tons of hay or its equivalent, per acre--fed to 20 cows _capable of eating,
Page 17 1 match
this, his land has been growing richer and richer. And, in fact, the same is true of Mr. Geddes’ farm. It is richer land to-day than when first plowed, while there is one field that f
Page 18 9 matches
80.4 ” ” ” ” Fresh solid cow-dung contains, according to the same authority, 90 per cent of water. I have frequently seen manure drawn out in the spring, that had not been de
Page 19 2 matches
arch, April, May, and June, than wheat; and, consequently, to get the same amount of food, it is not necessary that the clover should have as much nitrogen, phosphoric acid, potash, et
Page 20 7 matches
es of wheat, and as much potash as the produce from five acres of the same crop. Clover thus unquestionably removes from the land very much more mineral matter than does wheat; wheat,
Page 21 2 matches
s, containing 61 lbs. of nitrogen; that is, there was very nearly the same quantity of roots and nitrogen in them, as that furnished in the soil from the brow of the hill. “The roots,
Page 22 4 matches
f nitrogen per acre, that is, considerably more than was found in the same section of the soil where the clover was mown twice for hay; showing plainly, that during the ripening of the
Page 23 3 matches
cre, and contained 100 lbs. of nitrogen. A few yards distance, on the same soil, where the clover was bad, the acre of roots contained only 31 lbs. of nitrogen per acre. So far, so go
Page 24 3 matches
ments at Rothamsted on the Growth of Wheat, Year After Year, on the Same Land. Table 1.--Manures And Produce; 1st Season, 1843-4. Manures and Seed (Old Red Lammas) Sown Autumn 1
Page 25 3 matches
f manure again in 1845?” “Precisely that, Deacon,” said I, “and this same plot has received this amount of manure every year since, up to the present time--for these same experiments
Page 26 4 matches
of corn and 789 lbs. of straw, which was the increase obtained by the same amount of ammoniacal salt on 10_a_, as compared with 10_b_. “It will be observed, however, that in the forme
Page 27 3 matches
monia-salts alone on plot 10_a_, gave 19¼ bushels per acre, while the same quantity of ammonia, with superphosphate in addition, gave, on plot 9_b_, 25 bushels per acre. The addition
Page 28 9 matches
--“What have you here?” --“Ammonia,” said I; and at 6_b_ he asked the same question, and I replied “ammonia.” At 7_a_, the same question and the same answer. Standing between 7_b_ and
Page 29 6 matches
that the next year and the year after, the salt _was_ applied at the same time as the other manures. It gave an increase of 94 lbs. of grain and 61 lbs. of straw in 1851, but the foll
Page 30 2 matches
uite 29 bushels per acre, and only weighed 55 lbs. per bushel. On the same plot, the year before, with precisely the same manure, the yield was nearly 37 bushels per acre, and the weig
Page 31 3 matches
e consider that this is the twentieth wheat-crop in succession on the same land, these figures are certainly remarkable. “They are so,” said the Deacon, “and what to me is the most su
Page 32 6 matches
king them together in a bottle, and allowing the soil to subside, the same result was obtained. The action, therefore, was in no way referable to any physical law brought into operatio
Page 33 13 matches
s in the spring assumed a rich, dark green color. I have observed the same effect where coal-ashes were spread on grass-land; and I have thought that the apparent benefit was due large
Page 34 3 matches
shes Experiments on the Growth of Barley, Year After Year, on the Same Land, Without Manure, and With Different Descriptions of Manure, Hoos Field, Rothamsted, England. Tabl
Page 35 1 match
rs.] Experiments on the Growth of Barley, Year After Year, on the Same Land, Without Manure, and With Different Descriptions of Manure, Hoos Field, Rothamsted, England. Tabl
Page 36 6 matches
traw. “That will do,” said the Deacon, “but I see that in 1857, this same plot, with the same manure, produced 66½ bushels of dressed grain per acre, weighing 53½ lbs. to the bushel,
Page 37 3 matches
nips does not enrich land for grain crops. Turnips were grown on the same land, year after year, for ten years. The land was then plowed and sown to barley for three years. The follow
Page 38 8 matches
them. In 1857, I made the following experiments on potatoes, in the same field on which the preceding experiment was made in 1852. In this case, as before, the land was a two-year-o
Page 39 2 matches
n autumn, has afforded a yield of about 70 bushels per acre, when the same amount applied in spring, gave only 50 bushels. A thin coating of manure applied to winter-wheat at the time
Page 40 10 matches
And such facts and experiments as we have, seem to indicate that the same is also true of Indian corn. It is, at any rate, reasonable to suppose that, as Indian corn belongs to the sa
Page 41 13 matches
Plot 10, with 400 lbs. of unleached wood-ashes per acre, produces the same quantity of _sound corn_, with an extra bushel of ‘nubbins’ per acre, as plot 1, without any manure at all; a
Page 42 9 matches
gave an increase of 14½ tons per acre. And the following year, on the same land, it gave an increase of 13½ tons; and the next year, on the same land, over 9 tons.” “Yes,” said I, “th
Page 43 6 matches
res did any good. Ellwanger & Barry also tried them, and reported the same negative result. This was several years ago, and I do not think any similar experiments have been made since.
Page 44 2 matches
e land_, $1.06. “A ton of the fresh fæces,” said the Deacon, “at the same estimate, would be worth (20 lbs. nitrogen, at 20 cents, $4; 21¾ lbs. phosphoric acid, at 12½ cents, $2.70),
Page 45 6 matches
ticle.” As to whether it is better, when you can buy nitrogen at the same price in nitrate of soda as you can in sulphate of ammonia, to use the one or the other will depend on circum
Page 46 9 matches
crop of wheat. And the experience of farmers everywhere tends in the same direction. England is the greatest turnip-growing country in the world, and you will find that where one farm
Page 47 8 matches
e, this was to be expected, and they had expected it much sooner. The same with wheat; he expected the end would come in a few years, but they had now gone on between 30 and 40 years.
Page 48 2 matches
y giving to it the food necessary to grow good grasses, sowing at the same time a small quantity of the best seeds. I further suggested that a flock of sheep should be allowed to run o
Page 49 4 matches
se in the fall for wheat, on land that has been cropped with oats the same year. The manure put on for potatoes is generally estimated to enrich the land sufficient for it to produce o
Page 53 1 match
ng for, 35-168 ” the 20th Crop on Same Land, 213 ” Top-dressing for, 270 ”
Page 54 2 matches
value.” “Suppose, Deacon,” said he _quotation marks as in original (same speaker)_ carbonaceous matter and water, of little or no value?” _text has question mark after close quote_
manure, will almost invariably give us a greatly increased yield of
grain crops. I should expect, on my farm, that on land which, without
manure, would give me 15 bushels of wheat per acre, such a dressing of
manure would give me, in a favorable season, 35 or 40 bushels per acre,
with a proportional increase of straw; and, in addition to this, there
would be considerable nitrogen left for the following crop of clover. Is
it not worth while making an earnest effort to get this 80 lbs. of
available nitrogen?
I have on my farm many acres of low, mucky land, bordering on the creek,
that probably contain several thousand pounds of nitrogen per acre. So
long as the land is surcharged with water, this nitrogen, and other
plant-food, lies dormant. But drain it, and let in the air, and the
oxygen decomposes the organic matter, and ammonia and nitric acid are
produced. In other words, we get _available_ nitrogen and other
plant-food, and the land becomes capable of producing large crops of
corn and grass; and the crops obtained from this low, rich land, will
make manure for the poorer, upland portions of the farm.
CHAPTER V.
SWAMP-MUCK OR PEAT AS MANURE.
“It would pay you,” said the Deacon, “to draw out 200 or 300 loads of
muck from the swamp every year, and compost it with your manure.”
This may or may not be the case. It depends on the composition of the
muck, and how much labor it takes to handle it.
“What you should do,” said the Doctor, “is to commence at the creek, and
straighten it. Take a gang of men, and be with them with yourself, or
get a good foreman to direct operations. Commence at _a_, and straighten
the creek to _b_, and from _b_ to _c_ (see map on next page). Throw all
the rich, black muck in a heap by itself, separate from the sand. You,
or your foreman, must be there, or you will not get this done. A good
ditcher will throw out a great mass of this loose muck and sand in a
day; and you want him to dig, not think. You must do the thinking, and
tell him which is muck, and which is only sand and dirt. When thrown up,
this muck, in our dry, hot climate, will, in the course of a few months,
part with a large amount of water, and it can then be drawn to the barns
and stables, and used for bedding, or for composting with manure. Or if
you do not want to draw it to the barn, get some refuse lime from the
lime-kiln, and mix it with the muck after it has been thrown up a few
weeks, and is partially dry. Turn over the heap, and put a few bushels
of lime to every cord of the muck, mixing the lime and muck together,
leaving the heap in a compact form, and in good shape, to shed the rain.
“When you have straightened, and cleaned out, and deepened the creek,”
continued the Doctor, “commence at _z_ on the new creek, and cut a ditch
through the swamp to _y_. Throw the muck on one side, and the sand on
the other. This will give you some good, rich muck, and at the same time
drain your swamp. Then cut some _under-drains_ from _y_ towards the
higher land at _w_, _v_, and _h_, and from _f_ to _x_. These will drain
your land, and set free the inert plant-food, and such crops of timothy
as you will get from this swamp will astonish the natives, and your bill
for medical attendance and quinine will sink to zero.”
[Illustration: Map of Creek.]
The Doctor is right. There is money and health in the plan.
Prof. S. W. Johnson, as chemist to the Conn. State Ag. Society, made
accurate analyses of 33 samples of peat and muck sent him by gentlemen
from different parts of the State. The amount of potential ammonia in
the chemically dry peat was found to vary from 0.58 in the poorest, to
4.06 per cent in the richest samples. In other words, one deposit of
muck may contain seven times as much nitrogen as another, and it would
be well before spending much money in drawing out muck for manure to
send a sample of it to some good chemist. A bed of swamp-muck, easily
accessible, and containing 3 per cent of nitrogen, would be a mine of
wealth to any farmer. One ton of such muck, dry, would contain more
nitrogen than 7 tons of straw.
“It would be capital stuff,” said the Deacon, “to put in your pig-pens
to absorb the urine. It would make rich manure.”
“That is so,” said I, “and the weak point in my pig-breeding is the want
of sufficient straw. Pigs use up more bedding than any other animals.
I have over 200 pigs, and I could use a ton of dry muck to each pig
every winter to great advantage. The pens would be drier, the pigs
healthier, and the manure richer.”
The Doctor here interrupted us. “I see,” said he, “that the average
amount of ammonia in the 33 samples of dry peat analyzed by Professor
Johnson is 2.07 per cent. I had no idea that muck was so rich. Barn-yard
manure, or the manure from the horse stables in the cities, contains
only half a per cent (0.5) of ammonia, and it is an unusually rich
manure that contains one per cent. We are safe in saying that a ton of
dry muck, on the average, contains at least twice as much potential
ammonia as the average of our best and richest stable-manure.”
CHAPTER VI.
WHAT IS POTENTIAL AMMONIA?
“You say,” said the Deacon, “that dry muck contains twice as much
‘_potential ammonia_’ as manure?”
“Yes,” said the Doctor, “it contains three or four times as much as the
half-rotted straw and stalks you call manure.”
“But what do you mean,” asked the Deacon, “by ‘_potential_ ammonia?’”
“It is a term,” said the Doctor, “we used to hear much more frequently
than we do now. Ammonia is composed of 14 lbs. of nitrogen and 3 lbs. of
hydrogen; and if, on analysis, a guano or other manure was found to
contain, in whatever form, 7 per cent of nitrogen, the chemist reported
that he found in it 8½ per cent of ‘potential’ ammonia. Dried blood
contains no ammonia, but if it contained 14 per cent of nitrogen, the
chemist would be justified in saying it contained 17 per cent of
potential ammonia, from the fact that the dried blood, by fermentation,
is capable of yielding this amount of ammonia. We say a ton of common
horse-manure contains 10 or 12 lbs. of potential ammonia. If perfectly
fresh, it may not contain a particle of ammonia; but it contains
nitrogen enough to produce, by fermentation, 10 or 12 lbs. of ammonia.
And when it is said that dry swamp-muck contains, on the average, 2.07
per cent of potential ammonia, it simply means that it contains nitrogen
enough to produce this amount of ammonia. In point of fact, I suppose
muck, when dug fresh from the swamp, contains no ammonia. Ammonia is
quite soluble in water, and if there was any ammonia in the swamp-muck,
it would soon be washed out. The nitrogen, or ‘potential ammonia,’ in
the muck exists in an inert, insoluble form, and before the muck will
yield up this nitrogen to plants, it is necessary, in some way, to
ferment or decompose it. But this is a point we will discuss at a future
meeting.”
CHAPTER VII.
TILLAGE IS MANURE.
The Doctor has been invited to deliver a lecture on manure before our
local Farmers’ Club. “The etymological meaning of the word manure,” he
said, “is _hand labor_, from _main_, hand, and _ouvrer_, to work. To
manure the land originally meant to cultivate it, to hoe, to dig, to
plow, to harrow, or stir it in any way so as to expose its particles to
the oxygen of the atmosphere, and thus render its latent elements
assimilable by plants.
“When our first parent,” he continued, “was sent forth from the Garden
of Eden to till the ground from whence he was taken, he probably did not
know that the means necessary to kill the thorns and thistles enhanced
the productiveness of the soil, yet such was undoubtedly the case.
“The farmer for centuries was simply a ‘tiller of the ground.’ Guano,
though formed, according to some eminent authorities, long ages before
the creation of man, was not then known. The coprolites lay undisturbed
in countless numbers in the lias, the greensand, and the Suffolk crag.
Charleston phosphates were unknown. Superphosphate, sulphate of ammonia,
nitrate of soda, and kainit were not dreamed of. Nothing was said about
the mineral manure theory, or the exhaustion of the soil. There were no
frauds in artificial fertilizers; no Experiment Stations. The earth,
fresh from the hands of its Creator, needed only to be ‘tickled with a
hoe to laugh with a harvest.’ Nothing was said about the value of the
manure obtained from the consumption of a ton of oil-cake, or
malt-combs, or bran, or clover-hay. For many centuries, the hoe, the
spade, and the rake constituted Adam’s whole stock in trade.
“At length,” continued the Doctor, “a great discovery was made. A Roman
farmer--probably a prominent Granger--stumbled on a mighty truth.
Manuring the land--that is, hoeing and cultivating it--increased its
fertility. This was well known--had been known for ages, and acted upon;
but this Roman farmer, Stercutius, who was a close observer, discovered
that the _droppings of animals_ had the same effect as hoeing. No wonder
these idolatrous people voted him a god. They thought there would be no
more old-fashioned manuring; no more hoeing.
“Of course they were mistaken,” continued the Doctor, “our arable land
will always need plowing and cultivating to kill weeds. Manure, in the
sense in which we now use the term, is only a partial substitute for
tillage, and tillage is only a partial substitute for manure; but it is
well to bear in mind that the words mean the same thing, and the effects
of both are, to a certain extent, identical. Tillage is manure, and
manure is tillage.”
CHAPTER VIII.
SUMMER-FALLOWING.
This is not the place to discuss the merits, or demerits, of fallowing.
But an intelligent Ohio farmer writes me: --“I see that you recommend
fallow plowing, what are your reasons? Granting that the _immediate_
result is an increased crop, is not the land impoverished? Will not the
thorough cultivation of corn, or potatoes, answer as well?” And a
distinguished farmer, of this State, in a recent communication expressed
the same idea--that summer-fallowing would soon impoverish the land. But
if this is the case, the fault is not in the practice of
summer-fallowing, but in growing too many grain crops, and selling them,
instead of consuming them on the farm. Take two fields; summer-fallow
one, and sow it to wheat. Plant the other to corn, and sow wheat after
it in the fall. You get, say 35 bushels of wheat per acre from the
summer-fallow. From the other field you get, say, 30 bushels of shelled
corn per acre, and 10 bushels of wheat afterwards. Now, where a farmer
is in the habit of selling all his wheat, and consuming all his corn on
the farm, it is evident that the practice of summer-fallowing will
impoverish the soil more rapidly than the system of growing corn
followed by wheat--and for the simple reason that more wheat is sold
from the farm. If no more grain is sold in one case than in the other,
the summer-fallowing will not impoverish the soil any more than corn
growing.
My idea of fallowing is this:--The soil and the atmosphere furnish, on
good, well cultivated land, plant-food sufficient, say, for 15 bushels
of wheat per acre, _every year_. It will be sometimes more, and
sometimes less, according to the season and the character of the soil,
but on good, strong limestone land this may be taken as about the
average. To grow wheat every year in crops of 15 bushels per acre, would
impoverish the soil just as much as to summer-fallow and get 30 bushels
of wheat every other year. It is the same thing in either case. But in
summer-fallowing, we clean the land, and the _profits_ from a crop of 30
bushels per acre every other year, are much more than from two crops of
15 bushels every year. You know that Mr. Lawes has a field of about
thirteen acres that he sows with wheat every year. On the plot that
receives no manure of any kind, the crop, for twenty years, averaged 16¼
bushels per acre. It is plowed twice every year, and the wheat is
hand-hoed in the spring to keep it clean. A few years ago, in a field
adjoining this experimental wheat field, and that is of the same
character of land, he made the following experiment. The land, after
wheat, was fallowed, and then sown to wheat; then fallowed the next
year, and again sown to wheat, and the next year it was sown to wheat
after wheat. The following is the result compared with the yield of the
continuously unmanured plot in the experimental field that is sown to
wheat every year:
1. Year--No. 1--Fallow No crop.
No. 2--Wheat after wheat 15 bushels 3½ pecks per acre.
2. Year--No. 1--Wheat after fallow 37 ” -- ” ”
No. 2--Wheat after wheat 13 ” 3¼ ” ”
3. Year--No. 1--Fallow after wheat No crop.
No. 2--Wheat after wheat 15 bushels 3¼ pecks per acre.
4. Year--No. 1--Wheat after fallow 42 ” -- ” ”
No. 2--Wheat after wheat 21 ” 0¼ ” ”
5. Year--No. 1--Wheat after wheat 17 ” 1¼ ” ”
No. 2--Wheat after wheat 17 ” -- ” ”
Taking the first four years, we have a total yield from the plot sown
every year of 66 bushels 2¼ pecks, and from the two crops alternately
fallowed, a total yield of 79 bushels. The next year, when wheat was
sown after wheat on the land previously fallowed, the yield was almost
identical with the yield from the plot that has grown wheat after wheat
for so many years.
So far, these results do not indicate any exhaustion from the practice
of fallowing. On the other hand, they tend to show that we can get
_more_ wheat by sowing it every other year, than by cropping it every
year in succession. The reason for this may be found in the fact that in
a fallow the land is more frequently exposed to the atmosphere by
repeated plowings and harrowings; and it should be borne in mind that
the effect of stirring the land is not necessarily in proportion to the
total amount of stirring, but is according to the number of times that
fresh particles of soil are exposed to the atmosphere. Two plowings and
two harrowings in one week, will not do as much good as two plowings and
two harrowings, at different times in the course of three or four
months. It is for this reason that I object, theoretically, to sowing
wheat after barley. We often plow the barley stubble twice, and spend
considerable labor in getting the land into good condition; but it is
generally all done in the course of ten days or two weeks. We do not get
any adequate benefit for this labor. We can kill weeds readily at this
season, (August), but the stirring of the soil does not develope the
latent plant-food to the extent it would if the work was not necessarily
done in such a limited period. I say _theoretically_, for in point of
fact I _do_ sow wheat after barley. I do so because it is very
convenient, and because it is more immediately profitable. I am
satisfied, however, that _in the end_ it would be more profitable to
seed down the barley with clover.
We _must_ raise larger crops; and to do this we must raise them less
frequently. This is the key-note of the coming improved system of
American agriculture, in all sections where good land is worth less than
one hundred dollars per acre. In the neighborhood of large cities, and
wherever land commands a high price, we must keep our farms in a high
state of fertility by the purchase of manures or cattle foods. Those of
us in the interior, where we can not buy manure, must raise fewer grain
crops, and more clover. We must aim to raise 40 bushels of wheat, 50
bushels of barley, 80 bushels of oats, and 100 bushels of shelled corn,
and 5 bushels of clover-seed per acre. That this can be done on good,
well-drained land, from the unaided resources of the farm, I have no
doubt. It may give us no more grain to sell than at present, but it will
enable us to produce much more mutton, wool, beef, cheese, butter, and
pork, than at present.
“But, then, will there be a demand for the meat, wool, etc.?” The
present indications are highly favorable. But we must aim to raise
_good_ meat. The low-priced beef and mutton sold in our markets are as
unprofitable to the consumer as they are to the producer. We must feed
higher, and to do this to advantage we must have improved stock. There
is no profit in farming without good tillage, larger crops, improved
stock, and higher feeding. The details will be modified by
circumstances, but the principles are the same wherever agri-_culture_
is practised.
CHAPTER IX.
HOW TO RESTORE A WORN-OUT FARM.
I have never yet seen a “worn-out” or “exhausted farm.” I know many
farms that are “run down.” I bought just such a farm a dozen or more
years ago, and I have been trying hard, ever since, to bring it up to a
profitable standard of productiveness--and am still trying, and expect
to have to keep on trying so long as I keep on farming. The truth is,
there never was a farm so rich, that the farmer did not wish it was
richer.
I have succeeded in making the larger part of my farm much more
productive than it ever was before, since it was cleared from the
original forest. But it is far from being as rich as I want it. The
truth is, God sent us into this world to work, and He has given us
plenty to do, if we will only do it. At any rate, this is true of
farming. He has not given us land ready to our hand. The man who first
cleared up my farm, had no easy task. He fairly earned all the good
crops he ever got from it. I have never begrudged him one particle of
the “natural manure” he took out of the land, in the form of wheat,
corn, oats, and hay. On the dry, sandy knolls, he probably got out a
good portion of this natural manure, but on the wetter and heavier
portions of the farm, he probably did not get out one-hundredth part of
the natural manure which the land contained.
Now, when such a farm came into my possession, what was I to do with it?
“Tell us what you did,” said the Doctor, “and then, perhaps, we can tell
you what you ought to have done, and what you ought to have left
undone.”
“I made many mistakes.”
“Amen,” said the Deacon; “I am glad to hear you acknowledge it.”
“Well,” said the Doctor, “it is better to make mistakes in trying to do
something, than to hug our self-esteem, and fold our hands in indolence.
It has been said that critics are men who have failed in their
undertakings. But I rather think the most disagreeable, and
self-satisfied critics, are men who have never done anything, or tried
to do anything, themselves.”
The Deacon, who, though something of an old fogy, is a good deal of a
man, and possessed of good common sense, and much experience, took these
remarks kindly. “Well,” said he to me, “I must say that your farm has
certainly improved, but you did things so differently from what we
expected, that we could not see what you were driving at.”
“I can tell you what I have been aiming at all along. 1st. To drain the
wet portions of the arable land. 2d. To kill weeds, and make the soil
mellow and clean. 3d. To make more manure.”
“You have also bought some bone-dust, superphosphate, and other
artificial manures.”
“True; and if I had had more money I would have bought more manure. It
would have paid well. I could have made my land as rich as it is now in
half the time.”
I had to depend principally on the natural resources of the land. I got
out of the soil all I could, and kept as much of it as possible on the
farm. One of the mistakes I made was, in breaking up too much land, and
putting in too much wheat, barley, oats, peas, and corn. It would have
been better for my pocket, though possibly not so good for the farm, if
I had left more of the land in grass, and also, if I had summer-fallowed
more, and sown less barley and oats, and planted less corn.
“I do not see how plowing up the grass land,” said the Deacon, “could
This page is an AI-organised index. The label means the grouping and cross-links were compiled with AI; the information itself comes from the public-domain books, reports and manuals listed below. Open any source to read the local copy or follow the link to the original publication.
PUBLIC-DOMAIN BOOK
Talks on Manures A Series of Familiar and Practical Talks Between the Author and the Deacon, the Doctor, and Other Neighbors, on the Whole Subject
primary
Full text in the local archive
Bibliographic record from the archive catalogue.