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8 THE HOP.
generally combined, the manure from the cattle being
needed to fertilize the hop roots. Hop growing often
proves a failure with small growers, owing partly to
disease and parasites and partly to low prices. The
small grower also is occupied with other crops and has
not time to give as much care and attention to the hop
yards as they deserve, the plant being prompt to resent
any neglect. It is in the small yards that lack of culti-
vation is so common, together with carelessness in
tending the crop, looking after the poles, or tying the
vines. The largest yard in New York state is that of
James F. Clark, whose yard, near Cooperstown, covers
150 acres, which are always brought to a high state of
cultivation. Waterville, Cooperstown and Schoharie
are the market centers for New York state hops.
Wisconsin embarked in hop culture in the early
sixties, and by 1869 the federal census showed a crop of
25,000 bales. This has never since been equaled or
exceeded. Ten years later, Wisconsin produced less
than half that quantity of hops, and since then its
product has steadily diminished, never exceeding half
a million pounds. The crop has been reduced by lice,
and comparatively few growers gave it the attention
bestowed upon hops in New York. Wisconsin plan-
tations are now confined to a few large yards of from
10 to 100 acres, less than 1,000 acres being devoted to
the crop and often but a fraction of the area is worth
picking.
California led off in the introduction of hop culture
to the Pacific coast. Daniel Flint brought the first
hops into the Golden state, in 1857, from Vermont.
He persisted in their culture almost alone until the leg-
islature of 1863 voted him $1000 as a reward for dem-
onstrating the possibilities of this new crop in the Sac-
ramento valley. From 8000 bales in 1869, the California
crop has jumped to some 50,000 bales, grown on some
7500 acres, compared to iioo acres in 1879. The
ORIGIIT AND SPREAD. 9
largest hop plantations in the world are along the rich
alluvial bottom lands of the Sacramento, Russian and
Feather rivers in California. The size of a hop farm
in that state ranges all the way from lo to 300 acres,
the latter being the size of the Pleasanton plantation,
Alameda county, where at harvest time as many as
1500 to 2000 pickers are employed. The principal hop
growing counties are Sonoma, Sacramento, Mendo-
cino, Alameda, Yolo, Yuba, San Joaquin.
Orcgojis commercial hop industry dates from
about 1880, and has been characterized by wide fluctu-
ations in area devoted to the crop, likewise in yield and
quality. These violent changes are due partly to the
fact that on these rich soils hop cuttings planted in
spring will yield 800 to 1200 lbs. of cured hops in the
fall, while in New York state no crop is expected until
the second year, and not much until the third season
from planting, while in England and on the continent,
four years from planting are required for a full crop.
This apparent advantage has operated to the detriment
rather than to the benefit of the Pacific coast, especially
in Oregon and Washington, because it has led to hop
planting by inexperienced persons, or to the setting out
of larger plantations than the owners could properly
operate except by incurring heavy mortgages. Low
prices following overproduction have therefore ruined
a larger proportion of those who we'nt into hops on the
Pacific coast than in any other part of the world. The
industry in Oregon is now confined to the counties
west of the Cascade mountains, centering mainly in
Marion, Polk, Clackamas, Yamhill and Washington
counties.
In Washington, conditions are much similar to
those in the neighboring state of Oregon. Although
hops are being increasingly grown in the Yakima val-
ley east of the Cascades, and to a very limited extent in
the valley of the Columbia, Spokane and Snake rivers,
10 THE HOP.
the industry has long centered in King and Pierce
counties, in the rich plains and valleys running down to
FIG. 1. A THREE HUNDRED ACRE HOP FIELD NEARLY READY
TO PICK.
This is one of the largest blocks of hops grown in one field anywhere in the
world. It is at Pleasaiiton, Cal.
the inland sea. Lewis county, Southern Washington,
is also becoming quite a hop center. The statistics in
ORIGIN AND SPREAD. 11
the appendix show the marked variations that have
characterized the areas and yield.
FUTURE OF THE HOP INDUSTRY
Tlie IVorld's Siif'f'Iy of hops, it will be seen, comes
mainly from the United States, England and Germany.
Great Britain imports an average of 125,000 bales of
hops yearly, of which 65,000 come from the United
States and the balance from Europe. Germany ex-
ports about 130,000 bales per year, and imports some
20,000 bales; about 50,000 bales of her exports go to
Great Britain, the balance to other European countries
and to the United ^States. The limitation of the world's
market for hops is therefore clearly defined.
The appendix tables show how both area and yield
are fluctuating, and throw a flood of light on the pos-
sible monopoly" of the world's hop market by the
United States, and especially by our Pacific coast
states. The author believes such monopoly to be pos-
sible, at least to the extent of the United States produc-
ing the largest share of the world's consumption. To
that end, this book is written. But if the United
States is to achieve that distinction, it will be by im-
proving the quality of American hops until they are the
best in the world and by producing them at less cost
than they can be grown elsewhere.
The steady increase in the consumption of hops is
also apparent from the statistical appendix. While the
figures are not as perfect as desirable, because of the
obvious dif^culty of collecting full returns, thev dem-
onstrate a constant growth in the demand for hops.
Substitutes and adulterants check the use of hops to a
considerable extent, especially in seasons of scarcity,
and constitute an evil that must be suppressed. The
main reliance of the hop grower is the brewers' de-
mand. The consumption of beer, already enormous,
has increased astonishingly of late years, and bids fair
12 THE HOP
to continue to do so. Throughout the world the ten-
dency seems to be to replace the heavy beverages and
injurious Hquors with the hghter wines and beer.
Brewing makes a product so much cheaper
than wine that beer is destined to hold first place until
humanity reaches the stage in its evolution that is char-
acterized by total abstinence.
An increasing demand being thus assured, an-
other favorable influence is the fact that the value of
this crop is of late years being more governed by the
law ot supply and demand than formerly. The increas-
ing elTficiency of the crop reporting service, especially
that conducted by American Agriculturist in co-opera-
tion with hop growers, has done something to mitigate
the gambling that has characterized the selling of hops.
Much more could be done to place the industry on a
safer commercial basis, as suggested in the chapter on
marketing, but it will require years of effort to educate
growers up to the co-operation needed to accomplish
this purpose.
In spite of the peculiarities of the plant and of the
hop industry, as set forth in Chapters II and III, the
hop for many years will continue to be an agricultural
specialty that will yield profits according to the judg-
ment employed in its culture and sale.
Fia. 2. COMMENCEMENT OF POLE STACK.
CHAPTER II
PECULIARITIES OF THE INDUSTRY
HE hop industry may be re-
garded as a very peculiar one
in many respects. The area
upon which hops can be
grown is Hmited, owing to
pecuharities and necessary
conditions of soil and cli-
mate, not only in this coun-
try, but throughout the
world. Unfavorable weather
at the critical period of hop
development may almost ruin in a few days what had
promised to be a crop large in Cjuantity and fine in
quality. Earlier in the season, lice and other pests may
cause such injury that, even with ordinarily favorable
weather, the plant may not fully recuperate and the
yield will be poor.
These risks are more serious with hops than with
almost any other plant. Add the dangers usual to all
husbandry from drouths, wind, flood, frost, etc., and it
will be seen that on a given area the product and qual-
ity of hops may vary more widely from year to year
than is the case with almost any other crop. If, in
addition to these conditions, the area devoted to hops
should be suddenly enlarged; or, on the other hand, if
considerable areas should not be harvested, owing to
poor crops or low prices, wide fluctuations may occur
in the supply and quality of hops. These factors make
it difiicult to collect exact data about the production
of hops, even with the co-operation of growers. The
13
14
THE HOP.
FIG. 3. A NEW YORK HOP YARD.
Trained on long poles and cross strings.
PECULIARITIES OF THE INDUSTRY. " 15
absence of organization among growers in America,
and a still worse condition in this respect in England
and on the continent, adds to the uncertainty of even
the best efforts to ascertain the extent of the new crop.
The effect of these natural influences that favor
fluctuating supplies and prices, is heightened by arti-
ficial conditions. The movement of hops, as shown by
actual shipments, and by imports and exports, fails to
reveal the extent of old stocks in hands of dealers or
brewers. Under ideal conditions, hops can be kept in
cold storage for months without losing their virtue to
any great extent. Breweries are now equipped with
cold storage for this purpose, and brewers usually
make it a practice to stock up liberally when prices are
low, but as. practiced cold storage is not proving a suc-
cess. The quantity of hops used per barrel of beer
varies in different breweries to such an extent as to
afford but a shaky 1:>asis for computing consumption on
output of beer. It is asserted by some that fewer hops
per barrel of beer are now used than formerly, while
others claim to the contrary. It is now customary in
the American trade to estimate one pound of hops to be
used for each barrel of beer, against one and one-half
pounds twenty years ago, but this is somewhat arbi-
trary. When hops are dear, less is used per barrel
than when cheap, the deficiency being made good by
hop extract. or substitutes.
While the supply and the uncertainty about it thus
fluctuates, the demand is fairly constant in comparison.
Except in so far as substitutes are used, the demand for
hops is regulated by the consumption of beer, the
quantity used for medicinal or household purposes
really playing no part in the commercial question of
supply and demand. As the consumption of beer is
largest in Europe, where the population is most set-
tled, it is not liable to sudden increases or decreases,
and may be estimated with a very fair degree of accu-
16 THE HOP.
racy year in and year out. In America, however,
owing no doubt to the more sudden growth of our for-
eign population, the consumption of beer has increased
more than in Europe. The world's steady increase in
beer consumption indicates that the demand for hops
is not likely to vary to any great extent, such as would
warrant the planting of a much larger area in those
sections where climate and soil have been found suit-
able for hop cultivation.
Even additional taxation of beer has not materially
restricted consumption in the past and is not likely to
in the future. Duties on hops would affect their value
more than taxes on beer, yet the world's supply of hops
must in the long run govern prices. In a year of short
crops in the United States, a tariff of fifteen cents per
pound on imported hops would be of more benefit to
domestic producers than a duty of eight cents; in a
season of domestic overproduction, the highef' rate
would not much influence the price of domestic hops,
except possibly the fancy brands. In either case, the
higher duty would not affect the price of beer, and
therefore a moderately stiff tariff on imported hops is
a good thing for American growers. But as "the for-
eigner pays the tariff tax," it would be bad for hop
growers outside of England if the British Parliament
should impose a high duty on hops imported into Great
Britain, which is the market for the world's surplus
of hops.
It is fortunate that the hop area throughout the
world is limited, because, with an increased area avail-
able, the temptation would be such, in seasons of high
prices, as to induce farmers to increase their acreage
so as to thoroughly demoralize the market and depress
prices to a point that would cause a loss to all growers.
Such a condition has been experienced already more
than once. Then, again, the failure of the hop crop in
Europe has caused a heavy shortage in supply, with
PECULIARITIES OF THE INDUSTRY.
17
2i3
2»
S5 ^
(/I rj-
52 12!
c-
2c
n s
o -^
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18 THE HOP.
an extra demand for hops of American growth, for
which abnormal and unheaUhy prices have been paid,
— unheahhy because they gave a temporary fictitious
value to a staple crop, values which growers cannot
with any show of reason or certainty expect to realize
once in ten or twenty years. Yet the very fact that
such a price as $i per pound has been paid for hops
grown in this country, has stimulated farmers to largely
increase their area and even to plant hops in locations
that are not naturally adapted to their successful
growth. The result, of course, has always been an
oversupply with a heavy, dull, dragging market during
several years, when dealers secured the crops at their
own prices, which were not enough to pay the farmer
for the actual cost of production. These periods of
overproduction were followed by the destruction of
plantations, with a consequent loss of time and money,
till the market readjusted itself and became more set-
tled. Then, again, the temptation arises to increase
the production.
The wide fluctuations in the price of hops in the
past are therefore easily accounted for. The most sen-
sational was the advance to $i and over per pound of
the American crop in the fall of 1882, and a decline to
5c per pound three years later. Prices have since cov-
ered a wide range every season, though not to so
marked an extent as in the instance cited. The crop of
1893 was comparatively short as a whole, following
only medium crops for two or three years previous.
This led to an increased acreage; with favorable
weather the next two crops were the largest on record,
and prices of the 1895 crop fell fully as low as ten years
earlier. Growers seemed to have forgotten the lesson
of the early '8o's and made the same mistake a decade
later. In this, however, the hop planter is no different
from other people, for humanity has continued to make
the same mistake generation after generation.
PECULIARITIES OF THE INDUSTRY. 19
"The hop industry is a gamble," has therefore
come to be an axiom. Yet with all its uncertainties
this saving is not exactly true. Men who most per-
fectly understand the crop and most prudently allow
for its uncertainties,- have kept right along raising hops
year after year, aiming at marketing about an even
quantity of nice goods each season, and have found
the industry rather more profitable in the end than any
other crop grown in their neighborhood. It is fair to
say that such men are a minority, and that the majority
of American hop planters during the past forty years
have quit hop growing poorer than when they began.
Much can be done to reduce the artificial uncer-
tainties in the hop industry, also to mitigate the natural
causes of variation. One object of this book is to set
forth how this can be done, and thus to place the whole
hop industry on a surer basis.
USES OF THE HOP
The manufacture of beer and ale consumes prob-
ably 95 per cent, or more of the world's production of
hops. The oil from hops (that is, from the strobiles)
is used for medicinal purposes. A decoction of hops
is used in medicine for their tonic effect. Hops also
have a sedative action, and are prescribed for derange-
ments of the digestive organs attended by nervous
irritability. The hop extract or lupulin kept in drug
stores is preferred to the decoction for medicinal use.
For hot applications to the body, nothing will retain
heat or is more convenient for this purpose than a bag
or compress of hops. For a variety of purposes, in
household medicine, the hop is indispensable and
widely used, as well as for yeast. Hops are prepared
with a strong decoction of hops, oatmeal and water,
and make an excellent remedy for ulcers, which should
first be fomented with the decoction. A hop bath to
relieve pain has also been recommended by physicians
20
THE HOI*.
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O
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15
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P
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PECULIARITIES OF THE INDUSTRY. 21
for certain painful internal diseases, made by boiling
two pounds of hops in two gallons of water for half an
hour, then strain and press and add the fluid to about
thirty gallons of hot water. A pillow of hops induces
sleep. Hop tea is said to be good for the blood and
for fever.
The hop root contains much starchy matter and
considerable tannin, but has never been utilized for
these substances. The root has been used as a substi-
tute for sarsaparilla. The tender shoots, taken wdien
they just appear above ground, are cooked and eaten
like asparagus or greens, making a dainty bitter relish,
if the soil has been worked up so that the shoot is white
for a foot'or more. Hop buds are also used as a salad.
The stem of the hop plant contains a vegetable wax
and sap from which can be made a durable reddish
brown. Its ash is used in the manufacture of Bohe-
mian glass, and the vine also makes an excellent pulp
for paper. From its fiber, ropes and coarse textile
fabrics of considerable strength have been made. To
make hop cloth the stalks are cut, done up in bundles
and steeped like hemp, then dried in the sun, and
beaten with mallets to loosen the fibers, which are
afterward carded and woven in the usual way. Excel-
lent paper and cardboard can be made from hop vines
or roots, or from spent hops, and there are various
patents and processes for such products. The vine
being hollow, it is often used by boys for smoking pur-
poses or as stems for pipes.
Hop vines are usually burned after the crop is
gathered, but if pressed into stacks or pits while still
green they make an ensilage that is good feed for cat-
tle. In France, the fresh hop leaves are also saved and
fed with other forage to cattle. Valuable experience
on this point is afforded by T. M. Hopkins of Worces-
ter, England, who writes: "In October, I made two
stacks of hop vines i6 by i6 feet and i8 feet high. After
22
THE HOP.
letting it ferment freely it was pressed down with a
screw press and the next day was filled up again, and
when sufficiently fermented, again pressed down, this
process being repeated all through the hop picking.
By March I had used nearly the whole of it, and calcu-
late it saved me some 80 tons of hay. My horses have
had nothing else for two months, excepting their usual
allowance of corn, and I have never had them looking
better. I have also had 100 head of cattle, — stores, cows
and calves, — feeding on it, and they do well, the flow of
milk being increased. Dr. Voelcker has analyzed it
and says it contains plenty of good material, is decid-
edly rich in nitrogen, nor is the amount of organic acid
excessive or likely to harm cattle. Another chemist
says it contains more flesh-forming matter and less
indigestible fiber than hay. Planters should leave off
selling hops at a loss, but let the plant run wild, and
they may every season cut two or three immense crops
of material that will make silage of unexceptionable
quality."
CHAPTER III
CHARACTERISTICS OF THE PLANT
HERE is but one species
of hop, Humuhis liip'.Llws
though there are several
varieties. The hop plant is
naturally dioecious; that is,
the male (staminate) and
female (pistillate) flowers
occur on different plants.
Occasionally in a hop yard
will be found what is called
a hermaphrodite or bastard
hop, with staminate and pistillate flowers on the same
vine; the hop is not over half size, deformed, and is sel-
dom gathered. Sometimes there will be not over one bas-
tard vine to the acre, then there will be a dozen in half
an acre. The bastard seems to be dwarfed, for it will
go only one-half to two-thirds up its support. This
sport does not seem to be permanent, for it seldom
occurs twice in the same place. This freak usually
occurs near a male vine, and there the female vine is
so overcharged with pollen that it partakes of or is try-
ing to represent the two genders in the same vine.
The hop is perennial; once started, from either
root, cuttings, or from seed, the vine comes up anew
from the same root year after year. The hop root is
of a tough, leathery, spongy, porous nature. The hop
has two distinct roots, a lower and an upper root, or
runners. The lower roots have no eyes and propa-
gation cannot take place from them, their of^ce being
to sustain the plant. The upper or surface roots have
23
24
THE HOP.
CHARACTERISTICS OF THE PLANT. 25
eyes or joints every four to six inches, their office be-
ing mainly for propagation. These are cut into pieces
of two joints about six or eight inches long, for
planting.
The root of the female plant is the lighter colored
of the two, and the buds or eyes are more blunt. The
male root is of a darker or grayish color, and the buds
or eyes are more pointed and of a reddish or purple
color. In America, a male root is planted for every
lOO female hills; in England, one for every 200 to 300
hills; in Europe, the male plant is not countenanced.
The eyes are on opposite sides of every joint of
the root. Each joint can throw out from six to a dozen
buds. On a small root the center bud starts first, while
on a large root, half a dozen buds start at the same
time, each striving for the mastery.
Usually the vine that bears the hops comes out
directly above the crown, but a surface root may run
under the ground one foot or two feet, and then come
out and run up its support and bear hops. These vines,
when young and green and fresh, can be layered, cov-
ered with moist earth, and they will grow into roots
with joints and eyes. The great objection to layered
roots is that the joints will be too long and not as de-
sirable for planting as the runners that come out nat-
urally with shorter joints. From four to twenty or
more vines will come out of every vigorous hill, and
after selecting the desired number of the best for tying,
the rest are destroyed and kept down by cutting or
covering with earth.
The vines are put on the strings or poles when
about two feet long. Amines have to be put around the
poles and tied with a string, but when strings are used
to guide them to the wire trellis, it is only necessary
to twine the vine around the string a couple of times,
when by its innumerable little hooks on its six sides
it will require no more attention unless shaken off by
26
THE HOP.
some violent motion, or by a continuous wind for sev-
eral days. Should a three days' wind blow the vine off
from the perpendicular string to the extent of a foot
or eighteen inches, if the wind goes down at night,
every vine will be found clinging to the string in the
FIG. 7. BRANCH OF MALE (staminate) HOP VINE.
Reduced in size, and showing at the lower left-hand corner a single flower o'
the natural size.
morning, having caught on again by their spiral or re-
volving motion.
Vines have to be put around horizontal strings or
wires by hand. When left to their own inclination,
they will grow upward until they become so long and
heavy they will fall down and have to be replaced on
CHARACTERISTICS OF THE PLANT. 27
their support. The end of the vine during the growing
season, — say from one to two feet, — is very tender in
the morning, and is easily broken; in the afternoon it
will stand more careless handling without breaking.
If the end of a vine is broken off in the growing season,
the next joint will throw out two vines and soon catch
up with the original vine and bear just as many hops,
but the arms from the second joint are best.
The vine when climbing a perpendicular support
always winds with the sun, from left to right, or with the
FIG. 8. FEMALE VINE, SHOWING FLOWERS.
hands of a clock; other kinds of vines mostly climb
in the opposite direction, which 'is, perhaps, why the
patent ofifice years ago granted a patent to a man who
claimed to have "invented" the hop's habit of winding
from left to right. The hop vine is hollow, six-sided,
and has six rows of small, sharp hooks. These hooks
are especially sharp on the tendrils, enabling the latter
to cling fast, so that the plant can climb rapidly.
The hop vine has two motions. The first motion
is a twist of the vine from right to left, the reverse of
the sun and clock hands. The second motion is a
•is
'iiiK iior
spiral or revolving" motion, with the sun, which winds
the vino aronnd its support. WhciU'vcr a vine is
changctl from a perpendicular to a horizontal i)osilion,
the twist in the vine changes, or reverses, and twists
with the sun. 'The instinct of a hop vine seems to be
to follow a peri)endicular position, and it cannot be
made to follow an angle less than forty five degrees
without artificial means.
Fia. 9. BRANCH OP FEMALE HOPS.
A hop vine is one of the most ambitious of nature's
climbers. Tt will go to the to]) of its su])port, if 20 to 30
feet high, and the hoi)s will be on the extreme end,
while none will be within 10 to 15 feet of the ground.
When a shorter support is used, the arms will hang
nearly to the ground, loaded with hops. The vine ex-
CHARACTERISTICS OF THE PLAKT. 29
panels in diameter when four to six feet from the
.l
36.2
26.4
16.3
11.2
2.8
1.9
0.8
0.6
5.8
4.0
26.1
15.6
27.0
21.1
Average.
8.3
44.8
31.6
14.0
2.3
0.7
4.8
20.1
24.2
The conclusion drawn from these results is that
the tannic acid effects of hops are accomplished mostly
after they have been deprived of their resin, and that
but a very small proportion of the nitrogenous constit-
uents of the hops being taken up by the water extract,
they are of but little importance in the wort.
THE CHEMISTRY OF HOPS
is treated in further detail for this work
by E. E. Ewell, of the Division of Chem-
istry, United States Department of Agriculture, as fol-
lows: "That our knowledge of the chemistry of hops is
still deficient in many points is shown by this quota-
tion from Moritz and Morris's 'Text Book of the Sci-
ence of Brewing,' published in 1891:
"Although it must be granted that in recent years
we have got to know something precise as to many of
the constituents of the hop, yet its chemistry, like all
botanical chemistry, is surrounded by difficulties in
regard to the isolation and investigation of the various
constituents, difficulties far exceeding those of the
study of other materials used in brewing."
According to these authors, "Hops are added to the
beer for the following reasons: (i) To give the beer
the distinctive bitter flavor and aroma; (2) to precipi-
tate certain nitrogenous constituents of the wort; (3)
to clarify the wort, not only by the separation of the
above constituents, but by the mechanical clarifying
COMPOSITION OF PLANT AND FRUIT.
.i5
to
56 THE HOP.
property of the hop leaves when agitated in the copper,
and by the formation of a filter bed for the filtration of
the wort in the hop back; (4) to preserve the beer
by the antiseptic influence of some of their constitu-
ents; (5) to assist in the sterilization of the wort.
"The bitter flavor is imparted by some of the resins
and the so-called hop acid (hopfciibittcrsaurc); the
aroma by the volatile oils; the precipitation of the
nitrogenous matters by the tannic acid, and the anti-
septic properties by certain of the resins. It is there-
fore essential that hops, to be of value, should contain
these substances in due proportions.
"The percentage of tannic acid in hops is stated
by communications from the Agricultural Laboratory
of Vienna to range from 1.38 to 5.13 per cent., the
average being between 3 and 3.5 per cent., and this, so
far as we know, is the normal amount found in good
hops. The percentage of volatile oil, shown by the
analyses contained in the report from the Austrian
laboratory named above, ranges from 0.15 to 0.48, the
average being about 0.25 to 0.35. To these oils we
owe the aroma and delicate flavor of the beer.
"The bittering principles of hops are still the sub-
ject of considerable divergence of opinion. According
to Hayduck, the resins are the essential bittering prin-
ciple, and as Hayduck's researches are the most recent
and are characterized by completeness and definiteness,
it is probable that his views are more worthy of cre-
dence than those of the older investigators. Among
these is Lermer, who claims to have separated a crys-
talline bitter acid from hops, to which he attributes
their bittering properties. The acid is insoluble in
water, but soluble in dilute alcohol, imparting to the
solution an intensely bitter taste.
"Julich sejiai-ated an intensely bitter substance
from hops, whjch u^s easily soluble in water. Bun-
gener attributes the bitter to a substance partially of an
COMPOSITION OF PLAXT AXD FRUIT.
57
to
OS
58 THE HOP.
acid, partially of an aldehydic nature. The substance
is insoluble in water, but easily soluble in alcohol,
ether, etc. It is easily oxidized to valerianic acid, and
Bungener attributes the presence of this acid in old
hops to this cause."
Various figures are given for the percentages of
the true bitter principle, but owing to the widely differ-
ing opinions in regard to the exact nature of the one or
more bitter substances contained in hops, it is not
thought wise to repeat these figures. Hayduck fovuid
at least three resinous bodies in hops. Data in regard
to the percentages of these resins are not at hand, but
Blyth publishes, in his treatise on foods, an analysis of
lupulin by Dr. Yves, which shows 30 per cent, of resin.
Several analysts have devoted considerable time to
the detection of an alkaloidal, or other constituent of
hops, which will account for the narcotic or stupefying
efTect of beers, in the brewing of which large propor-
tions of hops are used. Moritz and Morris, in their
book already mentioned, state that while this view as
first announced by Graham is reasonable, it is not at all
improbable that the higher alcohols developed at the
higher temperatures prevalent in the English practice
of brewing are also important factors in producing a
beer possessing a greater stupefying efifect than the
lager beers produced on the continent.
Griessmeyer reported an alkaloid to which he gave
the name of lupulin. Griess and Harrow separated a
base from beer which proved to be cholin. Griess-
meyer denied the presence of cholin as such in hops,
stating that it exists combined with other bodies as
lecithin, a body of very complicated constitution.
Southby, in his work on practical brewing, states
that by distilling hops in a current of steam he was able
to obtain from 1.5 to 2 per cent, of volatile oil, quanti-
ties decidedly in excess of the others given above.
Moritz and Morris state that the chemistry of hops
COMPOSITIOK OF PLANT AND FKUIT.
59
is still in such an imperfect state that physical charac-
teristics, odor, color, etc., must for the present be relied
upon in the judgment of this important brewers' raw
material.
Moritz and Morris have prepared a summary of
26 analyses, which Wolf¥ has published, of the ash of
German hops. The average per cent, of mineral mat-
ter is 7.4, the maximum 15.3, and the minimum 5.3.
Analyses of the ash showed the following percentage
composition:
Potash
Soda
Lime.
Maiu:ne.sia .
Oxip Plant (female) and its Various Parts, Stated in
Parts per 100 of the Air-dried Material.
Ash.
Nitrogen.
Pota'^h.
(K2O)
Pliosphoric
acid.
(P2O,)
Ill hops
6.33
10.50
3.12
6.49
3 54
3.22
3 46
1.57
2.50
3 .33
2.45
2.01
1.08
1.59
0.53
1.18
Leaves.
0.36
Stems
Whole plant
0.23
0..38
"Spell t" hops
1.23
I- ^ I p "iLiuiir"*
60
THE HOP.
O
o
H
m
PL,
o
o
o
Q
CHAPTER V
THE CLIMATE AND SOIL FOR HOPS
HE hop abhors continuous
heavy fog or too much
humidity in either air or soil,
yet so rapid a grower must
not suffer for want of water.
Light fogs two or three
times a week seem to favor
hops, and to them FUnt at-
tributes the fine color so
characteristic of Pacific coast
hops. Winters that kill the
root stocks are imfavorable. A climate that allows the
root to rest from its labor, but enables it to make an
early start in spring without danger from late frosts,
an atmosphere free from excessive clouds and humid-
ity, with abundant sunshine, not too dry as harvest
approaches, with an absence of early frosts — there the
hop thrives and there blights, mold and lice are reduced
to a minimum.
Hence the superiority of certain limited regions
in California. Oregon and Washington are apt to
have too much moist, hot weather toward harvest.
Xew York's climate is quite favorable on the average
of years, but winterkilling is common. A climate in
which corn (maize) does its best, is, in the United
States, about right for hops, but, as Clark truly says, a
great many soils and climates that are good for corn
are bad for hops. English yards suffer most seriously
from too much atmospheric moisture. The same is
often true in Europe. Yet the tables of humidity, tem-
61
02
THE HOP.
perature and precipitation afford no guide to climatic
adaptability to the hop. Yield, quality and price fluc-
tuate quite regardless of meteorological statistics. We
have spent much study over this point, comparing
domestic and foreign weather figures with crop data,
Ki
^1
.\ :y
t^:
s-v
i, I
FIG. 25. TANK FOR DIPPING HOP POLES TO PREVENT ROT.
Steppingtoii hop farm, near Canterbury, Kent, Englaiul.
but without being able to draw therefrom conclusions
of any practical value.
THE BEST SOIL FOR HOPS
This important subject has been considered for
the present work by Prof. E. W. Plilgard, director of
the California experiment station, whose knowledge of
soils is not excelled, and who writes as follows:
CLIMATE AND SOIL FOR HOPS. 63
California — "As to Sacramento county: Hops are
grown almost wliolly on the higher alluvial lands of the
Sacramento river, which are gray, pulverulent, silty or
sandv lands, with scarcely any noticeable change from
soil to subsoil for several feet. Most of these lands lie
near the river, where the land is higher than farther
out; but some of the 'bench lands' beyond the over-
sowed region also \ield excellent hops of the yellow-
silky character, while low-lying lands, not so well
drained, yield a green product, which is less valued in
commerce.
"As to Sonoma county and a portion of Mendo-
cino to northward, the hop-growing lands are in the
main the higher alluvial lands of the Russian river,
greatly resembling in their nature those of the Sacra-
mento just referred to; they are grayish, silty soils,
uniform to several feet depth, well drained and of high
fertility The town of Hopland in southern Mendo-
cino on the Russian river is one of the prominent grow-
ing centers, yielding a very high quality.
"In Alameda county only a small area is devoted
to hop culture. It is located near the towns of Pleas-
anton and Sunol on the alluvial lands of Alameda creek,
which are likewise of a fine sandy or silty character
and well drained, as there is but little water in the
stream beds in summer, and their banks are high.
"The oldest hop-growing region in the Pacific
northwest is the valley of the Puyallup river in Pierce
county, Washington. Here also the soils are alluvial
ones, of a sandy or silty nature, of gray tint, very easily
tilled and of considerable depth above bottom water,
say from seven to ten feet. The Puyallup bottom was
originally quite heavily timbered.
"The lands where the hop is grown in King
county. Wash., lie on the lower Cedar and Dwamish
rivers, and to northward on the borders of Lake Wash-
ington to the Snoqualmie river. Like all the lands of
64 THE HOP.
the Puget Sound region, these lands are of a Hght and
sometimes sandy nature; the sand consists of the pul-
verized rock of the Cascade range adjacent/'
In Oregon, the hop lands of the Willamette valley
generally are light yellowish loams of great depth, and
even the alluvium of the streams, like the Santiam,
bears much the same character, though commonly
lighter in texture than the lands of the main valley. It
is conceded in Oregon that soil of a sandy nature pro-
duces the best quality, while the heaviest yield is to be
obtained from the heavier bottom lands composed of
decayed vegetation and deposits of sediment, brought
down from the uplands and spread over this soil by the
overflowing of the streams. The most perfect soil is
a sandy loam which is easy to cultivate and is rich
enough to produce a good crop of choice hops without
the aid of fertilizers.
In Neiv York State, and indeed everywhere, a deep
sandy loam is preferred, the deeper the better for a crop
with such a deep-growing root system. A clayey loam
is also excellent if it contains enough sandy loam to
prevent baking and packing during drouth. A strong
loam in which corn thrives is generally good for hops,
provided it is w'ell drained. Its shallow root system
enables corn to do well over a subsoil that would be
too wet for hops, which also dislike too much gravel
in the soil or a hardpan subsoil.
In Great Britain, the variation and yield in quality
of hops in different soils, even between adjoining fields,
is often most marked. This is equally true in New
York state, Otsego and Schoharie counties usually pro-
ducing the best hops. In New York, as in England,
the lands now under hops have proven to be the best
after centuries of hop-growing. The limits of the Eng-
lish hop lands are sharply defined geologically.
In the finest East Kent region, says Whitehead,
the soil is clay, loamy clay, and sandy loam upon tlie
CLIMATE AND SOIL FOR HOPS. 65
Thanet, Woolwich and Oldhaven beds, which crop up
here and overUe the chalk on the backbone of Kent.
As the chalk appears again with a thin and gradually
decreasing surface of loam, the hop land becomes less
valuable, and at a short distance from this point hops
are not cultivated at all until the bastard East Kent
district begins, where the hops produced are of inferior
quality as compared with East Kent hops proper, being
grown upon useful, somewhat heavy soils, lying for
the most part upon the belt of gault alternating with
the Folkestone beds intervening between the chalk and
the weald clay. Below Canterbury there is a district
between Challock and Barham where hops of first-class
quality are grown, upon loams of a lighter character
resting on the chalk. The crops here are not so heavy
as those yielded on the deep loam and brick earth in
the Faversham district of East Kent, and the plants
will not take such long poles, but the quality is most
excellent. The "weald of Kent" is so named because
of its soils resting largely on the geological formation
called weald clay; they are clayey loams, sandy clays,
more or less tenacious and stifT (these latter require
expensive drainage), with occasional patches of loam
and alluvium.
So, too, in Germany, the hop is more grown on
clayey soils, well drained, than the average American
planter would think possible. In Saatz and other
famous Bohemian districts the soil is a reddish clay
containing considerable iron, elevated about 800 ft
above sea level and protected from cold north winds.
LOCATION OF A HOP YARD
Let it be naturally protected against prevailing
wind storms, especially from the north and west. A
heavy wind will badly whip the vines. (See "lewing,"
in Chapter X.) Very often this point is quite neg-
66
THE HOP.
6
CLIMATE AND SOIL FOR HOPS. G7
Jected in setting a hop yard, when it might just as well
have been attended to.
Of course the site must be sunny and warm, and
chosen with reference to the least possible danger from
early and late frosts. The rows should run in a south-
erly direction, that the sun may freely penetrate the
foliage to the utmost extent.
The main root is a deep feeder, its lateral and sur-
face roots covered with fine rootlets that utilize the
food in the upper layers of soil. Hence the need of a
well drained soil — the hop abhors wet feet — and a soil
of open texture, that air and water may freely penetrate,
to aid in rendering available to the plant the elements
stored up in the earth. Yet so gross a grower must
have a suf^ciency of moisture and drouthy lands may
well be provided witli irrigation.
PREPARATION OF THE SOIL
for a new hop yard is a more serious matter where the
soil is not of just the right character. In Kent, expen-
sive underdraining is often necessary to insure the
needed openness of subsoils. Comparatively light
yields in New York and in Germany are partly due to
a moist or impacted subsoil. In such lands, thorough
subsoiling to a depth of i8 inches, or even more, should
precede planting. It is not much practiced, l^ut is to
be highly recommended. If subsoiling is needed for
the sugar beet, which is dug in one season, how much
more is it needed for the hop, whose roots go much
deeper, but are not disturbed for from six to twenty
years, or longer?
It has also been suggested that subsoiling between
the rows in early spring would be an admirable wav of
rejuvenating an old "root-bound" yard, at least on
heavy soils. But Clark, speaking for New York con-
ditions, says: *'T disagree very strongly with subsoiling
between the rows, or even deep plowing of an estab-
68
THE HOP.
lished yard, as that space is filled with large bed roots,
and deep culture cuts them off, which is very injurious.
I have seen them i6 feet long in my own yard. Otten-
heimer says that for the Pacific coast, plowing deep
when setting out the yards is right, but afterward it is
injurious to subsoil each spring."
The tendency is also to slight the surface plowing
for a new hop yard, just as thorough working of the
soil preparatory to seeding down to grass for several
years is too commonly neglected. While experts dif-
fer as to the propriety of putting the plow into a yard
once it is well established, every intelligent grower
realizes that before the roots are set affords the best
chance to thoroughly work the soil. The English
realize this and practice accordingly in preparing for
hops, just as they do in preparing for the permanent
meadows for which old England is famous. The Ger-
mans are not so particular.
FIG. 27. PICKING HOPS IN KENT, ENGLAND.
CHAPTER VI.
FEEDING THE HOP PLANT
HE hop is a rank feeder. The
most of its growth is made
in less than 90 days. This
growth is marvelous for its
luxuriance. Such luxury of
foliage is necessary if the
hops are to have a copious
supply of properly elaborated
elements in the plant to
draw upon during their ma-
turity. The plant must be
fed for growth as well as for fruit, the one being de-
pendent upon the other, but avoid such treatment as
will force it to "run to vine" too much. These points
have only to be recognized to realize the necessity for
proper soil, appropriate fertilization and correct meth-
ods of culture.
Of course a virgin soil filled with fertility, or re-
newed by an annual overflow or by irrigating with
water naturally rich in the elements of plant food, re-
quires little or no manuring. Such is the present con-
dition of many of the newer yards on the Pacific coast,
but it is only a question of time when even they will
require manuring. How best to feed the hop on the
more or less exhausted lands of the eastern states and
of the old world is a problem upon which we have com-
paratively little exact data. The experiment stations
in Bohemia are attacking this problem, likewise the
Wye Agricultural College in Kent and a little has been
done in Germany, but American experiment stations
69
•TO
THE HOP.
seem to have largely ignored the problem of fertilizing
the hop. Let ns, then, first consider the elements of
plant food contained in the vines and hops of an aver-
age crop, basing our table on the analyses on Page 71
FIG. 28. PICKING HOPS.
and on the average relative weight per acre of
vines and hops obtained from a dozen experienced
growers in New York state:
FEEDING THE HOP PLANT.
^ GOOD CROP OF HOPS WILL TAKE FUOM AN ACRE OF LAND
Cured hops.
Vines and Total
leaves(air-dry) loiai.
Weight of crop
Nitrogreu
lbs.
1,000
33
25
12
30
lbs.
1,000
25
19
7
42
lbs.
2,000
58
Polash
Phosphoric Mcid
Lime, magnesia & oilier
ash elements
44
19
72
Tot. removed by crop
100
93
193
These are astonishing figures. Their significance
can be best judged by comparison with the plant food
removed from an acre by other crops under equally
good culture, it being assumed that the hop vines, like
potato vines and cornstalks, are returned to the soil:
PLANT FOOD REMOVED FROM AN ACRE i'.\ SEVERAL CROPS
CROP.
Hoi)s
Ha\ .
Corn.
40 bii
I'otatoes.
Yieltl per acre
1,000 lbs
33
25
12
H tons
250 bii
Nitrogen, lbs
42
45
8
41
10
16
30
I'otnsh, lbs . .
Phosphoric acid ... . .
45
11
How few hop planters in New York state realize
that for a good crop of hops they must manure as heav-
ily as for 40 bushels of corn per acre, simply to supply
what is taken from the soil by the dry hops. If we
consider both vines and hops, we get this table,
showing:
COMPOSITION AND QUANTITY OF MANITRIAL StTBSTANCES REQUIRED
TO SUPPLY WHAT AN ACItE OF HOPS TAKES FROM THE SOIL
Pounds.
2,000
2.000
1,000
1,000
5 tons
100
100
Substance.
Hop rrop
Wlieat bran
Cottonseed meal .
Linseed me.al
Barnyard manure.
Bone meal
rt AVood jvsli
Will furnish
NilrouHn.
Potash.
lbs.
PI
los. acid.
lbs.
Ihs.
58
44
19
52
32
60
70
20
30
55
14
17
50
40
30
4
—
23
50
10
rtThis weight of wood ash (containing only 12% water) will siii>]i]v
the full amount of potash taken off by the liop crop (vines and hops)
but no nitrogen ; the other weights given will furnish the full amount
of nitrogen, but more or less of iiotash ;ind phosphoric acid than the
crops take off, except in the case of bone meal.
Stable manure is the form of plant food preferred
by both European and American hop growers. In
72 THE HOP.
compact soils horse manure is best, because of its me-
chanical effect in lightening the soil as well as furnish-
ing food to the plant. Sheep manure is excellent for
sandy soils. Ordinary mixed stable manure is plowed
under lightly in starting a new yard, when the soil is
at all poor. The amount should be all one can possi-
bly afford, and then a little more; no danger of getting
on too much before planting a new yard. In New
York from lo to 20 tons per acre of stable manure are
applied in starting a new yard, in England 15 to 25
tons, and in Germany eight to 18 tons.
After the yard is established, fall application of
stable manure is best on most soils. The common prac-
tice is to put a shovelful or two of manure on top of
each hill in late autumn, to be scattered about the hill
and worked into the soil at first grubbing in spring.
Green (fresh) manure should not be used, as it holds the
frost too long in spring, will not work readily into the
soil, and interferes with cultivation. In cold regions
this protects against winterkilling, and in case of
drouth protects the roots by retaining moisture. The
manure washes down about the roots and aids a
prompt and early start, but if cold weather follows, this
may result in stopping the flow of sap and arresting
the growth of the plant. On very sandy soils, such
dressings may be quite exhausted before the plant blos-
soms out, and the vine has no reserve of fertility with
which to develop its hops.
In addition to this autumn manuring on the hills,
a dressing of manure broadcast is highly recommended,
to be worked into the soil at the first cultivating. If
the soil is very light and leachy, broadcast the manure
in early spring, but if fairly strong loam, midwinter
spreading is best. In Germany a liberal mulch of
strawy manure is often applied after cultivating is fin-
ished, especially on drouthy lands. Its preservation
of soil moisture is quite as useful as the food it fur-
FEEDING IB J HOP PLANT. 73
nishes the plant. Such a dressing must not be so rich
as to cause the plant to run to vine to the detriment of
its production of hops.
Comparison of the analyses printed on Page 71
with the analyses of Kent Goldings and Sussex Grape
hops grown in England, shows wide variation in the
total per cent, of ash of vine, leaves and cones between
different varieties and even the same variety grown
on different soils. We find no analyses to indicate
the variation caused by different forms of plant food,
but it is quite probable that the influence of the form of
food upon the hop plant is more noticeable in its brew-
ing qualities or its organic composition than in the
proportion of ash or nitrogenous matter. This is an
extremely interesting point upon which scientific exper-
imentation will doubtless throw much light. On
general principles, however, it would seem ex-
pedient to employ the least objectionable forms of plant
food, when agricultural chemicals or commercial fer-
tilizers are applied.
Potash is needed to excess, owing to the great de-
mands upon this element by the plant, and probably
the carbonate of potash, as in cottonhull ashes or un-
leached wood ashes, is for many reasons preferable. Of
the potash salts, the high-grade sulphate, which is
much freer from chlorine than the muriate, is perhaps
best. Yet, there is a large amount of chlorine in the hop,
and should it be scientifically demonstrated that the
presence of a liberal amount of this element was essen-
tial to certain desirable qualities, then the muriate of
potash would be used.
There seems to be little reason for believing that
one form of phosphoric acid is much better than an-
other for the hop crop, provided only that it is in a form
that will be available for the plant. Bone and
ashes furnish both phosphoric acid and potash, but in
a slow form, and as the hop is a rapid grower, and re-
74
THE HOP
quires an abundance of available food early in the sea-
son, it is probable that the application of potash salts
and dissolved boneblack or other quick-acting phos-
phate would be beneficial. This quick fertilizer should
be applied very early in the spring, while bone and
wood ashes should be put on in the fall.
COMPOSITION OF HOP MANURING SUBSTANCES
The figures show the per cent, or poiinrls of each element in 100 pomicls
of tlie subsiai»ce named in first column,
Substance.
Wheat br.in
Cottonseed meal... .
Linseed meai
Rape meal
Barnyard manure . ..
Bone meal
c Boneblack dis'lved
c Phosphate rock.dis.
Tankage . . . .
Dried blood , .
Wood asli unleached
Cottonliull ash
Kainit .....
riMnnate of potash,.
cfeSulphate o\ i)ot'sh
f/Nitrale of soda
cSulpliaie of am'nia
Nitrojjen
Potash
Phos.acid
Linie
2.6
1.6
3.0
2
7.0
2.0
3.0
03
5.5
1.4
1.7
0.4
5.1
1.3
20
7
0.5
0.4
0.3
0.5
4.0
0.0
23.0
31.0
0.0
00
17.0
25.0
0.0
0.0
15.0
23.0
6.7
0.0
12.0
14.0
10.0
0.0
2.0
0.8
0.0
5.0
2.0
34.0
0.0
22.0
i>.0
10
0.0
13 5
1,2
0.0
51,0
0.0
0,0
0.0
33.0
0.0
2
15.7
0.0
0.0
_
20.5
0.0
0.0
—
Magnesia
(MJ
1
0.8
0.7
0.1
1.0
0.7
0.0
0.0
0.2
34
11.0
10.0
e 0.0
e 0.0
a Contains 48% chi(Mine. b No chlorine
d Contains much so«la. e Traces.
c Rich in sulphuric acid,
The hop is a great consumer of lime, yet the ap-
plication of lime to hop yards is comparatively rare.
We see no reason why it is not advisable, unless the
soil is known to contain an excess of lime. This ele-
n^.ent is equally important in tobacco culture, where the
use of lime is considered indispensable. Probably the
best form is oyster-shell lime, provided it can be ob-
tained at a nominal price. Otherwise, good air-slaked
lime can be used, or the fine ground gypsum (land
plaster); from too to 300 pounds of lime per acre, ap-
plied in the fall, is sufficient, usually. Most soils prob-
ably contain sufficient soda, but if not, it is a prominent
composition of many potash salts.
It may be desirable to add magnesia to some soils,
in which case the double sulphate of potash and mag-
nesia should be used instead of kainit, muriate or sul-
phate of potash alone.
FEEDING THE 15 OP PLANT.
75
Perhaps the most striking need of the plant is for
nitrogen. We have no data to show to what extent,
if any, the hop plant is able to take its nitrogen from
the atmosphere, as do certain leguminous crops. But
FIG. 29. IRRIGATING HOPS, MAKING A LITTLE WATER MOISTEN
MANY ROWS OF PLANTS.
we do know that it is a gross consumer of nitrogen and
that this element must be in a promptly available form
to promote the vine's luxuriant growth. Hence, the
76
THE HOP.
importance of applying nitrate of soda, or sulphate of
ammonia to give the crop a quick start in spring, and
some less soluble form of nitrogen to back up the crop
as the season advances, such as dried blood, tankage,
or bone meal.
In this country a few manufacturers of commer-
cial fertilizers have attempted special mixtures of ag-
ricultural chemicals for the hop crop, with more or
less success. In England special hop fertilizers are far
more common. We cannot recommend any one form-
ula as the best for this crop in different soils, but the
following table contains the composition of various
fertilizing materials, and from the known composition
of the hop plant, several mixtures are tentatively sug-
gested :
FORMULAS FOR MAXURING HOPS
It IS fair to assume that, provided the vines are carefully returned
to the soil, 1,000 lbs. per acre of cured hops will remove plant food
varying within the range below stated. And to supply either of these
woiild require the mixtures which follow:
In 1,000 lbs of cured hops.
Formula.
1 Stable manure 2J tons
o ( Cottonseed meal 400 lbs
^ \ Kainit 200 ''
Totals 600 lbs
o ( Linseed meal
•^ICottonhull ash
Totals
fBone meal
.1 Dried blood
I Sulphate potash
l^Nitrate soda
Totals
rSxil. ammonia
kJ Wheat bran
^"j AVood ash
l^Muriate potash
Totals 520 lbs
f Phosphate rock 100 lbs
I Sulphate of }>otash 60
6<( Linseed n)eal 100
I Nitrate soda 50
(^Sul ammonia 25
Totals 335 lbs
100 lbs
100 "
40 "
50 "
290 1 bs
lOO lbs
200 '
200 •
20 '
Least quantity. |
Largest quantity
Nitro
gen
Pot-
ash.
Phos
acid.
9
Nitro
gen.
38
Pot-
ash.
28
Phos
acid.
25
20
14
Form.
25
20
15
12
8 tons
40
32
27
24
28
4
27
600 lbs
200 "
42
18
28
31
12
800 1 bs
700 lbs
100 "
8O0'lbs
42
38
38
33
18
27
1
13
20
8
4
10
22
12
8
27
12
23
2
32
20
4
10
8
20
100 lbs
200 "
100 "
75 ^■
4
20
12
33
23
4
22
20
25
6
4
475 lb"*
36
33
27
~20^
5
25
5
8
12
~25
3
10
10
IBoTTbs
300 '•
200 "
30 "
30
8
5
10
15
9
4
23
20
1
10
680 lbs
38
30
13
15
1
100 lbs
80 •'
200 "
100 "
60 "
640 lbs
10
16
12
26
2
15
1
21
16
38
28
16
FEEDING THE HOP PLANT. Hi!
Many other combinations of the ingredients men-
tioned on Page 76 may be made. But in any formula,
the object should be to supply the nitrogen, potash and
phosphoric acid in such forms that part of each element
shall be available for the plant in early spring, and
then from week to week, as growth advances, but not
force a growth when the plant is maturing its cones.
The large proportion of nitrogen contained in hop
vines is wholly lost when they are burned, though the
mineral elements are retained in the ash. Since this
plant draws so heavily upon^soil (or air) for this most
expensive element, certainly it should be retained so
far as practicable by plowing under the vines, provided
they are not infested with germs of disease so as to re-
quire burning. Spent hops are specially rich in nitro-
gen, and when they can be had for the hauling, should
be spread on the ground and cultivated under.
A great number of other substances are much used
in England anri on the continent, such as shoddy, waste,
woolen rags, fur waste, fish manure, and basic slag
from phosphoric acid. Irrigation may here be prac-
ticed, for it is essentially a feeding process. Xo matter
how much plant food is in the soil, unless there be sufft-
cient moisture, the crop cannot utilize it. jMoreover,
the hop must have an abundant supply of water, be-
cause nearly nine-tenths of the vine's weight consists
of water. Frequent stirring of the top soil, or a mulch
of strawy manure, leaves, weeds, cornstalks, or any
such material, will carry a crop through a drouth that
would otherwise be fatal. Where irrigation is practiced
in California, the water is run through one furrow in
the middle of the rows, or one on each side. Sometimes
two or three such irrigations are enough, again more
may be necessary, while in a Colorado hop yard, the
water is turned on six to nine times. If the water sup-
ply is scant, a very little can be made to irrigate a large
number of plants by the device illustrated in Fig. 29.
78
THE HOP.
FIG. 30. A YARD ON THE SHORT POLE SYSTEM.
At Watsoiiville, Santa Cruz Co., Cal. Poles are 2x3 inches x 9 feet lon^, of split
redwood, set 2 ft. in f^iound, 8 ft. apart square No wire is used, only No 18
cotton twine, which is fastened to i)ole 6 ft. from ^fonnd. The string is run
in squares, and two vines are left to the hill. Vines are trained on poles up
to the strint,'s. Mr. Morse allows one male vine to every 3.5 female vines;
males are not pruned and are yiven 15 ft. poles to climb. They consequently
{jrow very bushy, and, as they climb to the tops of the hi^h jtoles set for them,
a good distribution of j»ollen is secured. This short-pole system is not to be
confirmed with either the trellis system of overhead wires, or the long-pole
method used in Washington, New York and England.
CHAPTER VII
LAYING OUT A YARD — TRAINING THE YINES
OP plants are usually planted
'jy.y feet or 8x8 feet in Amer-
ica and 6x6 feet in England
and Europe, but the number
of hills may vary from 800 to
1,200 per acre. In New York
state 6J feet each way is pre-
ferred by some experts.
Cn the Pacific coast in
very few yards are hop roots
planted less than seven feet
apart, and in a great many yards the rows are eight
feet apart. It has been demonstrated there that just as
heavy a yield can be obtained from a yard planted with
the roots seven feet apart as from one 6 or 6^ feet apart,
notwithstanding that in the former there are only 889
hills to the acre, while in the six-foot yard there are
1,280 hills. As the most expensive part of raising hops
is the work done by hand on each root and vine, such
as grubbing, tying and training, it can be readily seen
that the expense to cultivate an acre of hops is consid-
erably larger in a six-foot yard than in a seven-foot
one. Where the trellis system is used, it requires a
great deal more twine in the six-foot yard. Another
objection is that a team of horses cannot pass through
a six-foot yard without injuring the roots or vines. In
Oregon, as well as in Sonoma county, California,
nearly all the hop yards are set out with the hills eight
feet apart.
79
80 THE HOi^.
The method of laying out the yard is therefore
much the same everywhere, though the methods of
training the vines are almost "too numerous to men-
tion." It is important, in any system of training, that
the rows be perfectly straight to facilitate clean culture.
Now, let us assume that the field is ready for stak-
ing out .
Set plain, distinct posts at the four corners of the
plat; then take a long wire with a stake at each end,
and at a distance of every seven feet tie a piece of flan-
nel or cloth, to be easily seen. From one corner stake,
sight in a direct line to the other corner stake, pull the
wire tight and firmly set in the ground. Put in a peg
about a foot long at each marker on the line and then
again continue the line in the same w'ay, pegging
until that side is pegged. Next, from that corner stake
and at right angles, take the side to the corner stake
at the other end of that side, as above described, peg-
ging as you go on. Then from each of these outside
rows of pegs, start to the other side, having set up a
stake to sight to, seven feet distant each time. When
both sides are thus completed, the field will be pegged
out as illustrated in Fig. 43.
The land may be marked ofif similarly by a variety
of means. Mr. Clark writes: "Make a marker in the
form of a bob sled, with short runners of one and one-
half inch ash with a light shoe. Bore a hole through
the runners about a foot from the back end and about
two inches from the lower end, so as to be able to put
devices In to help make better marks. The top of the
marker should be made of stout ij-inch ash boards
for the driver to stand upon. Place an iron handle on
the center of the back so as to help in lifting the marker
around at the ends of the field to the center of the front
side. Fix an upright standard about four feet high for
the driver to take hold of; it W'ill also serve as a guide.
After fixing on a pole for a pair of horses the marker
layixCt out a yard.
81
is ready. It is a good plan to have a couple of boys
standing at about equal distances across the hop yard
with flag stakes so that the driver, when standing on
the marker, can look between the horses' heads and see
the stakes. By so doing, he can make two very straight
marks and also get over the ground very rapidly. The
r^-
(^r
'M.
FIG. 31. TRAINING HOPS IN KENT.
land should be marked both ways, but never with a
plow, or one row will be narrow and one wide."
If poles are used, one or two poles are inserted at
each hill; the single pole is now most common in New
York, but two poles per hill are much used abroad,
leaning outward from each other so the hops will not
6
S2
THE HOP.
mass together at the top. Cedar poles are most dur-
able; in Washington they are sawed out or split about
3x3 inches, 16 feet or more in length, for the long pole
system, and 10 feet long for the short pole. An eight-
penny nail is driven in the top, projecting out about an
inch, in the short or stake system; on the long pole,
about a foot from its top, put through a peg a foot long
and three-fourths of an inch thick for the vine
to cling to. This and
poles is done in the
In California and Oregon
the same manner as fence
the sharpening of the
woods or at the mill.
the poles are split in
rails. Redwood poles are
FIG. 32. HORIZONTAL HOP YARD, NEW YORK.
(|uite extensively used in California, and they last an
indefinite length of time. In some yards the same poles
have been used for the last 25 years. In Oregon those
growers who adopt the pole system use young firs,
which grow abundantly in that state. The}' aim to get
a pole three inches thick and about sixteen feet long.
In New York and abroad, round poles are used, from
saplings, and arc not as high as those on the coast.
Stand the poles upright in a tank containing two
feet of creosote or coal tar, and let them simmer over
a slow fire for a night; this will prevent the butts from
rotting and is a big saving. Cedar, ash, redwood, chest-
LAYING OUT A YARD. 83
nut, maple, oak, alder, and birch are esteemed in the
order named for hop poles.
On the Pacific coast, when a crop is picked the
first year, poles are set before the roots are planted,
which prevents injury or disturbing the roots after-
ward. With a long dibble having a steel sharpened
point, a hole is made, about eighteen inches deep, into
which the pole is stuck and left vertical. A man will
set about 600 poles per day. A short stake is set the
tenth hill in ever}- tenth row to indicate wdien a male
root is to be planted.
In New York, England and Europe, poles are not
set until the second year, care being taken to set the
poles in the north side of the hill every time, as the
men cultivating before the hops are up will know bet-
ter where tlie hills are and w'ill not be so apt to damage
them. In later years also the men when setting the poles
will know better wdiere to find the old holes. For a
short pole yard, the stakes could be cut (for economy's
sake, split) ten or more feet long, that they may be long
enough to use after once rotting off. The outside rows
should have larger stakes and be set very deep and
solid.
Twine is run across the top of the poles both ways,
being attached to the nail, or some merely wind it
around the poles at a height of 7 to 7^ feet from the
ground (Fig. 32). After the first year, not more than
four vines should be trained to each hill by this system,
and where the soil is extra heavy, tw^o will be found
preferable. At the first and second trainings, all sur-
plus vines should be either pulled out or cut off beneath
the surface. The vines generally require training twice
before reaching the twine, and the vines should be
trained at least twice on the twine. In training on the
twnne the first time, it is best to take the vines from the
stake above the twine, and after passing them across
over one twine, bring them down under the second
84 THE HOP.
twine and train out on the second twine. This causes
the vines to arch over the twine and prevents them from
pulHng down on the twine next the stake, thereby pre-
venting the twine from either breaking or stretching,
which would cause the hill to slide to the ground when
heavy with the weight of full-grown hops.
There are several modifications of the short pole
and twine method. A popular one consists of driving
a nail (slanting downward) into the pole only about
four feet from the ground, tying the string to the top of
the next pole, and so on. Drive the nail first into the
first pole in the first row, then go to the second hill
in the opposite row, then back to the third hill in the
first row, and so on across the yard, doing two rows
FIG. 33. OTSEGO (N. Y.) GRUB HOE.
at once. Begin by tying the twine to the first nail, run
the top of the twine up the next pole with a ''twiner," as
far as convenient, carrying it around the pole and try-
ing to catch the twine over a knot to hold it; draw up
the twine close, then drop from the top of the pole down
to the nail in the next pole. Step up to it and give the
twine a half hitch or loop around the nail, then run the
twine up to the top of the next pole, down to the next,
and so on across the yard, until all are finished in the
same way. Then turn and go across in the same man-
ner, getting the efifect shown in Fig. 3. By this sys-
tem, Clark claims that more hops can be grown, they
will mature earlier, be richer and brighter, will arm out
lower down, and the arms will be longer and not apt to
snarl up. They will fill up in the middle with soft,
white, undeveloped hops and will make better pick-
ing, and are not as leafy.
LAYIXG OUT A YARD. 85
Still other modifications of the twine system are
A used in England and on the continent, which
\ are sufficiently explained in the accompanying
illustrations. By whatever method twine is
used in these systems, a device for tying the
string about the poles is useful. It consists of a
strong but light pole, eight to 12 feet long, with
screw eyelets like a fly rod, and a bag or bas-
ket at the bottom that will hold a ball of twine
snugly (see Fig. 34). A good 12-ply cotton
string is used. More permanent methods of
training by means of wire trellises are con-
stantly coming into wider use. The first cost
of these methods is more than for the pole and
twine system, but where hops are grown on a
large scale, some form of wire is probably the
more economical. It is claimed also that the
hop vines can be kept open to the sun more
thoroughly by trellises than by the string sys-
tem. There is also considerable saving in
labor, after the method is once established.
Spraying can also be done more thoroughly
I when the vines are spread out on proper trel-
L lises than when they grow more closely
FIG. 34. together, or simply on poles. Again, the hops
TWINE are not wind-whipped as readilv; it is claimed
POLE ' •
that they mature earlier, can be picked cleaner,
and come down in better condition.
Whitehead says: "One arrangement of wires
and string is much adopted in East Kent. It consists
of stout posts set at the end of every row of hop stocks,
and fastened with stays to keep them in place. At cer-
tain intervals in each row a post of similar size is fixed.
From post to post in the rows wires are stretched at a
height of half a foot from the ground and at a height
of six feet from the ground, and again from the tops of
each post; so that there are three lengths of wire in all.
86
THE HOP.
Upon these wires, hooks are fastened or 'cHpped' at
regular intervals, so that cocoanut fiber string can be
threaded onto them horizontally from the lower to the
next wire, and in a vertical direction from this wire to
the top lateral wire of the next row. The string as
threaded on the hooks is continuous, no knots are nec-
essary, and it is put on the hooks of the top wires with
a 'stringer.' The first cost of this is about $200 per
acre."
Another method is that shown in Fig. 35, and
practiced extensively in England and Germany. By
Bop Pto»><.V.>^rv^v 'lop /'iant-V.Ki^"-"* Hop rianti
FIG. 35. KEXTISH WIRE TRELLIS.
this method, wires are fastened only to the tops of the
posts, and twine is run down to pegs in the ground,
these being more simple and less expensive than the
system just described. The stay pole, or what the
English call "the dead man," must be very firmly set
and the end pole braced to it by wire. In New York
this method is further simplified by setting poles 18 to
20 inches deep every sixth hill, running a single wire
along them from nine to 15 feet above ground, and two
strings only running into a small, wooden or wire plug
driven firmly near the hop plant. The latter idea
LAYING OX'T A YARD.
87
has been still further improved upon by the Pleasanton
Hop Company, Alameda county, California. As this
concern is one of the largest hop growers in the world,
and has made many improvements in the industry, we
are fortunate in being able to devote Chapter IX to an
exact statement of its modus operandi, carefully pre-
pared for this work by Mr. Davis, superintendent of the
Pleasanton Hop Company.
FIG. 36. KENTISH HOP YARDS.
Two poles to a hill and string.
88
THE HOP.
Fia. 37. THE HOP ROOT STOCK.
^ ivTQin ted fact that those growers who
are free from wild plum trees and have their yards on
PESTS OF THE HOP CROP.
127
the upland usually have less mold than growers with
yards along lake shores
In Oregon, the damage was greater in 1890, two
years after the introduction of the insect, than it has
been since, with the possible exception of 1897. In
1891 there was less injury than in 1890; 1897 was a
year of considerable damage, the extent varying from
2 per cent, of the crop in one yard to 95 per cent, in
another. The average loss, the state entomologist
FIG. 63. HOP GRUB
a, Segment of larva; h, larva; r, pupa; , adult. All natural size except a.
(Author's illustration.)
(Prof. Cordley) states, was about 33 1-3 per cent. It
was fully 50 per cent, in the neighborhood of Corvallis.
In Washington the damage has been more or less
constant since 1890. I am informed by Prof. Piper,
state entomologist, that some of the best hop growers
in the state of Washington grow A i hops with but one
spraying, using whale-oil soap and quassia chips, while
others spray two or three times. In the Yakima val-
ley, he states, the summer heat is so great that the
louse succumbs to it, although it may be abundant
early in the season, and it has not been necessary to
spray in that region, which, by the way, is irrigated,
i-2S THE IIOl'.
sage-brush land. Nevertheless, on account of the ex-
pense of spraying in western Washington, Professor
Piper is of the opinion that hop growing wdll never
again become the industry that it w^as prior to the
introduction of the louse. There is some prevalent
opinion in Washington that the life history given in
preceding sections will not hold for that part of the
country. Growers claim that winged lice occur
throughout the season and they do not believe that all
the winter eggs are deposited on prune or plum trees.
This statement seems extremely improbable to the
writer, but it must be stated that no observations have
been made in that part of the country which are at all
comparable with the extremely careful ones carried on
in New York in 1887. Nevertheless, Mr. Koebele, when
in Oregon in 1893, was able to set at rest one of the local
misapprehensions, which was to the efifect that the hop
louse occurs also on one of the mints. He sent speci-
mens of the insect to the city of Washington, where,
upon examination, it was found that although the
resemblance was extremely close, the mint insect
belonged to a dififerent species of the same genus,
Phorodon.
The hop plant louse made its first appearance in
the Wisconsin hop district in 1867-68, and from that
time on was more or less abundant every season, some
years almost entirely destroying the crop, and in others
causing only partial loss. Its attacks have practically
ruined the hop industry of the state.
THE HOP GRUB OR HOP-PLANT BORER
{Gortyna immariis, Grt.)
This insect probably ranks second in importance
among those wdiich we shall mention, although of late
years it has been vastly less destructive than the plant
louse. It is a distinctive North American insect and is
known as a hop pest cnly in the east. The moth has
l^ESTS OF THE HOP CROP. 12U
been found in the state of Washington, but the grub
has not been reported to damage the hop yards in that
state.
In 1882 the insect was brought to the attention of
Professor Comstock, of Cornell University, who first
learned its complete life history, and in 1883 it was
investigated by Dr. J. B. Smith, then an agent of the
United States Department of Agriculture. Since that
time no reports of serious damage have been received.
A prominent hop grower writes me from Richfield
Springs, N. Y,, under date of January 20, 1898, that
the grub usually eats ofi^ some vines, but seldom does
much damage. SkunkS; he writes, are plentiful, and
they dig the grubs out of the hop fields in the summer.
The adult moth of the hop grub, shown at Fig. 63,
lays its eggs in the early part of the season upon the
young shoots of the plant. The young caterpillars,
which are slender and greenish in color, spotted with
black, bore into the vines just below the tip and remain
at this point for some time. The head turns downward
and stops growing. Such vines are called "muffle
heads" or ''stag vines," and sometimes "bullheads,"
by the growers, and the caterpillar inhabiting them is
called the "tip worm." A little later the grub drops
to the ground and enters the stem at the surface of the
ground. It is then called the "collar worm." It
changes to a dark, whitish color with black spots.
About the end of July or the first of August it becomes
full-grown, and transforms to pupa near the roots of
the plant. The moths seem to issue in part in the
fall and in part in the spring, and the insect, therefore,
passes the winter in the moth state under rubbish and
in fence cracks, as well as in the pupal state under-
ground.
As to remedies, where the insects are really abun-
dant, it is always desirable that the men engaged in ty-
ing the vines should pinch off affected tips and crush the
9
130 THE HOP
worm. Many of them are easily destroyed in this way.
Others, however, escape, drop to the ground and begin
work at the crown. A generally adopted remedy at
this time is high hilling and fertilizing, which induces
the putting out of rootlets above the main root, en-
abling the vines to derive nourishment through this
channel when the stem has been gnawed through. An
experienced grower in Otsego county, N. Y., recom-
mends that at the first hoeing the dirt be care-
fully worked away from the vines by the hoe, leaving
them bare down to the bedroot. The weather tough-
ens the lower part of the stem and renders it unat-
tractive to the grub. Immediately after the hoeing,
a handful of composite, consisting of equal parts of salt,
quicklime and hen manure, mixed while slaking the
lime and left standing for two weeks, should be placed
about each vine root.
CATERPILLARS FEEDING UPON HOP LEAVES
Several different kinds of caterpillars feed on the
leaves of the hop plant during the summer, but they
are easily controlled and seldom do any especial dam-
age. Certain of these species may be illustrated and
briefly mentioned. All are readily destroyed by an
arsenical spray. Should any one of these insects
become sufificiently numerous to threaten damage, and
any of them is at all times liable to sudden increase,
the yards should be promptly sprayed with Paris green
or London purple, in the proportion of one pound to
T50 gallons of water, or wnth arsenate of lead in the
proportion of two pounds to too gallons of water.
THE HOP VINE SNOUT-MOTH (Hf/peMa liumuU, HaiT. )
In 1856 Dr. Fitch, writing of this insect, considered
it to be the most universal and formidable of the hop
insects, making its appearance suddenly, and some-
times in a few days completely riddling and destroying
PESTS OF THE HOP CROP.
131
the leaves of whole fields The rather slender, green
caterpillars make their appearance in the latter part
of May, feed upon the substance of the leaves until
full-grown, and then form thin, imperfect, silken
cocoons within a folded leaf or in a crevice or shel-
tered spot, transforming to chrysalids and issuing as
moths three weeks later. There are two annual gen-
erations, the second brood of caterpillars being found
FIG. 64. HOP VINE SNOUT-MOTH.
a, Egg; 6, larva; <7, pupa; /, niotli. All enlarged; natural size indicated by dots
and hair lines. (Aulhor's illustration.)
upon the vines in August. The insect hibernates in
the moth stage.
HOP MERCHANTS (Poh/(/onia iuierrogationis, Godart,
and Polygon ia comma, Harr.)
These are common, widespread, and, in the adult
stage, handsome butterflies, occurring in most parts of
the eastern United States, and in the caterpillar stage
feeding not only upon the hop, but also upon the elm
and several other closely allied plants. They have
derived their name of "hop merchants" through
the gold and silver markings upon the chrysa-
lids, which occasionally, probably through para-
sitism, become sufifused and give a general gold-
13:i
THE nop.
en or silvery tinge to the chrysalids. As I have
shown in another pubhcation, an interesting su-
perstition is more or less laughingly held among
New York hop growers, to the effect that when the
golden spots are plentiful, the crop will be good and
the price high, while, if the silvery cocoons are more
abundant, the price will be low. Both of these insects
are double-brooded in hop-growing regions, and they
are shown in their different stages in the accom-
a
FIG. 65. INTERROGATION BUTTERFLY.
a, Eggs; 6, larva; c, chrysalis; r/, adult. All natural size except «, which is en-
larsed. (Author's illustration.)
panying figures. The spiny caterpillars are readily
recognized, and feed without concealment upon the
upper or under surface of the leaf. They are frequently
extensively parasitized in the caterpillar stage, as well
as in the eg^ stage, by minute hymenopterous para-
sites, a fact which accounts in large measure for the
slight damage done by these insects under ordinary
circumstances.
PESTS OF THE HOP CROP.
133
THE ZEBRA CATERPILLAR (Mamestra ^jicta, HaiT.)
This well-known and polyphagic insect is found
frequently upon hops. It occurs from Canada south to
Virginia, and west to Nebraska, and has evidently of
late years been carried into California. It feeds upon
blackberry, poke weed, lamb's quarter, goose foot,
FIG. 66. COMMA BUTTERFLY.
rt, Eggs; i, larva; r, chrysalis; d, adult. All natural size except «, which is en
largetl. (Author's illustration.)
worm seed, cabbage, aster, honeysuckle, white berry,
mignonette, asparagus, ruta-baga, beet, cauliflower,
spinach, bean, pea and celery, and is thus a common gar-
den pest. The eggs of this insect are deposited on the
lower sides of the leaves in clusters of from 250 to 300.
134
THE HOP.
The young caterpillars, at first almost black, but after-
wards pale green in color, feed together in bands on
the undersides of the leaves. When they reach the
third stage, they begin to scatter, and thereafter feed
singly, assuming a velvety black color, w^ith two nar-
row yellow lines down the sides, between which are
numerous transverse irregular finer, yellow lines. When
full-grown, they burrow into the ground and change to
pupae in about two days. The insects pass the winter
in the pupal stage, the moths issuing in May and June.
The young caterpillars are found from the first week in
FIG. 67. ZEBRA CATERPILLAR.
«, Larva; ^', adult. Natural size. (After Riley.)
June to the first week in July, and reach their full
growth in about four weeks. A second brood of moths
in more southern localities appears during the early
part of July.
THE COMMON WOOLLY BEAR CATERPILLAR
{Spilosoma virginica, Fab.)
This is another common, widespread species with
many food plants, which is quite often found in the hop
yards, feeding upon the weeds, as well as upon hop
PESTS OF THE HOP CROP.
135
vines. The caterpillars when full-grown are very vora-
cious and will devour an entire leaf in an incredibly
short time. They are not frequently seen upon the
plant, since they drop readily when disturbed and
remain quiet for a few minutes, but they are quick
travellers when in motion. The eggs are laid on the
lower sides of the leaves, in batches of from 50 to 100
or more. The full-grown larva is an inch and a half
in length and very variable in color. It is covered
with stiff hairs, which are sometimes white, intermixed
with a few yellow or brown ones, or they are yellow,
red, brown, or almost black, sometimes darkest at both
cc-
FIG. 68. WOOLLY BEAR CATERPILLAR.
a. Larva; 6, pupa; c, adult. Natural size. (After Riley.)
ends, or all colors mixed. The cocoon is mostly com-
posed of hairs of the caterpillar, and is spun in any suit-
able sheltered position. There is apparently but one
annual generation, and the insect hibernates both in
the caterpillar stage and in the pupal stage in its
cocoon. The figure which we give represents perhaps
the commonest variety of the caterpillar.
THE SADDLE-BACK CATERPILLAR
{Empretia stimulea, Clem.)
This insect is another of the general feeders, and
will probably not play an important part as a hop
130 THE HOP.
insect, for the reason that it is a normal denizen of
regions too far south for the successful commercial
cultivation of the hop. In fact, the only hop-grow-
ing region where it has ever been found is in southern
Wisconsin, and, as has been shown, the culture of hops
has been largely abandoned in that state. It occurs,
however, commonly upon the hop vines grown in the
dooryards throughout the southern and mid-western
states, and will readily be recognized from the accom-
panying figure. It is one of the stinging or urticating
caterpillars, and its spines coming in contact with a
delicate skin have very much the effect of one of the
FIG. 69. SADDLE-BACK CATERPILLAR.
Natural size. (After Riley.)
nettle plants. The insect over-winters in the pupal
state within its cocoon, and there are two or more gen-
erations each year.
OTHER CATERPILLARS
Descriptions of the remaining leaf-feeding cater-
pillars will hardly be necessary in this connection. The
species found most commonly upon the hop are as fol-
lows: Thccla htiiuitli, Harr.; Ctcnucha virginica, Charp.;
Acronycta bnimosa, Guen.; Acronycta amcricana,'H.a.rv.,
Orgyia antiqiia, L." Halisidofa caryae, Harr.; Halisidota
fcsscUata, S. &A.; Plusia prccationis,Guen.\ Lciicarctia
acraca, Dru.; Hypena scabra, Fab., and Hyphaiitria
cunca, Dru.
PESTS OF THE HOP CROP.
13?
LEAF HOPPERS WHICH AFFECT THE HOP
Several species of the little insects properly called
leaf hoppers, but which vine growers have become
used to calling "thrips," occur upon the hop plant,
and in dry seasons sometimes cause the leaves to turn
brown and wilt, thus doing about the same character of
FIG. 70. HOP VINE LEAF HOPPER.
Tettigonia confiuenta, with enlarged structural details. Enlarged (original)
damage in dry weather which the hop plant louse does
in damp weather. The most serious case which has
been brought to our attention was in 1891, when speci-
mens of the species here figured, namely, Tettigonia
138 THE HOP.
confiucnta. Say, were received from Puyallup, Wash.,
in August, with the statement that they were very
numerous upon the blossoms or cones, and were injur-
ing their quahty to some extent. Further reports of
damage of the same nature have not since been
received, but it is an insect which hop growers of the
northwest should know and should guard against. In
the east, the most abundant of the leaf hoppers found
in the hop yards is TypJilocyha rosac, numbers of which
were found in the yards at Richfield Springs, N. Y., in
June, 1887, causing more or less damage to the foliage.
Another species, more closely related to the one found
in the state of Washington, was collected in numbers
on the hop vines at Waterville, N. Y., in July, 1883, by
Dr. Smith. It is a handsome species of the genus TypJi-
locyha, and is of a yellowish-green color. Dr. Smith
found that yards badly affected with lice had none of
these hoppers, while in yards in which the lice were
absent, the hoppers were rhdre numerous.
Nearly all of these leaf hoppers over-winter in the
adult condition, under leaves and rubbish at the surface
of the ground. A hop yard, therefore, which is thor-
oughly cleaned up in the autumn, and all leaves and
rubbish burned, will generally be free from this insect.
Where they are very abundant in the summer time,
there are two remedies which may be adopted. The
great activity of these insects under ordinary circum-
stances makes spraying inefTective, but during the early
morning or late in the evening — especially on a cool,
moist day — they are more torpid and can then be struck
by a spray of kerosene emulsion. A method which has
been adopted in New York vineyards and also to some
extent in California vineyards, is to make a light shield
of a lath frame, with cloth stretched over it, and this,
when saturated with kerosene or painted with tar, is
carried through the field to the leeward of the vines,
the vines being stirred on the other side. The hoppers
PESTS OF THE HOP CROP. 139
fly against the kerosened or tarred surface, and are thus
destroyed in large numbers.
BEETLES FEEDING ON HOP LEAVES
Several species of leaf beetles are frequently found
in the hop yards, and gnaw holes in the leaves, thus
disfiguring them, but seldom injuring the plant.
Among these are the red-headed flea-beetle (Systcna
frontalis), the striped flea-beetle {Phyllotrcta vittafa),
the punctured flea-beetle {Psylliodcs pn)ictiilata), dind the
twelve-spotted leaf beetle {Diabrotica 12- punctata).
These species were found by Dr. Smith at Waterville.
Mr. Pergande, at Richfield Springs, collected Phyllo-
FIG. 71. STRIPED FLEA-BEETLE,
a, Larva; 6, adult. Enlarged. (From U. S. Department of Aj,aiculture.)
treta inttata; Crcpidodcra hcLvincs, the common willow
flea-beetle; Epitrix cncunicris, the potato flea-beetle;
DiaboUa borcalis, the common plantain leaf miner; Psyl-
liodcs pnnctulafa, a common and widespread species.
None of these insects is peculiar to the hop plant.
The common striped flea-beetle is shown in the accom-
panying figure.
THE SO-CALLED "RED SPIDER," OR SPINNING MITE
Hop fields in England have occasionally suffered
to a considerable extent from the damage done to the
14(1
THE HOP.
foliage by what appears to be the common red spider
of our American greenhouses (Tctranychits tclarius),
although English writers have found sufficient differ-
ence between the spinning mite found in the hop fields
and the ordinary form to establish a new variety which
they call T. tclarins var. hiinnili. In 1868, and again
in 1893, this little mite did much mischief in many hop
yards. The leaves fell ofif, the burr or blossom was
damaged, and in some instances the plants were com-
pletely shrivelled up. In 1897, again serious injury
was threatened, but a succession of showers and a fall
of temperature fortunately checked multiplication. The
first indication of the presence of these mites is the
FIG. 72. "RED SPIDER," OR SPINNING MITE.
Female, male and eng— greatly enlarged. (Redrawn from Journal of the Board
of Agriculture of England for December, 1897.)
yellowing of the lower leaves of the plant, and when
examined carefully upon the under surface, thick,
silken webs will be seen spreading from rib to rib,
under which the mites live, actively sucking the juices
of the leaf. The remedies adopted in England are very
sensible, and consist, principally, of a heavy spray of
soap and water and sulphide of potassium. Sulphur
in any form is a specific against mites, and a spray of
kerosene soap emulsion, to which a small quantity of
flowers of sulphur has been added, is generally
effective.
PESTS OF THE HOP CROP. 141
I am not prepared to say that this same mite is
found in American hop fields, but in September, 1887,
Mr. Pergande found at Waterville, N. Y., a species
closely related to the common red spider of green-
houses, which occurred in large numbers on the lower
side of many leaves of the hop plants, doing consider-
able damage to the foliage and covering themselves
with a web just as the spinning mite of the hop fields
of England is reported to do. It bore a strong super-
ficial resemblance to the common so-called red spider,
but had six-jointed legs instead of seven-jointed legs.
Professor Osborn, in Wisconsin, in September,
1887, found what he took to be the true Tctr any dins
tclarhis in almost every hop yard visited, and in some
so plentiful as to cause conspicuous injury to the leaves.
It should be stated that in Wisconsin that summer the
hop plant louse seemed to be entirely absent. He
found eggs, young mites and full-grown mites abun-
dantly under the very delicate web spun over the under
surface of the leaf, the upper surface indicating their
presence by rusty patches and a red or yellow discolor-
ation. No attack was made on the burr, so that the
damage consisted simply in loss of vitality to the plant.
The growers generally did not consider the mite as of
any importance. Prof. Osborn has suggested the
obvious remedy of burning the plants as soon as they
become dry enough to burn after picking. Thus, there
is a possibility that the European mite already occurs
in this country, and that trouble may ensue in excep-
tional seasons.
PRACTICAL DIRECTIONS FOR SPRAYING
Such poor results from spraying have been
reported that in addition to Dr. Howard's very com-
plete and scientific exposition of the subject, we add
some directions and experiences from practical grow-
ers who have successfully applied the foregoing meth-
ods. Writing for Washington statC; Hart says:
142 THE HOP.
"The mixture most esteemed here is quassia chips and
whaleoil soap. For each acre to be sprayed, soak in cold
water the first time 10 pounds of quassia chips in 25 gallons
of soft water; the second time you will boil them for two
hours. Also boil five pounds of whaleoil soap in 25 gallons of
soft water until the soap is thoroughly dissolved; then strain
the same, mixing them alternately into a clean barrel, a
bucket at a time, and stirring together.
"Place your barrel, which should have a force pump
attached thereto, upon a good sled, with one man to pump
and drive (a steady horse being necessary), and two men to
spray, one on each side. Each man sprays two rows of vines,
making four rows in all sprayed at one time. Use a fine rose
nozzle, being especially careful and particular to spray the
underside of the leaves. All the men should be clothed in
oil or green coats and hats, to protect them from the spray,
for in a wind it is almost impossible to do good work. There
should not be less than three sprayings, four is safer, the
last one ]ust as the hops are forming, and the liquor that
time may be slightly reduced in strength so as not to injure
the hop. In the short pole system, one objection is the diffi-
culty of getting through without severe scratchings, and the
team often is entangled in the vines crossing over the twine
above their heads."
For Oregon, Walcott writes:
"In the future, we cannot count on a crop of good quality
without spraying. There are many methods and formulas,
the one most in use being a solution of whaleoil soap and
quassia chips. The proportion varies from eight pounds of quas-
sia chips and seven pounds soap to six pounds of quassia chips
and 12 pounds of soap to the acre. I have met with good success
with the last named proportion. The quassia chips should
be fresh and finely cut, and the whaleoil soap must be strictly
pure and of 80 per cent. test.
"Many growers have been disappointed in spraying be-
cause they used an inferior quality of material. Weigh out
20 pounds of chips and put them in a burlap sack, tie the
end of the sack, sink it in a barrel of water and soak 24
hours. Then turn the water into a tank under which a fire
can be built, put in the sack of chips and let them remain
until the water commences to boil; then remove the sack of
chips, from which all the strength has now been extracted.
Now turn into the tank 40 pounds of soap, and boil until the
soap is all dissolved; then add water until there are 50 gallons
of the solution. In spraying, use five gallons of this solution
to 85 gallons of water. It usually takes about 120 gallons of
spray to go over an acre. With a roller sprayer and three
men and two horses, eight acres can be sprayed a day, provided
water is plentiful and near and the land reasonably level.
PESTS OF THE HOP CROP.
143
"Spraying should be commenced as soon as the lice make
their appearance and should be continued as often as neces-
sary, until the hops begin to burr, after which the spraying
will do but little good, as the lice get inside the hop, where
the spray cannot touch them. The number of times it is
FIG. 73. NEEDLE-NOSED HOP BUG {Colocoris fulvomaculatiis).
b. Proboscis, greatly enlarged.
necessary to spray a hop yard depends upon the location,
the density of the foliage of the vines and the weather dur-
ing the months of June and July, as hop lice breed and in-
crease very rapidly in damp, rainy weather and very slowly
in hot, dry weather."
144
THE HOP.
We find comparatively little in English or German
methods to add to the foregoing, and the latter may
well profit by American experience. Kentish planters
take more care than others to prevent vines being too
thick, and emphasize the fact that plenty of sunshine
among the leaves is one of the best safeguards against
lice and mold. A Washington farmer sets two or three
rows of tobacco plants about his hop yards, which seem
to attract the winged lice on their way from the plum
vf
FIG. 74. HOP VINE AFFECTED BY NEEDLE-NOSED HOP BUG.
Show iiif( "scars" on hop vine. «, Due to tlio Calocom; />, holes in leaf due to
punctures by the Anthocoris, a somewhat similar insect.
tree to the vines, and cause them to die after feeding
on the tobacco. In 1895, much injury was done in
England by the needle-nosed hop bug (Fig. 73), which
with its long, sharp proboscis (Fig 73, h) punctured the
tender parts of the vine (Fig. 74), not only drawing
out the sap, but leaving a wound that bled and weak-
ened the vine. The only thing that disabled them was
12 pounds of soft soap to 100 gallons of water (or of
PESTS or THE HOP CROP,
145
^\:ii
^:^^^m
.;^,- ^^^nS&Tvi^-
r- i '" ,f' .■■■ Vf^: -^
11^
II-
10
FIG. 75. AN EELWORM DISEASE OF HOPS.
[For explanation, see Page 147.]
14 G THE HOP.
Other washes) sprayed on a dull day, when the bugs are
less active; they are best treated during the wingless
stage early in the season.
Prof. Jno. R. Smith lays as much stress now upon
ladybirds for destroying hop lice as in 1887, when he
first called attention to them and their larvae known
as ''niggers."
"Three species are found in abundance on hop vines.
The most numerous is the two-spotted ladybird {Adalia
hipunctata), a small red species, with two black spots on the
wing covers. Next comes the nine-spotted ladybird {Cocci-
nelhr 9-notafa), a larger species, with nine black spots on its
yellowish-red wing covers, and least numerous of all is the
twice-stabbed ladybird (Chiloconts hinihwrus), smaller thaa
either, entirely black, except two blood-red spots on the
wing covers. The larvae of these species are all very much
alike, and of an elongated, flat form, tapering toward the
tip, with six legs; of a grayish-black color, spotted and
marked with red or yellow. They are very active and very
rapacious, feeding almost continually, and each larva
destroys many lice before attaining maturity. When full-
grown, they attach themselves by the tail to a leaf, curl up
into a round pellet, and in a few days transform into the per-
fect beetle, which also feeds on the aphis, but is not so
voracious as the larva. There are several broods of the
insect in the season, the last transforming into the perfect
insect about the middle or toward the end of September.
"The beetles hibernate in crevices of fences, under bark of
trees, or stones, or wherever else they can find shelter, and
reappear in spring to continue the work where they left off
the year before. Were it possible to preserve a sufficient
number of these insects through the winter, so that a goodly
number of them would be on hand in early spring, the lice
would never become numerous enough to do injury; as it is,
but few survive the winter, and before they become numer-
ous the lice, propagating more rapidly, become so plentiful that
they are beyond control. But, seriously, there is no reason
why these coccinellids cannot be wintered. They become
very numerous in fall, and several hundreds of them could
be collected without difficulty, put into a large box with
plenty of loose rubbish, and kept in some cool place not
exposed to the fiercest cold, nor yet so warm as to cause
them to become active- a barn or cellar would answer. The
box should be covered so as to prevent the entrance of spi-
derS; which would feed on them. In spring, the box could be
placed in the open air, and the insects would then scatter
through the yards in search of suitable places to deposit eggs.
I firmly believe that this could be done without much
PESTS OF THE HOP CROP.
147
trouble, and that it would prove the best possible remedy
to prevent the spread of or damage by the aphides."
The eelworm disease causes sickly looking bines
and curling of the leaf. The trouble is due to a minute
eelworm, which slits and injures the delicate rootlets.
The accompanying cut (Fig. 75) is from The Journal of
the Wye Agricultural College for April, 1895. I shows
the leaves, smaller in size than usual, a under, b upper,
surface, showing characteristic curling of edges and
FIG. 76. THREADS OF HYPHAE OF HOP MOLD {Sphcerotheca
castagnei).
Summer, or active stage, a. Erect hypha, giving rise to chains of spores (conidia).
b. Free "spore" (conidium).
puckering of veins; natural size. II, Cross-section of
leaf, enlarged forty times, showing abnormal tissue.
Ill, As in II, showing further growth of tissue at side
of midrib. IV, Cross-section of root, natural size, and
V, lengthwise section, both showing effect of stem-
eelvv^orm {l\dcnchus dci'astatrix). VI, Hop rootlet with
attached females of eelworm (Hcfcrodcra scJiacJitii),
almost natural size. VII, Magnified cross-section of
rootlet, showing eelworms at work. VIII, a, female
148 THE HOP.
eelworm; b, ditto, broken, showing eggs and larvae.
IX, Eggs at different stages, and the young worm,
magnified 250 times. Dig out and burn infected plants.
Lime, one-half ton per acre, or sulphate of potash, 200
to 400 pounds per acre, are the remedies suggested.
FUNGOUS PESTS BLIGHT, MOLDS, ETC.
"Fire blast'* and "red rust" are not common in
the United States, and the latter at least is due to an
insect (the red spider) rather than to a fungus. Mildew
and mold are also comparatively rare, though the
FIG. 77. ASCOCARPS OF "HOP MOLD."
Autumn, or resting stage. Highly magnified.
attacks of lice often cause a blackened condition igno-
rantly called **mold." Mildew is one of the worst pests
in England, and in damp seasons is almost equally de-
structive in Europe. The best account of the hop mold
or its treatment is Percival's, in the Journal of the Wye
(Kent) Agricultural College, under whose direction the
test has been carefully studied and experimented with.
Symptoms — Tn the earliest stages, the mold is seen as
small^ light-colored patches, chiefly upon the upper surface
of the leave?. If the nights are cold and damp and the hop
plants in a backward or weakened condition, the patches
PESTS OF THE HOP CROP. l-iO
soon increase in size, generally regularly from a center, so
that the spots are approximately circular. As the patches
increase to about one-eighth of an inch across, they become
whiter in color (Fig. 76), and have a dusty or floury appear-
ance. Fresh spots show themselves on the younger leaves
and in bad cases the malady spreads from the lower leaves,
where it is generally first seen, to those higher on the
plant and even to the tender shoots and young hops. In
all cases the plants suffer in health, but it is only when the
tender shoots and young growth are attacked that serious
damage is done. The young hops and tips of the laterals
on the bine then lose their soft, succulent character and
become deformed; the parts attacked dry up, and develop-
ment is stopped. Often the white patches of mold do not
spread; the spots lose their dusty appearance and vanish,
leaving behind always a small yellow or brown dead place
upon the leaf attacked. More frequently, however, if the
mold is allowed to remain unchecked, and the weather is
unfavorable to the growth of the hop plant, the patches,
especially on the lower surface of the leaves and on the
young hops, become covered with extremely small, dark,
rusty-brown specks, and the white, dusty character of the
spot gradually disappears.
The time at which mold is first observed varies with
the season. Gardens once seriously attacked and neglected
are always specially liable to an annual recurrence of the
disease, unless measures are taken to get rid of the trouble.
Cause — The ordinary symptoms can readily be seen and
followed by the naked eye, but the exact cause and process
of development can only be appreciated fully after making
observations with a good microscope. A mold spot in its
early stages is then seen to be made up of a tangled mass
of branching threads (hyphae). The threads are clear,
transparent, hollow tubes, filled with living substance
(protoplasm), and constitute the body or spawn (mycelium)
of a fungus, known as SphacrotJieca castagnei, which is
one of a large class known as "true," or "surface" mildews.
Careful observations show that the threads are not merely
resting on the surface of the leaf, like a tangled skein of
cotton upon a table; they cannot be blown away or washed
off, as at various points they are attached by short suckers
(haustoria) which just penetrate into the substance of the
leaf and serve the double purpose of holding the fungus in
its place and acting as roots to suck up and convey the sap
from the hop plant into its own body. The spawn of the
fungus or mold thus lives upon the substances manufactured
in the hop leaf, and is enabled to grow and spread. Not long
after the fungus threads are established, they send up into
the air short branches which give rise in a little time to
rows or chains of minute oval-shaped bodies (Fig. 76a).
known as spores (conidia). These spores, which for ordinary
150
THE HOP.
purposes may be looked upon as "seeds," are very small.
They soon fall oft" the branch producing them (Fig. 16b), and
by their number — many thousands in a single mold spot —
increase the mealy appearance of the aft'ected part. Being
necessarily very light, many are blown about by the wind.
Under proper conditions of moisture and temperature each
one can germinate in a few hours and produce a small
thread which fastens itself to the leaf of the hop and begins
a new mold spot. We can thus understand how quickly and
silently mold can spread in a garden. From one small patch
several thousands can arise in a few days by the production
and dissemination of these spores by the wind, much as
thistles and other weeds may be spread about the country
after seeds are produced. The germination of spores, and the
FIG. 78. SINGLE ASCOCARP.
5, Burst, showing a'^cus. a, With its contained ascospores. c, Free ascospores.
Highly magnified.
growth of spawn producing more spores, can be repeated
over and over again in a few day?, and it is in this way that
the mold spreads during the summer.
The spores and spawn, such as we have mentioned, are
short lived and cannot exist through the winter. The fun-
gus, however, in autumn, or when the leaf upon which it
is living begins to die, produces upon its body of threads
small round cases containing another kind of spore, which
has the power of resting during winter, and when fully
developed, these round cases (ascocarps. Fig. 77) are dark
brown in color, or almost black, and give a rusty appearance
to mold spots which have been allowed to develop un-
checked, especially those on the underside of leaves and on
PESTS OF THE HOP CROP 151
the young hop cones. They are hollow, and constructed
somewhat like a football, that is, one case inside another.
The outer case is made of dark brown, strong material
(Fig. 786), and acts as a protective coat for the delicate,
transparent, pear-shaped case (ascus) inside (Fig. 78^/). The
latter contains within it eight spores (Fig. 78c) (ascospores)
about the shape and size as those produced upon the
upright threads mentioned above, only they do not germi-
nate so readily. These double cases, with their spores, are
produced in large numbers in late summer or autumn in
a badly affected garden, and fall upon the ground with the
dead leaves, and the spores within are shot out into the
air, and are carried to the young bines and leaves, which
are then grov/ing from the hill. Thus we see why it is that
mold generally commences close to the ground and spreads
upwards, and why there are "moldy places" in the gardens,
where the malady begins almost every year.
Remedies — It will be understood from the fore-
going accoLuit that we are dealing with a living pest,
and that it is just as impossible to create "mold" as it
is to manufacture aphides or lice. Various methods
of cultivation and treatment of the hop plant and gar-
den may be condticive to the growth and development
of the "mold" fungus, but unless its spores are present
or are introduced into the garden from outside, spots
cannot occur. Whatever remedies are adopted, it is
absolutely essential that they should be begun early,
as neglect means failure. The pest soon becomes
established and is then difficult to eradicate.
I. Although the complete destruction of hop
mold is unattainable, every effort should be made to
diminish its prevalence by burning all badly affected
vines and leaves. This practice should especially be
carried out in cases after a bad attack, where the hops
have been not worth picking on account of moldiness.
The vines should on no account be left lying about, as
the spore cases are produced in thousands and fall upon
the ground, only to remain a certain source of infection
for succeeding years. The application of gypsum to
the soil is said to be beneficial in such circumstances,
but no trustworthy experiments upon this matter have
152 THE HOP.
been carried out. Possibly lime might help to destroy
the spore cases.
2. Certain varieties of hops seem to be specially
liable to suffer from this trouble, but apart from possi-
ble inherent differences in the plants, more careful
manuring should be adopted in order to produce a
healthy growth. Excessive amounts of nitrogenous
manures make the leaves more readily attackable by
mold. Anything which reduces the vitality of the hop
— such as cold and damp nights, long continued
drouth, or wet weather and want of proper amount of
sunshine and fresh air — indirectly aids mold in its rav-
ages. It is generally in '*housed-in" parts where the
air is still and damp and where light does not easily
penetrate that the worst effects are seen. Systems of
training hops should aim at reducing these drawbacks
to a minimum. Early training of the lower part of the
bine diminishes the likelihood of attack from the soil
and also allows of better air circulation.
3. The hop-mold fungus not only lives upon
hops, but also upon many wild plants — groundsel, dan-
delion, strawberry, avens, meadow sweet, and many
others. There is little doubt that it is from such
sources outside the yard that many attacks of mold
are begun.
4. The fungus lives and develops almost entirely
upon the outside of the leaf, and on this account it
would appear more easy to deal with it by means of
washes and external applications of powdered sub-
stances that those cases like the potato disease, where
the growth of the fungus goes on chiefly inside the
leaf. The application by hand or bellows or by spe-
cially constructed sulphurators of finely powdered sul-
phur to the affected leaf is a remedy for mildews of
various kinds, which has been employed for about half
a century.
Mechanically powdered sulphur — roll brimstone
PESTS OF THE HOP CROP. 153
reduced to a finely pulverized state, by hand or machin-
erv — acts better than that form known as "flowers of
sulphur," obtained by condensation of its vapor or by
precipitation processes. In any case, the substance
acts in two ways (i) as a fungicide — that is, a definite
destroyer of the mold; and (2) as a protection against
further attacks and spreading, as spores will not ger-
minate upon a sulphured leaf.
It is chiefly as a protector that sulphur is so bene-
ficial, and on this account every endeavor should be
made to distribute it upon the youngest growth. As
a direct fungicide, it possesses little effect, and even for
this small l)enefit it must be repeated frequently where
mold is bad. The best results w^ith sulphur are ob-
served when the temperature is above 78 degrees F.,
and it is, therefore, usually applied with success on
clear, bright, hot days, usually in the middle of the day,
or early morning when the leaves are partially damp
wdth dew. In cold weather it is nearly useless, and in
wet days the sulphur is soon washed off the leaf. The
general explanation of its action is that the sulphur be-
comes oxidized, with the ultimate formation of sulphur-
ous acid, and this latter substance is credited with the
destroying effect upon the mold. Sulphurous acid,
however, in exceedingly minute quantities, has a del-
eterious influence upon the hop leaf itself. Some ex-
periments have indicated the formation of sulphureted
hydrogen. The fact that sulphur works most benefi-
cially on hot days, and also that the odor of a sulphured
garden is not like that of either sulphur dioxide or
sulphureted hydrogen, but resembles that of roll-brim-
stone itself, suggests that sulphur vapor may be the
active agent. The possibility that the action is a me-
chanical one must also be borne in mind. Some author-
ities state almost any fine powder will do, that road-
scrapings, brick-dust, chalk, and ordinary flour work
as well as sulphur.
154 THE HOP.
5. Under the assumption that sulphur has some
specific action upon the fungus, various sokible com-
pounds containing the ingredient are employed, chiefly
the sulphides of sodium, calcium, and potassium
("liver of sulphur"). These substances are, undoubt-
edly, of considerable use in checking and destroying
molds of all kinds. They are readily soluble in water,
and are generally applied in the ordinary washes of
soft soap and quassia at the rate of i J or two pounds per
100 gallons of wash. A wash of this description, fol-
lowed by an application of powdered sulphur, is per-
haps the most effective and safe means known at present
for an attack of mold. The alkaline sulphides in solution
do not keep well, unless air is excluded from the ves-
sels in which they are kept. Practically all mold
washes have, as a basis, one or more of the above sul-
phides in conjunction with substances like glycerine,
which tend to keep the wash upon the leaf till if has
done its work, and whi^h also prevent too rapid oxi-
dation of the active ingredient. Although the prepara-
tion of washes is not difficult, a certain amount of
chemical and botanical knowledge is essential to avoid
damaging the plants, and until this is obtained it is
perhaps the wisest plan to obtain chemicals or
washes prepared ready for use from experienced
manufacturers.
Many other substances, notably preparations of
copper (Bordeaux mixture, "Fostite,'* talc and finely
powdered copper sulphate), have a more certain effect
in destroying mold, but the application to hops is
scarcely feasible on account of their somewhat poison-
ous properties.
There are various definite chemical and physical
difl^ercnces between the cells and cell-walls of the hop
leaf and the substance of ''mold" fungus, and it should
be possible to construct a wash or fungicide dependent
upon these dififerences. This, however, remains to be
PESTS OF THE HOP CROP. 155
accomplished, but until it is effected, washes and appli-
cations of powders will be uncertain in their action.
To the following may be added Whitehead's sum-
mary: The action of sulphur is materially influenced
by conditions of weather. It is more powerful in heat,
when volatilization takes place, and appears to be in-
operative' in dull, cold seasons. It should always be
put on the plants in sunny, still weather, if possible,
and as soon as they have got well over the poles.
Another sulphuring should be given in about three
weeks, and a third later on, especially if there are any
traces of mildew upon the "burr." Should the fungus
attack the cones when developing or when they are
out, sulphur must be used again, though, if possible,
this shoiild be avoided, as brewers object sometimes
to hops that have been sulphured when fully out. The
quantity of sulphur applied for mildew varies from 40
to 60 pounds per acre, according to its lightness and
quality. In France, very small quantities are put on
at a time, with hand bellows, or soufflets. Sulphate of
copper solutions have been tried by a few hop planters
for mildew, but as yet no definite conclusions have
been reached.
A hop blight more or less common in America, but not
injurious is Ci/UHdrosporiiini humuli, E & E. A prominent
leaf spot on the hop is rhijUosticta hum nil, S. & S. Halstead
has found an anthracnose of the genus ColrtotrivJiinn, which
causes blotches in the leaves, that turn white and fall away,
leaving the foliage full of holes. In Oregon, the hop root
bruised is apt to develop a fungus growth called "black
knot." If cut off promptly it does no material damage, but
if allowed to grow will cause the root to die in a couple of
years.
OTHER PESTS
Late frosts in spring may be partly guarded against
by hilling up the young vines. Early frosts in fall may
be mitigated by spraying with cold water, or by thick
clouds of smoke from bonfires when frost threatens.
Hail, wind and flood often do much damage. If
156
THE HOP.
Q
W
W
m
^ ner - Carbon Duplicate kept
^CouNl'^^ ^y t^® Company governs
cM 9006 G^^^""^"^-
Picker No
Weleht
^Vl/(»<>.../gc.
Amount
S.A.1N[TL ON I-iOF^ C:0'
FIG. 85.
18. No camping in hops.
19. No teams tied or fed on the hop l.eld.
20. No smoking while picking or near others at work.
PICKERS, ATTENTION
As checks are cashed for exact amount indicated, pick-
ers sliould see that trades people give them the full benefit
thereof, either entire value of checks or make change to
the exact cent.
weighers' instructions
1. Weighers are also "field bosses," and as such fore-
men have full charge of their respective sections, they must
see that all work is properly done and the picking rules ad-
hered to.
2. To properly regulate the "give and take" of half
pounds, will take the one-half pounds on morning's picking.
HARVESTING THE CROP.
167
and allow ene-half pounds in afternoon's weighing. Weights
must be accurate.
3. Non-negotiable, non-transferable memorandum
weight credit slips (subject to the picking rules and all
charges against the party to whom issued) will be given for
morning's picking.
4. Negotiable checks are to be issued for the afternoon's
picking, but no single check is to exceed 99 cents.
5. Where the afternoon weight of any picker calls for
payment of more than 99 cents, then several checks are to
be made out; where possible, for even amounts, making
divisions by 100, 75, 50 or 25 lbs.
6. No checks are to be issued for less than 10 cents.
PIGK&RS WEIGHT MEMORflNDUitt
Retain This Ticket, it Must be Surrendered at Adjustmen*
^ ^SAyV^v N ot Transferabl e.
i^HOPCO.^ This Slip has No Negotiable
* runirrunnc * VaSue; it is simply intended
^ CnUILLliLlrJ f as a weight credit tally, and
^ U.S.A. <^ i^ subject to the Company's
^CounTS^^ Rules and all charges against
Bthe party to whom issued.
E .A. es .A. isi ro isi
FIG. 86.
7. Weighers can hold checks for those pickers who do
not wish to take them at the scales. These must be put in
individual marked envelopes left at owner's risk in the office
safe.
8. Issue no checks that show alterations of any kind.
If mistakes are made in writing, mark "VOID" across detail
line and turn in cancelled originals with duplicates.
9. Weighers will distribute sacks, charging same to
pickers, and credit same when returned, noting against the
scratched number^ the letters "A" or "P," to indicate
whether same were returned with morning or afternoon
picking (and date of return when not brought in on the
same day).
10. Review "sack charges'" daily, to make sure that
pickers are not getting more sacks than they absolutely
need.
168 THE HOP.
11. Tag sacks with picker's number before weighing
hops.
12. Report to office all charges for baskets and sacks not
returned.
13. Report cause of quitting of such pickers who stop
work or are discharged.
14. Weighers must see that all hops picked in the fore-
noon are "weighed in" by noon. Likewise, all afternoon
pickings must be taken to scales when work is stopped. No
hops to remain in baskets or sacks during the lunch hour
or over night.
15. Arrange "carbon duplicates" according to picker's
number, and file each morning's and afternoon's tickets iii
distinct bunches for reference.
The above rules at first reading may seem severe,
but a thorough system of direction in the field and an
occasional fine reported from the kilns when the hops
are dumped against the "number" of a carelessly
picked sack are a salutary lesson to an entire section
FIG. 87. "set" for four pickers.
and therefore few fines are necessary. Rule 3 may
seem ardtious, but as employment lists are closed when
the company has a proper complement of pickers, it
must insist that those who engage remain until the en-
tire crop is harvested. Few wish to quit and the rule is
of course not enforced where there is a good cause
for quitting, in which event, the picker is paid in full.
So, too. Rule 6 is dependent upon the circumstances
of discharge.
The price for picking agreed upon by the growers
is generally based upon the prospective value of the
crop. But these agreements do not always hold good,
as there is apt to be a strife to get pickers after harvest
commences, as but few growers get all the pickers they
have engaged and there is always some one short of
HARVESTING THE CROP.
169
pickers, and for the sake of getting their crop har-
vested quickly they will offer an advance above their
neigh]:)or. The other growers will be compelled to
meet this advance or lose a part of their pickers. To
such an extent has this been carried on that in Wash-
FIG.
WEIGHING HOPS (California).
ington during 1896-7 many growers paid as much
and in many cases more for picking than the crop
brought them when sold. This trouble prevails more
or less everywhere. Many hop yards are managed by
renters, who harvest their crops upon money borrowed
i;0 THE HOP.
from the banks upon the owner's indorsement, and
therefore if hops are worth only a small margin above
the cost of harvesting, renters, seeing th^y may be
unable to make anything, and having nothing to lose,
do not care how much the harvesting costs.
In America, from 70 cents to $1.25 per 100 pounds
of green hops has been the range of late years, mostly
80 cents to $1, but v$i.25 may be paid when hop values
are up and pickers scarce. For the '97 crop, the
Pleasanton Company paid 80 cents the first week, 90
cents the second, and $1 the third week, against 70,
80 and 90 cents the previous season, whereas $i
straight may be paid in a prosperous season. In Eng-
land, pickers are paid 2^ cents to 6 cents per bushel,
averaging4cents; as a bushel weighs about five pounds,
these prices are equivalent to from 50 cents to $1.20 per
100 pounds, or an average of 80 cents. In Germany,
cost of picking is still less, and in many cases quite
nominal.
An average picker will pick from 80 to 125 pounds
of hops per day — 6 a. m. to 6 p. m., — fast ones picking
as high as 200 pounds under favorable conditions, but
rapidity is apt to be at the expense of cleanliness. A
loo-pound box of green hops will shrink to about 25
pounds of cured hops. Careful data from Pleasanton
result in this statement: "As the hops grow riper,
pickers cannot get such good results, whereas the more
mature hops lose less weight on the kilns and there-
fore better pay is possible. In other words, the hops
grow lighter in weight on the vines and dry out less
on the kilns as the season advances, and while it re-
quires about 3I pounds of green hops at the earlier
stages of picking, hardly 3^ pounds are necessary
toward the close of harvest to make one pound of
dried hops, or an average of about 3J pounds, when the
crop is properly handled. This at the normal price of
$1 per 100 pounds for green hops would make the pick-
HARVESTING THE CROP.
171
ing alone of one pound of^ dried hops represent 3^
cents."
In handling a large harvest, as at Pleasanton, the
help are divided off into gangs or sections of 200 pick-
ers each (in '97 eight such gangs were needed, "A" to
FIG. 89. ELEVATING HOPS TO KILN.
"H" inclusive), which are in charge of the ''weigher"
and an assistant known as the "field boss." The
weigher, as his title implies, weighs the hops, which
are brought to the scales by pickers, and issues checks
172 THE HOP.
(Figs. 85 and 86). He also distributes baskets and
sacks and makes all reports to the office. He is the
real "field boss." His assistant, the "acting field boss,"
circulates among the pickers to direct their work and
see that the rules are strictly observed. On a smaller
scale, the same general practice is followed elsewhere.
When the picker's box is full it is delivered to the
weighman, or measurer, who gives the picker a check
for it and retains the duplicate stub for the book-
keeper, who compares same with the record of receipts
at the kiln. In small yards, tab is kept in a book by
the measurer. The best system to avoid all possibility
of error is to have a paying machine like a cash regis-
ter. The tickets are issued from automatic triplicating
machines, the printed form (Fig. 86) going to pickers,
the duplicate being retained by weigher for reference,
while a secret triplicate roll remains locked in the ma-
chine, which can be opened only in the office and from
which postings are made to individual accounts and
from which also daily recapitulations are made on add-
ing machines.
By the high trellis system (Fig. 48), the pickers cut
the strings and vines off from the wires 18 feet above
ground by means of a knife on a long pole; then
pick off the hops from the reclining vines, which can
be readily handled. Sometimes in England and Ger-
many, the hop vine is taken down and stretched on
hooks in the posts only five feet above ground. On the
short pole system, cut the vine just below the hops and
in the string above, slide the bearing vine down the
poles, then pick. On the long-pole system, the pole-
puller will cut the vine two to five feet above ground,
and draw the pole gently, laying it on a crotch (Fig. 83)
for the picker — not over the box, as the leaves would
drop in fast. The simplest means of taking out a pole
is to pass a chain or rope around it close to the ground,
through which a lever is passed, and with a block of
HARVESTING THE CROP. 173
wood as a fulcrum the lever is thrust deeper as the pole
is raised.
Numerous efforts have been made to perfect a
hop-picking machine. It is only a question of time be-
fore some device of the kmd will become practical, if,
indeed, one or two machines are not already worthy of
general introduction. They will doubtless be so altered
and improved, however, that it hardly seems expedient
to devote more space to them here.
When the harvest is completed, the poles should
be carefully piled or stacked, all vines and strings col-
lected and burned to destroy eggs of insects or fungi
(or the vines may be used as stated on Pages 21 and
']']), and the plants dunged with stable manure if the
land is at all poor. Many are careful not to cut the
vines at the bottom, where the trellis system is used,
but let them remain until killed by frost, in order to
mature the root, when the vines are cut and gathered.
Sometimes the vines are cut into short pieces and
plowed under.
FIG. 90. TENT TRAINING.
lU
THE HOP.
FIG. 91. IMPROVED ENGLISH OAST.
This represents the most modern construction and all the latest improvements
in vogue in England. Erected for Mr. W. Lillvwhite, Winoheap Farm, Can-
terbury, Kent. From a photograph taken for this book by R. M. Elvy.
k
^^
^^.=J1-Ljccv^
CHAPTER XII
KILNS FOR CURING HOPS
N Germany, the growers
merely air-dry or sun-dry
their hops. This is partly
because the average grower
has too small a hop yard to
warrant a kiln, and also be-
cause the German trade pre-
fers the present system. In
Germany, if a specially fitted
drying room has been set
apart for the purpose, the
large baskets or sacks are at once carried there and emp-
tied, but if no such room is available, the hops are
deposited upon screens exposed to the sun but shel-
tered from the wind, and in the evening, they are
removed to an airy barn and at once spread on the
floor. When hops are dried by this latter method, the
walls and roof should be thoroughly cleaned and dusted
beforehand, and the floor well scrubbed with soap and
water, so that all dirt, vermin and bad smells are
removed. Drying is done by aeration, and dust must
be carefully excluded. It cannot be urged too forcibly
tliat lofts or barns in which hops are dried must be
perfectly clean and sweet. In any case, the large
baskets, filled or not, must be emptied twice during the
day, for if the hops are left closely packed logether for
more than six hours, fermentation sets in and the qual-
ity deteriorates.
It is claimed that this "natural cure" preserves far
more of the essential oils and other brewing principles
175
176
THE HOP
-0
/ 1
r=
^^ ^^
^r=:
f \
^«-^ — \
1 '
1
HI
i:
1
\ /^
1 ? 1
|t=1ref
""
ms
—
X. 1
p^l
, \-r\ n
A B
FIG. 92. SECTION OF GROUP OF KILNS AND COOLING ROOM.
FIG. 93. GROUND FLOOR OF KILNS AND COOLING ROOM.
KILNS FOR CURING HOPS. 177
than is possible by the artificial hot-air cure in Eng-
land and America, and that this accounts in part for
the peculiarities of Spalt hops that command such
extraordinary prices. The dealers buy the hops loose
from the grower, sack them, carefully assort the hops,
putting all of one color and strength together before
bleaching them with sulphur; single firms thus handle
and bleach 20,000 bales or more. Spalt hops are never
bleached.
In England and America, curing is done in spe-
cially constructed houses, in which temperature, mois-
ture and sulphur fumes can be regulated to a nicety.
The construction of these curing houses will be first
described.
ENGLISH OAST HOUSES
are well and briefly described by Whitehead:
"The kilns for drying hops are of simple construc-
tion, being occasionally square, but more frequently
round, chambers, from 16 to 20 feet in diameter, with
stoves or fireplaces in them, and from 14 to 18 feet
high; at this height a floor of narrow joists, or oast
laths, an inch and a-half or so apart, is laid over the
chamber. At this point the sharply sloping roof com-
mences, being carried up to an apex with a circular
aperture of from two to three feet, upon which a cowl
is fixed. The roof is from 20 to 26 feet high. A sec-
tion of a kiln is given in Fig. 92, B, in which the rela-
tive height of the various parts is indicated. The kiln,
or chamber, is in some cases merely a room with open
iron stoves in it, as shown in the tw^o lower kilns of the
ground plan D in Fig. 93 and in Fig. 92 B,
having holes at intervals in the walls, just above
the ground level to allow the admission of cold
drafts to drive up the hot air through the
hops above. Over the open stoves, iron plates
are hung, five or six feet from the floor, to break
178
THE HOP.
and distribute the volume of heat from the stoves. The
cold air currents can be regulated by shutters over the
draft holes. It is better that the stoves in the
chambers should be set in brickwork, forming an inner
circle (Fig. 92, A, and the two upper kilns in Fig. 93),
so that the hot air is more concentrated, while
the cold drafts do not mingle with it directly and
diminish its heat. Upon the floor of joists or oast laths
FIG. 94. ELEVATION OF THE COMMON HOP KILN.
A, Stove room, with stone, brick or jtlasterpfl walls, but no floor; B, rtryinsr room;
C, store room, wliich has a w iiulow in the end, not shown, with tight shutters;
A\ ventilator; ^, i>latforni from wnich to )iass ui> the hajjs of jjieen hojis;
G, door into dryintr looiii ; //, |)i|>e, or smoke stark from stove, which is to he
taken down when not in nsc; y, air holes; /stairs lo i>latform. The usual
dimen-ions are marke, 3x5 joist frainert into rafters of roof; c, post, 3x3,
framod into cowl, and movalde nixm nn iron i)in at bottom, wliich rests on
b. Tlie cowl shuts over the termination of the roof, and projects over it
about two inches.
the dry room. A hole (H) is left in the floor of the
store room, in which a bottomless bag is fixed to con-
duct the hops into the box in pressing.
The stove room should be double-boarded out-
side, and double-boarded or lathed and plastered inside,
and supplied with convenient air holes at the bottom on
all sides, which may be opened or be closed up at pleas-
ure. The stove is made expressly for drying hops.
The bottom is simply a grate, so that the draft is
KILNS FOR CURING HOPS.
183
directly under the fire, and consequently greater. The
pipe (p), which should be seven inches in diameter, rises
from the stove to the height of five or six feet from
the ground, then passes horizontally into a drum,
12 or 14 inches in diameter and three feet
long, thence as indicated by the arrows in Fig. 107, ris-
ing gradually, as seen in Fig. 108, until it reaches the
chimney about four feet from the cloth. Such an
ip
1 jj
■
D
1
^
1
D
c
FIG. 99. GROUND PLAN OF KILN.
A, stove room; B, stove; C, C, draft holes; Z>, Z>, coal l.iiis; E, pr- ss room.
cirrangement of pipe keeps all the heat where it is
needed, and, of course, saves fuel.
The press room should be at least seven feet from
the floor to the beam in which the screws are set. The
beam, ten by twelve inches, may also serve as a support
for the floor of the store room. The bed-sill is of sim-
ilar dimensions, and connected with the beam by two
184
THE HOP.
half-inch iron rods, seen in Fig. io8. In Fig. 107, B,
is seen the bottom plank of the box, which is seventeen
and three-quarter inches wide and six feet long, and is
pinned to the sills. The side planks (c, Fig. 108) are
of the same length as the bottom, and two feet wide,
grooved near the ends to receive the end pieces. The
length of the box inside is five feet. The top plank
((/), one foot wide, is held in place by the ends of the
FIG. lUO. PLAN O:^ DRYING FLOOR.
tenons on the posts g. The cloth used for baling hops
is about forty-four inches wide, and five yards is sufH-
cient for a bale.
The circular oast house is also employed, like the
photograph (Fig. 123), and the floor plans in Fig. 99
and 100. A circular or square wall of brick, one
foot thick, about 20 in diameter, is carried up to
the height of 12 feet; then joists are placed in
KILNS FOR CCJRII^G HOPS. 185
the wall at the height of ii feet, across which are
placed strips two inches square, and nine inches apart.
Over these is spread a strong cloth made of horse hair.
Figure lOO shows a plan of the drying floor, capacity
35 to 50 bushels. The wall is carried about two
feet higher, and plates are placed upon it, and
terminated by a sharp wooden roof. At the top of the
roof should be a hole about five feet in diameter,
around which is placed a circular plate somewhat
larger on the outside than the hole itself. Upon this
plate is placed a cowl, to keep out the rain and let ofif
the vapor. It turns with the wind. On the ground
floor is the furnace. A door connects the kiln with the
storage room below and the chambers above, for
receiving, cooling and packing the hops. The furnace
is built so that the heat rises from the center. A wall
two feet high is raised, upon which is placed an iron
grate, three feet wide and four feet long. The wall is
carried a few bricks higher, solid, after which it is
raised in open work two feet higher, the bricks lapping
over each other about two inches. The two sides and
back end being built, the top is covered by flat tile,
supported by iron bars, laid across. A ground plan is
given in Fig. 99. A double kiln of this nature is
shown in Figs, no and in.
HOP KILNS ON THE PACIFIC COAST
Many of these have been built since 1890, and are
designed to do their work with the utmost perfection
and economy of capital, labor, fuel, and maintenance.
These objects have been sought with special care by
the Pleasanton Hop Company, wdiose buildings em-
body many features suggested as desirable by science
and practice in all parts of the hop-growing world.
This model hop-curing establishment is described in
detail in the sketches, plans and photographs. Figs.
T15 to 122, inclusive. This establishment now
186
THE HOP.
has 12 kilns, each 30x30 feet, all connected by
over-head trestles with the six bins in each of the
two large cooling rooms or warehouses. The cars in
which the hops are carried from the kilns to the cooling
bins are 30 feet long by 12 feet wide, big enough
525
El]
>
O
to take an entire ''flooring" at once. The cars
have movable sides and A -shaped bottoms, so that
the hops can slide from car to floor in any direc-
tion wanted without being rehandled, which also
saves breaking. Indeed, handling is avoided through-
KILN^S FOR CUEING HOPS. 18?
out the whole process, so as to secure the whole-
berried or beaky hops desired by brewers. The
hops remain undisturbed in the cooling rooms until
ready for baling, and require about a week to cool off.
The large power press in each cooler is so constructed
that trampling the hops is unnecessary.
FIG. 102. DETAILS OF KILN CONSTRUCTION.
The principles of construction outlined are also
applied in Oregon, where kilns are usually 24x24
feet; also in Washington, where a few are 22x26 feet,
rarely 30x30 feet, and a few old kilns are 16 feet square
for 10 acres. The foundation sills (b, Fig. 102), of 6x6
inch stuff, rest on six by six pieces (c), two and one-
half to three feet above a stout sill (d) on the ground,
with the space below^ the sills open to give plenty of
188 THE HOP.
draft to the building. The studding (a) is of two by
six, sheathed outside with rustic boards, inside lathed
and plastered to the eaves. The roof is a half-pitch
hip-roof, the rafters ceiled up with matched boards to
the ventilator, which should be five feet square on the
inside, and 12 or 14 feet high, and boxed up to within
three feet of the top, with swinging doors, to close at
pleasure.
The hop kiln floor is usually 16 feet above
the earth, or four feet below the plates, as too large
an air space above the hops tends to check the draft
so necessary to carry off the moist vapor and steam.
The floor joists are two by eight, resting upon a two by
eight plate let into each stud one inch, and well spiked.
Rough boards are nailed down and covered with one
by four inch boards to make the floor. Hop-floor laths
an inch thick and two inches wide, sized and with one
edge rounded, are placed on the fioor about an inch
apart (Fig. 102), upon which in due time the hop cloth
or carpet is stretched. In the France kiln the
cloth is stretched on wires, and is rolled ofi. by a
shaft in the store room, so that all the hops are taken
off in five minutes and the carpet put back ready for
a new change without losing the heat or letting the
lire go down. An improvement on this device is shown
in Fig. loi. The hops are put on from a movable walk
— a plank two and one-half feet above the carpet, sup-
ported from the rafters by wire suspension rods — and
when the hops are on, the plank is turned on edge.
The iron drying stove (Fig. 104), big enough to
take in four-foot wood, is set in brickwork, to prevent
fire, the underside of the stove not lower than the sill.
A 12-inch iron pipe runs up from the stove, break-
ing into a T (a a <7, Fig. 104), the two arms gradually
rising on supports (Fig. I03),but being kept about three
feet from the walls, to avoid fire; when the pipes reach
the other end of the room, they are joined by a T and
KILNS FOR CURING HOPS.
189
carried into the chimney, built outside, which has a
I2xi2-inch flue. A brick circle, i8 inches in
diameter, is buiU in the wall, to admit pipes
to chimney without heating wood. Various other
methods of running the pipe are used.
The bin or cooling room for a 1 6-foot kiln
is about 16x20 feet. If adjoining, it is five feet
lower than the kiln floor, with a doorway five by
four feet, in halves, to put the hops through when
FIG. 103, SUPPORT FOR HOT AIR PIPE.
dried; in this case, allow one or two feet of cold air
space between the walls. Many build the coolers at a
distance, connecting by trestle work (Fig. 120), as at
Pleasanton, to reduce fire risk and cheapen insurance.
The bin should be partitioned off into several rooms,
so that not over three or four days' drying need be
crowded into one room, as by this means the press in
the room below (Fig. 121) can be started sooner.
The kiln floor is usually reached by a driving
190
THE HOP
gangway for team and wagon, to a platform with a
good shed over it, in which hops are deposited direct
from the yard, until ready for loading the hop kiln.
Wagons then pass down a gangway at the other
end of the platform to the field level. Hence hop
kilns are often built in a hollow to save as much hauling
up a gangway as possible. A large elevator to carry
the sacked hops from wagon to kiln floor is cheaper,
and on some accounts better, where one has the power
to run it.
FIG. 104. STOVE FOR KILN, FRONT VIEW.
CHAPTER XIII.
CURING, COOLING AND BALING HOPS
OR fuel, charcoal is used in
Germany. Its fumes appear
to have a beneficial effect on
the hops, while its heat is
intense, quick, and easily
regulated. The German hop
market will use no other fuel.
In England, anthracite coal
is employed, but coke is put
on to keep the fires going,
and some think it tends to
impart the desired softness to hops. In America, dry
wood is almost the only fuel in hop kilns.
One wagon and team can keep a ten-acre yard
supplied with boxes and remove the boxes of hops to
the kiln platform. Two men are necessary, and these
will assist the dryer to load the kiln when ready, as it
requires three men to load. The dryer and a fireman
are required to attend the stove and drying, working
alternately in shifts of twelve hours, changing at noon
and midnight, so that each may have sleep in the night.
CURING THE HOPS
Everything being in readiness, the hops are deliv-
ered at the kiln loosely in large sacks, if picked in bas-
kets, or in T20 bushel hop boxes. The floor cloth is
carefully stretched — lo-j-ounce burlap or a strong
duck is used for the carpet or kiln cloth ;
eight-ounce cloth is too thick and causes too much of
the lupulin to fall on the pipes. The men wear sewed
191
l:i".»
THE ITOI\
FIG. 105. A HOP BALING KIESS.
CURING, COOLINfi AS I) I'.WASd.
VS.
shoes, that no nails may tear the carpet. The sacks
of hops are carried into the kiln and jjlaced on the floor
near where they are to be emptied, without dra^^ing
them across the carpet, and are emptied as lightly as
possible, without shaking the floor, so as not to break
the hops nor settle those already emjjtied. As fast as
emptied, the hops should be loosened and leveled with
a wooden barley fork. The floor can be laid to a
depth of three to four feet, but at that de])th it will re-
(juirc a long time to dry, and the bottom hops woukl be
Flu. 106. ELEVATION OF HOP HOUSE, NEW YORK— See Page 181.
scorched while the top ones would hardly be dried. It is
best not to lay them deeper than can be dried and
moved in twenty-four hours, and the picking should
be stopped when enough have been secured for this
purpose. Therefore, it is bad policy to have too many
pickers, as they become dissatisfied if compelled to lay
idle any portion of the day.
Hops that have been heated in the sack while wait-
ing to go on the kiln, will become smudged and discol-
13
194
THE HOP.
ored, and it is absolutely impossible to make a choice
hop out of them, as nothing can be done to bring them
back to their original state after they have once become
heated and spoiled. There is no reason why hops
should heat in the sack if growers would observe a
little diligence. The heating of hops in the sacks is
caused by either packing them in too tightly or from
permitting the pickers to sit on them as if the sacks
were cushioned chairs. Also avoid allowing the sacks
ti' :■
■ H "''3 -,'^!'-""^J!'>!g
O
/ff
i2
I/:
'6f, stove; P. pipe; //, trap
door in room abovt' to let down hops to | less; B, B, ))ottoni of press; b, i, keys
to hold the sidtposts of press; o, «, railway lor moving press under the hole
//. In this fiynre the positions of the joists y,;, and slats s, s, of the floor
above are also shown.
to remain on the platform too long, and when there
see that the sacks are not piled on top of one another.
Do not pack too many hops in a sack.
On a deep "floor" the hops may have to be turned,
or they may be scorched or imperfectly dried. Many
careful hop men oppose deep floors and turning of
hops, though practiced everywhere. The deep floor also
requires excessiv^e heat. If the hops get "packed" they
cuRiKG, cooli:n^g and baling.
195
must be stirred, using a long-pronged fork, with ends
of tines turned up to avoid pricking the cloth. In New
York, the floor is usually 12 to 18 irTches deep, deep-
ening as the harvest proceeds and the hops get dryer.
A fan blast is often used to force a current of heated
air through deep hops, and this may prevent the need
FIG. 108. SECTION OF HOP HOUSE SHOWN IN FIG. 106
Showins: stove, dry, store and press rooms. S, Stove; P, pipe: C, movable sides
of press; (/, upper plank of press; (/, f/, posts to support sides of press; b, bt
irou rods, wliich connect tlie bed-sill with the strong beam above.
of turning. On the Pacific coast, hops are seldom
laid over 24 inches deep, and 20 inches are ample.
The object in curing hops is to evaporate their
excess of water without loss of other qualities, and in
the least possible time. Green hops contain from 70
to 75 per cent, of water; cured hops from 7 to 10 per
cent. This change is usually effected in 12 hours,
the morning pick going in at noon and the afternoon
190 TH^ HOP.
harvest at midniglit. As a floor four feet deep and
1 6 feet square will contain about 45 boxes, or
900 bushels, the green weight of 4,500 pounds
shrinks to some 1,100 pounds. Thus, the 3,400 pounds
of water in the hops has to be evaporated and carried
off during the 12 hours. Hot air to evaporate the
water, and a strong current to carry the vapor off are
essential. Hence, the need of an abundant inlet of
cool air into the stove or heating pipes, and of ample
ventilation to draw off the hot vapor in such a way
as to create a strong draft or current of heated air
through the light and fluffy mass of hops.
After the floor is laid, the fire should be started and
the heat raised to the desired point in two to four
hours. If the heat is rushed up quickly, it will cause
the hops to pack, whereas they should be kept so light
that the heated air will freely circulate about every hop.
At the start, open wide the ventilators in the cowl, to let
the steam off freely, and as long as steam is emitted,
see that the sulphurous acid fumes permeate the air.
When the steam is gone, or nearly so, stop the sulphur
and close the ventilators halfway. This is in about 10
hours, generally, on a 12-hour cure, depending on
the condition of the hops. Finally, close the ventila-
tors tight, to allow the top layers to be dried off.
It is not possible to describe in words the con-
dition hops are in when the cure is done and the floor
ready to renew. It must be learned by actual experi-
ence, just as the qualities and curing of cigar leaf
tobacco can be judged only by experts. Meeker
attempted to do this in his book, from which we quote:
"An ideally cvired hop would show only a wilted stem, or
core, of a purplish-green cast, being soft to the touch and
flexible; the globules of lupulin, standing out prominently,
bright and unchanged from that of an uncured hop. In prac-
tice, however, most of the stems are not only wilted, but are
dried so as to be brittle and harsh to the touch, and show
the sharp corners, which will be readily understood by any-
one taking a specimen between the thumb and finger and
CURING, COOLIKG AND BALING. 197
rubbing the hop to pieces. Because of the presence of these
over-dried hops, we are able to turn off the flooring with a
small percentage of fat hops, being those whose stems are
not wilted, but show as green as when placed in the kiln.
Floorings, with 10 per cent, of such stems, may be turned
off, and yet keep, if otherwise well and evenly cured and
properly handled afterward, though I should by no means
advise leaving so large a percentage; probably not five per
cent, of such stems are left in ordinary practice. Whatever
there may be will have disappeared in a couple of days, and
such stems as were green will be wilted and the moisture
absorbed by the balance of the hops. The after-handling
consists in forking the hops over after they have lain a few
days and have begun to warm up, as hops in bulk will do where
not dried thoroughly. A better plan is to cure at a lower
temperature, which will insure a larger percentage of wilted
stems, and less of those with sharp corners, as likewise of
the green stems and a more even color."
If hops are slack-dried, they will "give" when
cooled off. If over-dried, they will fall to pieces or shell
badly, feel harsh and the stems will be brittle.
FIG. 109. SHOVEL AND BRUSH FOR USE IN KILN.
This last state can be helped by putting a quart
of salt in a pan on the stove and shutting the ventila-
tors for a short time — a little trick that wdll soften and
toughen the otherwise brittle hops. Even on brittle
hops, salt must be tised with care, and never on hops
that are all right. It causes hops to absorb moisture,
especially in Oregon and Washington. A hop that
absorbs moisture before being baled is liable to be
clammy and boardy.
When the hops are done, draw fire at once, and
open ventilators, and allow the heat to go off; then
198
THE HOP.
carefully remove the floor into the cooling room. This
is done with a rake or box shovel (Fig. 109).
COOLING AXD BALING
Before removing to the cooling bin, the floor of
hops is allowed to cool off for an hour. Where the
box shovels (Fig. 109) are not used, hops are taken
from the floor in wheel scoops, operated by one or two
men, or pushed by rakes into cars (Fig. 112). The floor-
FIG. 110. ELEVATION OF DOUBLE KILN, NEW YORK.
cloth is carefully swept with a peculiar broom (Fig.
109), to save all the lupulin and dust, and as a guard
against danger of fire. If a floor comes off red, discol-
ored, or with traces of mold, keep such hops separate;
don't mix, or you will reduce the price of all the hops.
Strive by all means to keep qualities separate, if more
than one, so that the buyer gets his goods as he bought
them, and thus insure a reputation for yourself.
CURII^G, COOLING AND BALING.
199
English and German practice is to pack the hops,
while still warm, into sacks about six by three feet, con-
taining about 125 pounds and called "pockets." These
bales are usually sent to market at once, and if not
promptly sold to the brew^er (who puts them into cold
storage) are stored in large, cool, airy warehouses, so
stocked as to permit a free circulation of air about each
bale; otherwise, the hops may become crusted and
damp. Prompt packing while w^arm prevents the
escape of the volatile sulphurous acid gas, the reten-
tion of which in the bales adds to, or rather preserves,
the brewing qualities. This gas is exceedingly vola-
tile, and the more it escapes before hops are packed.
H
n
FIG. 111. GROUND PLAN OF DOUBLE KILN SHOWN IN FIG. 110.
the less will be its beneficial efifect. Kammerer showed
in his tests at Nuremberg that sulphured hops left open
and unbaled for four weeks, steadily lost their binoxide
of sulphur, until after four weeks they contained only
25 per cent, as much as when first ofY the cloth.
Another argument for packing while still hot, is that
the hops contain less water than in any other period,
and if allowed to cool, will rapidly absorb water, thus
partly counteracting the object of the cure. Scientific
experiments on all these points would be highly
interesting.
In America, however, thorough cooling is the
rule, partly because when baled cold the hops are
200
THE HOP.
alleged to keep much better during the often long
interim before they reach market. In some cases, they
He in the bin twenty-four hours, and are then put into
another store room for ten days to sweat. The
dried hops remain in the bin until they commence to
toughen or ''come in case," which takes from three to
FIG. 112. CAR AT KILN TO RECEIVE HOPS (Pleasanton).
A, Upwarrt slidins: doors of kilns, through which hoi)S are pushed fr< m floor;
i}, wooden apron down wliich hops slide (to juevent their breaking), with
the car, t^ ready to receive the dried hops to be carried to the coolers.
seven days, depending upon the temperature and den-
sity of the atmosphere. But if allowed to lie too long,
they again become very brittle and break badly in
pressing; if left until they again show moisture, they
pack in the press hard and vSiolid, and samples taken
CURING, COOLING AND BALING.
•>wl
from them arc what dealers call boardy and which they
claim are slack-dried. If hops are to be held by the
grower for some months, there is considerable testi-
mony to show that they can be kept with less injury
in bulk than in bales. Meeker inquired particularly into
this point, and still believes it is fully demonstrated.
Of course the warehouse must be kept cool and very
dry, so the hops in bulk will neither heat nor absorb
moisture.
Meeker covers another important point as follows:
"One objection to the practice of b^Hng immediately
FIG. 113. THE HARRIS HOP PRESS.
after curing is that the grower's crop will not run as
even in quality as if carefully stored, in order that they
may mix the whole thoroughly. The earlier pick-
ing wnll be lighter; that is, not so rich as the later, be-
sides no field qf hops will be of exactly the same quality
and color, even if picked on the same day. To most
effectually mix, so as to have the whole crop uniform,
the warehouse should be filled in layers, first covering
202
THE HOP.
the whole floor about two feet deep, and gradually fill
by adding successive layers; then when baling, by tak-
ing the whole depth of the pile there will be no appre-
ciable difference in color or value. This plan gives
uniform samples from every bale, a point highly desired
by the buyer."
Great care should be exercised, so as not to break
the hops during the process of baling. Many growers
tramp the hops with their feet without using any board
to rest on the hops. In fact, we know cases where
FIG. 114. THE PRESS WITH FRONT REMOVED.
growers actually stamp the hops in the presses with
their feet. A horse^power press that does not require
any tramping is, of course, preferable, but these presses
are expensive and not all growers can afford them. A
hand-power press that requires the follower to be run
down more than once, can be made to bale hops in per-
fect shape by using the board mentioned above, and
a springy motion of the knees, while standing in the
CURIN^G COOLING AND BALING.
203
press, instead of tramping them, will prevent the hops
from breaking. A hop that is broken from any cause,
whether from baling or otherwise, is far from a
"choice" hop. It may be all right in other respects,
but the mere fact that it is broken will detract from its
selling, as well as its brewing, qualities, and, in addi-
FIG. 115. PLEASANTON HOP KILN. FRONT ELEVATION. INTERIOR
VIEW GIVEN OF KILN AT THE LEFT.
a, Ventilation resnlator (opens and closes by pulley ropes extendinsr to
kiln floor); ft, kiln floor aox30. built of l>;;xl inch slats set on edtfe. with 1>^
Inch space between each slat to allow heat from furnace and pipes to pass
through hops. Over the slats is laid a carpet of 10-ounce burlap to prevent
hops from falling through. On this floor the green hops are spread for drying
process; r, seciion of heating pipes detailed in Fig. 118; , furnace, of boiler
iron, 6 feet long. 4 feet diameter, with brick supports and brick enclosure pro-
vided with draft doors as shown; e, car with movable sides and bottom, used
to transport the dried hops from Ihe drying floor to coolers (Figs. 120 and 121);
/, upward sliding doors through which the dried hoi»s are shoved from kilns
to cars; r/, elevator wheel, for hoisting the green hops in sacks from wagons
to kiln floor. About a ton are hoisted at one time, the hops being placed on
^, the elevator platform; /*, stairway built outside of kilns and connecting
kiln platform with car track; (, door to furnace room ;,/', car track built on
trestle, 20 feet high, connecting kilns and coolers; /, brick and iron chimney
50 feet high, provided with, w, dampers for regulating draft in chimney; u,
elevated platform outside of kiln room; o, 2f^ inch hxdrants connected with
.Vinch water main trom tank and steam pump; p, 1 inch automatic sprinklers,
5 over each kiln floor, and connected with same water service.
tion thereto, a broken hop will naturally age more
quickly than a whole-berried or a "flaky" one.
Before beginning to pack the hops in bales, get
ready the sacking (weight, 20 to 24 ounces per yard),
twine for stitching, brush and stencil brad, with four
men to do the work. Cut the cloth four inches longer
204
THE HOP.
than the press, thus allowing two inches on each side
for stitching. Put the bottom cloth in, fill up the
press to the middle with hops; then let two men get in
to press them down with their feet, having a three-
fourths-inch board, covered with cloth, the full size of
inside of press (less one-half inch all around), for the
3i
FIG. 116. SIDE ELEVATION OF KILNS — INTERIOR VIEW AT LEFT.
a. Ventilators; b, hop drying floor: c. heating pipes; d. front of stove showing
brick enclosure; e, sides of hopper, detailed in Fig. 117, /, elevated platform;
r/, trestle supporting car track; h, door to furnace room; i, door to hop drying
floor.
men to stand upon so as not to break the hops.
Then get out, remove the board, again fill up
and again press the hops down with the board.
Next fill up with hops to the top, lower the
press and squeeze down; lift up, fill up again,
insert top cloth cut just the same as the bottom, and
CURING, COOLIKG AKD BALING.
205
press down with the clamps. Open the sides and again
press down about two inches more. Sew on the cloth
sides with a sacking needle and twine, and then draw.
Deliver the bale to the fourth man, who will complete
the sewing of the sides and store away. The press
should be run down until the cloth will lap at least one
inch on each side of the bale, and the cloth should
be evenly but not too tightly drawn, and sewed with
short, even, lock stitches, causing the strain when the
FIG. 117. DETAIL OF HOPPER.
A, A, Space occupied by furnace (shown ate?, d, in Fig. n5) witli surrounding wall.
On this wall rest the main supports, B, of hoi)per, and smaller supports, C.
To these supports are nailed iron laths (covered with plaster), making the
structure practically fireproof.
bale is loosened to come evenly on all the stitches. After
being removed from the press, the ends should be
sewn in at once before the bale commences to sweat.
A number of styles of presses are used. Large plants
employ power presses, which do away with tramping
the hops and save breaking them. The two presses
at Pleasanton can each turn out 80 to 100 bales a day,
extraordinary capacity being necessary to handle its
crop of over 3,000 bales.
206
THE HOP.
Bales should weigh not less than 185 pounds nor
more than 200 pounds, as near to 185 pounds as pos-
sible. To make the bales conform to this limit, it is
necessary to weigh each bale as it comes from the press,
to be able to determine how to fill the press for the next
bales; or it can be closely judged by noticing how
many "scoops" are required per bale. Stencil the bale
plainly with your brand, which should also give grow-
FIG. 118. ARRANGEMENT OF HEATING PIPES AND DRUMS.
a, «, 12-inch main pipe leading from furnace and with continuous turns and as-
cending, as shown in Fig. 116. finally ending at chimney, "e." At intervals 22
inch drums (d), 8 feet long, are placed to give more heating surface and to
more evenly distribute tlie heat. The pipes are of sheet iron with riveted
seams.
cr's name, postofifice, county and state. Don't stencil
the weight. This will be done in the buyer's presence.
He will deduct five pounds from each bale for the cloth
(which is the law in New York state), and unless this
is stipulated, he will want to deduct seven pounds.
In storing hops, the bales should be set on end,
not touching each other, and if they are to be stored
CURING, COOLING AND BALING. 207
more than one bale deep, a couple of boards can be laid
on one row for the upper row to stand on. If they are
to remain in storage any length of time, the bales are
best turned the other end up every lo days or two
weeks.
ADDITIONAL NOTES ON CURING
Hops from young yards, and hops damaged by
mold, require to be entirely dry, and may be finished
up with a few degrees more heat. They also require
pressing sooner, as they slack and become moist
sooner, on account of the core or stem being larger.
Green hops are liable to become heated if allowed
to remain in bulk, even over night, and it is advisable
to stir them late in the evening if they have to be kept
over. Heating will cause the lupulin to drip out. If
the hops should come to the kiln hot and wilted, it will
be found to be a good plan to thoroughly dampen them
with a sprinkling pot of water as the flooring is being
laid. This causes them to freshen up, and the escaping
steam will open up the leaves of the strobile, thereby
letting the heat season out the core of the hops without
baking all the life out of them by exposing them to
long continued heat. If the hops are to remain long on
the platform before going into the kiln, the sacks should
be set so as not to touch each other, the mouths of the
sacks opened, and the person caring for them should
run his hand and arm down through the center to the
bottom of each sack, then grasp a large handful of hops
and draw the hand out. This will loosen the hops up
and leave a hole through the center, permitting the
air to circulate freely, preventing the hops heating in
the sacks.
The proper temperature for curing hops is a mat-
ter of dispute. The trouble is that with limited kiln
accommodation, it is necessary to cure the hops in 12
hours, and to do this extreme heat is required. The
208
THE HOP.
w &
^ is
" o
^ =
< o
M O
fe S
CURIKG, COOLINa AND B^LIN^G. 209
kilns can hardly be used for other purposes; they are
costly to build and maintain, and the average planter
finds it more profitable to run the risk of a quick cure
than to have sufficient accommodation to cure his hops
at a lower temperature, which would require 24 hours
to each load. The importance of the slower cure at
a lower temperature is becoming recognized, however,
and at Sonoma and Pleasanton only one floor is placed
on the kiln every 24 hours, and the hops are cured at
the lower heat. Even then, the cured hops hardly com-
pare with the sun and air dried hops of Germany.
The usual temperature for a 12-hour cure in this
country is 140 degrees F., as tested by a thermometer
hanging in the midst of the hop floor or immediately
over it — not at one side; formerly it was 160 to 180
degrees. In England, the temperature ranges from
120 to 140. Where the 24-hour cure is followed in
California, the heat is kept at 100 or no. Whatever
the temperature decided upon, it should be kept
uniform.
Should the heat go up suddenly, open the doors
of the kiln and the ventilators at the bottom of the
house, so as to reduce the temperature to the desired
figure. The utmost care and constant attention, com-
bined with good judgment, are needed to preserve the
temperature, to watch the hops and to see that the cure
proceeds properly.
The extreme heat absolutely destroys a consider-
able proportion of the essential oils and other brewing
qualities. Mr. Meeker was perhaps the first American
writer to call attention to this point, which he did In
1883, and what he then wrote in his book, "Hop Cul-
ture" (long since out of print), is equally true to-day:
"This substance is most sensitive to injury by high
heat, and hundreds of tons of hops are injured annually,
and in manj'- cases their value almost totally destroyed by
the careless or ignorant manner in which they are dried.
The writer knows by actual experience that when hops are
14
210
THE HOP.
fsof/-.
FIG. 120. GROUND PLAN OF THE PLEASANTON ESTABLISHMENT.
Left half of plant. Ir is duplicated on the right side, not shown hereon. C, Are
the double kilns shown in Fijjs. USand 116; .fi are similar kilns, and another
pair of kilns and cooling houses are at the right in the duplicate half of
plan not shown above. B, Is the large cooler or warehouse. The tower for
water tax is at the center- with engine, pump, etc., nearhy.
CUKIKG, COOLIKG AND BALING. 211
subjected to a heat of over 160 degrees Fahren-
heit, there is visible to the naked eye, a change
in the appearance of the lupulin in many samples
that can be selected in a flooring of hops, though
not all will show the effect alike. We are led to be-
lieve from this that either the length of time after being
dried that the hops are subjected to the current of heated
air, or else some u:iKnown condition of the hops before
going on the kiln, governs this visible sensibility to heat; be
that as it may, the fact stands out prominently so that any
observing hop grower can demonstrate it with no expense
and but little trouble. As the heat is increased the
change becomes more apparent, until at about 180 degrees
the globules begin to disappear and run together, present-
ing a dull brown or red appearance, of all shades, according
to the degrees of intensity, and, as we believe, duration of
time the hop has been subjected to this high heat. If to the
naked eye there is a visible change in this delicate substance,
from the effects of heat, how much more apparent it becomes
when subjected to the rigid scrutiny of the chemist or the
practical test of the brewer. The extract or bitter principle
of the hop, according to Thausing, assumes a reddish-yel-
low color when heated above 140 degrees Fahrenheit, and
when cooled off can be rubbed into a fine powder (At
212 degrees F. the hop bitter swells up under decomposition^
and combustion takes place, with a sooty flame.) And yet,
an American authority recommends ISO degrees F. as a
safe temperature. We know from experience that it fair-
ly cooks the hops and destroys much of their value."
Whitehead, writing in 1897, confirms his earlier
statements in 1893, and in still earlier years, to the
efifect that "the merciless treatment of stewing or bak-
ing, to which English hops are subjected, causes an
absolute, visible loss of lupulin, besides the loss of
ethereal essences." English hops, dried slowly at a
temperature never rising above 100 degrees F., were
found on analysis to contain larger quantities of resin,
oil and bitter principles, and at the same time consider-
ably less moisture, than Spalt hops cured by the same
process. Worcester hops dried in this gradual man-
ner were found to be uniformly rich in desirable quali-
ties and to have far less moisture than the best brands
from other hop-producing regions of the continent or
America cured in the ordinary way.
212
THE HOP.
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CURING, COOLING AND BALING.
213
Meeker pointed out that there is also a greater
loss in the non-keeping quaHties of high-dried hops
than those cured at a low temperature. It would be
interesting to go into more details on this important
subject of the proper temperature, and to discuss its
scientific aspects, but the facts are as stated, and this is
sufficient for all practical purposes.
THE SULPHURING OF HOPS
This is done in several ways. In German curing
kilns, also in English oast houses, the sulphur is thrown
FIG. 122. COOLER — END ELEVATION.
See Hg. 121 for explanations.
directly upon the fire, usually after the hops have be-
gun to steam, another dose of sulphur being put on the
fire when the hops are turned. From lo to 20 pounds
of brimstone are burned for each floor on a 20-foot
square or i6-ft circular. In New York, the hop
stoves have a flange on which to burn the sulphur,
but as it burns too rapidly, the custom there (and also
on the coast) is to put the sulphur in a pan on the
214 THE HOP.
ground, near the stove, and set fire to it with a few hot
coals or with a red-hot iron.
If the hops are nice and free from rust, one pound
of sulphur is used for a floor in a 24-foot kiln, but when
very rusty, from two to five pounds are used; others
use only two to three ounces at a time, and burn it
three times, first when the hops are warmed one-third
the way through, and last when the heat has reached
the surface. On the coast, from one to four pounds
of sulphur per 100 pounds of dried hops is the range.
Usually a little sulphur is burned, with ventilators
partly closed, just before the hops are done, to finish ofif
the drying. The bleaching effect is not as much at
this time as when the hops are more moist.
Some Oregon growers find that "the best way to
burn sulphur is in iron kettles, hung by a hook on
wires stretched across each corner of the kiln, and high
enough to be above the heads of anyone passing under-
neath. These kettles can be lifted off with a forked
stick and set on the stove to get hot when the fire is
started, and again hung on the wire as soon as the sul-
phur is burning well. The kettles can be replenished
by dropping sticks of sulphur in them while burning.
They should be kept burning until the hops are
dry enough to rattle on top. The amount thus used
will be found to be about one pound to each 20 pounds
or 25 pounds of dried hops." Meeker burns the sul-
phur outdoors, but close to the fan, by which the fumes
are sucked up with the air and forced in a powerful cur-
rent through the hops after the air is heated.
No other chemicals should be used, as they de-
stroy the vitality of the dried hops and cause them to
fall to pieces and look and feel husky, like chaff. There
are four reasons for using sulphur: t. The fumes de-
crease the hygroscopic power of hops: that is, render
them less able to retain the moisture that is both within
and without them, and thus the fumes help to carry off
CURING, COOLING AND BALING.
215
the water in the hops. This is a vital point in favor of
sulphuring. 2. The fumes bleach the hops, dispelling
spots, dark colors, etc., and making the hops brilliant,
glistening and attractive it^ appearance and feeling. 3.
The preserving effect of the fumes prevents deleterious
transformation of the albuminous and other principles
in hops, the proper preservation of which is so essen-
t.1 i,jj-tti ^| Mq i' t^*Mu^if^^^?^£^.
GRADING AXD MARKETING HOPS. 239
T2.3 per cent, of hard resins and 29 per cent, of soft,
but after having been stored a year in a brewery under
ordinary conditions, the soft resins had fallen to 8.3
per cent, and the hard rose to 7.3 per cent. The chem-
ist's theory that the brewing value of hops is gauged
only by the soft resins, which is apparently borne out by
practical experience in brewing, indicates a loss of one-
third in the actual brewing strength of these hops dur-
ing the year. If as new hops they were worth 24 cents
per pound, then, as old hops, 16 cents would be a full
price for them. This depreciation explains the im-
portance of proper care of old hops. Hermetically
sealed up in galvanized iron cases, hops have been kept
for two years or more without appreciable loss in
brewing power.
EXTRACTING THE LUPULIX
And bottling it has long been successfully practiced.
One concern in central New York has made the fifth
addition to its hop extract works, and has worked up
more than 15,000,000 pounds of hops since its incep-
tion 25 years ago.
The process of preserving consists simply in re-
moving the sacking from the bales, breaking the hops
apart, putting them into large tanks, closing up the
tanks, pumping in an easily evaporated solvent, which
makes a solution of the lupulin, drawing ofif this solu-
tion into evaporators, where the solvent is evaporated
and the pure extract of the hops left behind in the
evaporator, whence it is drawn off and soldered up in
cans, thus made air-tight, so that the extract will keep
fresh for a good many years. This operation, waste,
car freight, etc., cost five cents per pound of hops han-
dled: T2 pounds of good hops yield one pound of ex-
tract, which is equal in the brewery to 12 pounds of
^hops. Brewers patronize this factory quite largely,
especially when hops are dear.
240 THE HOP.
A dilferent method for accomplishing a similar
purpose has been perfected at the municipal brewing
school in Ghent, Belgium, and is now being used by a
syndicate of Belgian brewers. They establish works
near the plantations, for convenience of delivery, and
buy hops only after analysis, paying according to the
amount of lupulin they contain, quite regardless of
color or odor. The hops are further dried at 95
degrees F. The dried cones are then operated upon
by a machine, which, by the action of brushes, sieves
and fans, breaks them up into their separate petals,
and mechanically separates from them the lupulinic
powder. The golden flour is collected and put aside.
The leaves are then passed through a series of several
washing cylinders, being treated therein with water at
a specified heat, until they are completely macerated,
and the tannic acid and other soluble matters contained
in them are entirely removed. The undissolved pro-
portion remaining after this process is very small;
therefore the waste is reduced to a minimum. The
fluid passing from the cylinders is then evaporated in
vacuo at the temperature of about 95 degrees F., until
it attains the consistency of syrup. To this are then
added the grains of lupulin, forming together a kind
of greasy, brown paste, which is packed in hermetic-
ally sealed tin boxes, from which the natural air is
afterwards expelled, and replaced by carbolic gas.
In this manner it is claimed that all the useful pre-
servative quality, as well as the flavor originally pos-
sessed by the hops is preserved without any deterio-
ration, and that it can be sold to the brewer for his
storage for an indefinite period. Other advantages
shown to brewers are: —
Reduction in space required for storage, as the
bulk of the hops is reduced by two-thirds, 100 pounds
of natural hops producing 30 pounds of extract; uni-
formity of quality, whereby beer can always be pro-
GRADrnG AND MARKETING HOPS.
241
diiced with the same flavor, and containing the same
preservative elements under any varying condition of
climate; economy in using extract in comparison with
natural hops. It is stated that the extract is completely
soluble in cold as well as hot water, and that there is,
therefore, nothing in it to affect the color or the clear-
ness of the beer.
FIG. i;J3. SCENE IN AN ENGLISH OAST HOUSE.
IG
342
THE HOP.
CO
CO
CHAPTER XV
CONCENTRATION IN HOP GROWING
In some respects the growing of hops on the Pa-
cific coast is undergoing the same evolution that is
witnessed in other industries. For lack of capital, low
prices for the product, inexperience or lack of proper
attention to the crop, many growers have been forced
out of the industry, and in not a few cases have been
obliged to sacrifice their plantations. Their farms
thus become consolidated into large holdings owned
and operated by m?n of ample means and knowledge,
who conduct hop growing and marketing on a large
scale, by scientific methods and on strictly business
principles.
One of the most prominent instances of this ten-
dency is afforded by the Horst Brothers. They have
under cultivation a tract of 700 acres (see Fig. 6, Page
24) on their home ranch at Horstville, on the Bear
river, Yuba county, Cal., and this one tract produces
annually over 5000 bales, equal to a million pounds, of
hops per year. They also own and operate other large
tracts in hops on the Russian river in California, on the
Willamette river in Oregon, and on the Fraser river in
British Columbia.
The Messrs. Horst grow their hops against con-
tracts that they have with brewers throughout the
world, and that are made for a long term of years in
advance, thus relieving themselves of the industry's
speculative features and giving them control of a good
share of the hop business. This plan has advantages
for the breweries as well, as they are assured of a sup-
ply of hops of satisfactory quality at a fair margin over
243
244
THE HOP.
CONCENTRATION IN HOP GROWING. 245
the cost of production, which is usually below what
they would otherwise have to pay.
The ranch at Horstville is the basis for their ex-
tensive operations. The entire 700 acres devoted
thereon to hops are set in the improved wire trellis on
20-foot poles that are set two feet in the ground, thus
leaving the horizontal trellis wires 18 feet overhead,
from which tw^o strings run down to each hill. A yard
is devoted to experimental purposes, where the dif-
ferent varieties from all parts of the world are tested
and seedlings are originated, some of which bid fair to
combine all the qualities most desired. The illustra-
tions in connection with this chapter show a number of
varieties most popular with brewers that are grown on
a large scale on this ranch.
One remarkable feature about this establishment at
Horstville is that lice and mold have never been known
since hop culture was inaugurated there, forty years
ago, and this fact, combined w'ith a soil and climate
peculiarly adapted to hop culture, makes this locality
one of the most certain and most prolific sections for
hops in the world. The ranch is on the banks of the
Bear river, and in a dry season the river can be used
for irrigating, thus making the crop certain regardless
of rain. In the year 1898, when California sufifered
from such a drouth as had never been knowm, this hop
ranch produced the same quality and quantity per acre
as usual.
By thus concentrating, under one management,
many plantations, the entire culture, harvest, curing
and sale of the crop is in the hands of experts. Noth-
ing is left to guesswork; slipshod methods are not
tolerated. Every detail is conducted on businesslike
and scientific principles and receives the benefit of the
wide experience acquired by the owners of this ranch,
not only in growing hops, but in disposing of them.
The latest improvement devised by Horst Brothers
2M]
THE HOP.
FIG. 135. EAST KENT GOLDINGS.
CON"CENTRATION IJf HOP GEOWING. 247
is their new kilns. These dry and cure the hops at the
lowest possible temperature and are now being further
improved with a system by means of which the hops
are dried by currents of air driven through them by fan
blowers. This air is not heated at all, and no artificial
heat of any kind will be used to effect the drying or
curing, thereby completely preserving the aroma, tex-
ture and lupulin, — qualities which are otherwise likely
to be sacrificed, to a more or less extent, during the
cure. These kilns and storage houses are built entirely
of iron, bridge construction for the frame, corrugated
iron for sides and roof, and the hop kiln floors are No.
4 steel wires, one and one-half inches apart, with No.
(O crosswires about six inches apart, thus giving prac-
tically all the surface to curing the hops, instead of
only one-half, as by the ordinary wooden floor process.
These iron kilns are considered so absolutely fireproof
that no insurance is carried, and this style of construc-
tion is evidently to come into general use. All the
other hop kilns on this ranch are now being remodeled
to conform to the arrangement of the battery of six
kilns above described, which are shown in the illus-
tration on Page 216.
Another notable improvement used by Horst
Brothers is a hydraulic compress for recompressing
the ordinary 200-pound bale of hops into a package of
one-half the usual size. This saves space in storage
and in transportation, and brewers speak highly of the
better keeping qualities of the hops thus compressed.
The crop is here grown on such a large scale that it is
shipped from the ranch by whole train-loads, to be dis-
tributed throuerhout the world.
248
THE HOP.
ti 3
CHAPTER XVI
EXPENSES AND PROFITS OF HOP CULTURE
HE cost of growing hops va-
ries widely, even between
neighboring plantations, by
reason of difTferences of
methods and yields, and still
more widely between differ-
ent countries. Profits fluc-
tuate even more seriously,
depending upon both yield
and prices. The yield of
cured hops per acre ordi-
narily varies within the following limits as a fair aver-
age for all growers, but in extraordinary seasons may
exceed them either way, while the best growers will
often exceed the highest figure quoted:
YIELD OF
CURED HOPS PER ACRE AND COST.
Pounds per acre.
Higliest.
800
1,000
1,500
2,000
Lowest.
400
500
400
600
Average.
500
900
800
1,200
Cost per 11).
Germany
England
New York
20 to 30c
12 to 20c
8 to 20c
Pacific coast
6 to Ific
Germany — Owing to the peculiar methods in Germany,
previously noted, it is quite useless to attempt any statement
of receipts and expenses of the peasant hop grower.
For E^GLA^D, however, Whitehead, in 1893, revised all
previous estimates, and Mr. E. H. Elvy, editor of the Kentish
Ohscrvrr, the leading hop journal in England, has carefully
corrected the returns up to 1899 for this work, as follows:
The land on which hops are grown in Kent is worth
about $200 an acre, and interest is reckoned at 5 per cent.
To start a new plantation will cost from $100 to $125 per
acre, including preparation of the soil, fertilizing, sets and
planting, cultivating, rent, taxes, etc. Plants cost $1 to $2.50
2-iO
250
THE HOP.
per 100, usually $1.25. Poles or trellis cost $50 to $100 per
acre. Thus the cost to get ready a new hop yard in England
will vary from $150 to $275 per acre. The kiln for 20 acres
costs about $2500, or, say, $100 an acre. After this invest-
ment, the following table affords a fair range of the yearly
expense over a large part of the English acreage, being larger
or smaller according to circumstances.
ENGLAND— AVERAGE YEARLY EXPENSE PER ACRE OF HOPS.*
Manure
Digging
Dressing or cutting
Foling, tying, training, lewing
Cultivating and lioeing
Stacking, stripping, cleaning up yards . ..
Annual renewal of poles or trellis
Picking, curing, packing, sampling, etc..
Rent, taxes, repairs, interest, etc
Sulphuring to prevent mildew
Spraying against lice, etc
Total
Lbs. per acre under favorable conditions
Cost per pound, say
Hieliest
Lowest.
Average
$40.00
$20.00
$30.00
6.00
3.00
4.50
2.00
1.00
1.50
11.00
7.00
9.50
16.00
10.00
12.50
4.00
2.50
3.00
10.00
7.00
8.50
50.00
30.00
42.50
32.00
25.00
27.50
5.00
2.00
3.50
12.00
7.50
9.00
$188.00
$115.00
$152.00
1,000
700
900
19c
17c
16c
*The £ sterling is figured at
at two cents.
>, the shilling at 25 cents, the penny
Thus we get an annual charge per acre of $188 as one
extreme, down to $115 as the lowest, or an average of $152
for yards kept up in good condition; against about $112
estimated by Marshall just a century earlier, about $120 by
Mainwaring's figures in 1855, and Worcester planters' esti-
mate in 1890 of $145 to $170 per acre for a good crop.
A— Annual cost per acre of hop culture in an East Kent yard, three
pole system and simplest methods still largely followed.
Stripping vines and stacking poles $ 1.25
Annual renewal of poles 25.00
Stable manure, also carting and spreading it ; 15.00
Digging $5, cutting $1.25, poling $3, tying $3 12.25
Digging about hills $1.25, shimming and liarrowing $5 6.25
Picking $25, digging $10, pockets $6.25 41.25
Kent, rales, tithes $20, sundries $6.25 26.25
Total cost for average yield of 7 cwt. per acre $127.25
Average cost of hops per pound 16c
B— Annual cost per acre of hop cultTire in Mr. J. D. Maxted's yard,
East Kent, on the Butcher wire trellis and highest culture by meth-
ods employed by the most enterprising planters in England.
Manures— 12 loads of dung $15, 10 cwt. of artificial fertilizer
$10, 5 c-wt. gypsum $1.43 $26.43
Team labor— Carting out dung $4, plowing $2, twice 3-horse
shimming $3, thrice 2-horse ditto $2.62, twice 1-horse liarrow
50c. cartage on fertilizer 28c 12.30
Manual labor— Spreading dung 37c, digging slips three times
$7.50, cutting $1.25, stringing $2.50, catting off old vines $1,
training $7.50, repairs to wire work and lews $1.50, digging
round 50c 22.52
EXPENSES AKD PROFITS.
261
Sundries— Three c\iltivatings $11.38, tliree siilphurings $2.16,
string for trellis $8.22, new poles and wii'e $2.40, new imple-
ments and repairs to old ones $3.60. blacksmith's bill $1.68,
rent and rates $14.58, proportion of supervision $4.86, hire
of oast $2.40 51.28
Total up to harvest time (about 6% cts per lb.) $112.53
Harvesting and marketing costs 30s per cwt., or within a frac-
tion of 6I2C per lb, including picking and curing and getting
to marivet (coal, brimstone, pockets, binmen, tallymen, cart-
age to oasis and station, freight, insurance, commission and
sampling), a total of 106.72
Aggregate cost of a yield of 15 cwt, per acre (or 1,680 lbs. at an
average cost of a trifle over 13 cents per lb.) $219.25
COST OF HOPS IN NEW YORK STATE, U. S. A.
Net Profits of $150 Per Acre — The late William
Brooks of Cooperstown, New York, furnished a remarkable
statement to the 2V>/r England ^Icmestead ia 1885, in which
he placed the cost of production at 10c per lb. He always
gave his yard the best possible care and sold his hops at
the market price when baled. He bought his farm of 100
acres in 1863 for $3000. It had five acres in hops, to which
he added two more acres in 1866. From these seven acres,
he received $38,180 for the 21 hop crops, 1863-'84, or an aver-
age of $2367 per year, equal to $339 per acre per year. But this
was during a period when hops averaged higher than of late
years. But the fact that the crop yielded an average of 1300
lbs. per acre all these years, or nearly double the product
on neighboring yards, where cost per pound was as much or
more, shows what can be done. His net profits must have
averaged for the 21 years over $150 per acre. Mr. Brooks
furnished details of his last 10 crops as follows:
Bales
Pounds.
Price per pound.
Tot'l rec'ts.
1875
4»
9,910
13c
$1,288
1876
43
8,869
34c
3,113
1877
62
12,006
lie
1,309
1878
46
8,693
14e
1,141
1879
49
8,531
30-35C
3,512
1880
43
8,221
16c
1,315
1881
52
9,663
25c
2.417
1882
36
6,402
70e
4,481
1883
54
9.6.36
31c
2.876
1884
53
486
9,590
91.521
24-25C
2,223
Total,
av 25.8c
$23,675
Av. per year, 7 a
cres
9,1.52
25.8c
2,367
Av. per year, pe
r acre
1.307
25.8e
339
NEW YORK STATE— COST OF GROWING HOPS
Otsego CorivTY. N. Y. — W. H. G.'s 10-acre hop field
cost $75 an acre, hills 8x8 ft, or 675 per acre; cedar poles at
12c, delivered, cost $810 for the yard. The kiln and store-
room is 50x24, and cost, including furnace, press, and other
fxtures, $1600. The sacks for green hops, boxes for picking,
etc., cost $40. The cultivators, hillers. grub hooks, bars for
pole-setting, etc., cost $50. The pickers boarded themselves
and at 40c per box were paid $206 for the 515 boxes; five box-
tenders at $1 each for 15 days, $75; expense of collecting and
252
THE HOP.
carrying pickers, $15; man at kiln 15 nights, at $1.25 per
night, $18.75; use of kiln-cloth $3 (it cost $45 for 900 lbs. at
5c), a total of $317.75, or 3.9c per lb. of cured hops. Insur-
ance was $3500 on hop house for 30 days at 40c per $100, mak-
ing $14, and $2000 for balance of year at $12. Work is
charged for at its local market value. Total cost a trifle
over 12c per lb., and i s he sold for 13c, he made a slight profit
over and above fair return for his labor and capital. The
operating expenses were 8.5c per lb. sold, fixed rharges 3.7c,
or a total cost of 12.2c per lb. of hops. If $30 worth of the
$88 spent for fertilizers is allowerl to be -i the soil for the
next crop, the net operating expense of this 1897 crop was
$663,25, or $66.35 per acre. Adding depreciation and taxes,
$259, the total cost of production is $922 for the ten acres,
or, say, $92 per acre. Deduct this total cost from the receipts
for the crop, and the balance of $126 represents the net re-
turns on the $750 invested in the land, or 17 per cent. Or, if
we figure the investment at $3250 (including land, $750, poles
$810, building $1600, tools $90), the difference of $395 between
operating expenses ($663) and receipts ($1058) represents the
net earnings on the investment, and shows a net income on
such investment of nearly 13 per cent. In the table the items
are arranged in the order that the work was done.
Setting poles .-it 20c per 100
Grnbbiiifj; by hand
Two-liorse eullivjitor, once both ways
Tyinii "P slioots, four wonien at 75c "per day
Twine and labor ])uttinjj on
Tying, trininiing, 'training (women)
Cnltivating again, both ways
Fertilizing (tonr tons hardwood aslies at ^12, one
ton bone meal .f 40)
Handling, mixing and applying fertilizers about
hills
Twine, and putting on
Hilling, shov^el-plow one way and hoeing.
Last two cultivatings (lightly), tying up broken
vines, eie '.
Harvesting and curing (details above)
Krimstone $3, fuel .$8, insurance $26
Baling at 20c per bale
Staclcing poles, covering hills for winter
Delivering crop at station
Operaiing expenses for crop
Fixed charges (interest on Land at 6 per cent., .'i!42;
depreciation of poles at 10 per cent., $81 ; de-
preciation on kilns, tools, boxes, etc., .f 169;
taxes, $9)
Total cost of croi^
8140 lbs. hops sold and netted
Net balance
Ten acres
$13.50
25.00
12.00
9.00
40.00
;}0.00
10.00
88.00
7.00
40.00
20.00
15.00
317.75
37.00
9.00
15.00
5.00
$693.25
301.00
$994.25
1,058.20
$53.95
One acre.
$1.35
2.50
1.20
90
4.00
3.00
1.00
8.80
.70
4.00
2.00
1.50
31.77
3.70
.90
1.50
.50
$69.32
30.10
$99.42
105.82
$5.40
Madison County, N. Y.— L. W. Griswold gives his
estimate of cost of raising one acre of hops in the table be-
low. Dividing the total cost by 1000 lbs., which is certainly
EXPENSES AND PROFITS. 253
a large average yield per acre, it gives the cost of the first
crop as a little over 25c per lb., exclusive of the cost of build-
ing kiln and storehouse. Deducting the price of poles, roots
and tools, preparation and planting of yard, and adding
$5 for the breakage of poles and wear of tools, we find the
cost for the following year to be $76.85, or a trifle over 7i/^c per
lb. When, however, we add $500 for building a kiln and store-
house, to the other expenses, and depreciation, interest, etc.,
on same the actual cost is far above 7i/^c.
Prepai'inp: ground for planting , ^3.00
Sets tor planting 750 liills 7.50
1,500 liop poles, 10c encli 150.00
Tools, including two hop boxes 12.00
Setting poles, '20e per 100 3.00
Grubbing, one day's work 2.00
Plowing and cultivating twice each O.OO
Hoeing twice, t wo days' work 4.00
Tying three times 3.00
Picking 77 boxes, 30c per box 23.10
Boarding and lodging pickers 12.00
Drying ho]>s 5.00
Baling 10 l)ales, 50 yds. sacking and lahor 7.50
Interest on land, valtied at $150 per acre 7.50
Insurance $2, taxes 75c, fertilizers $6 8.75
Total cost S!254.35
Another Otsego Statement (by James Ferris) — The
largest grower in the county failed, though his hops
sold at an average of 20c; another whose real estate was free
of mortgage in 1893 failed in '97. Hemlock poles 18 to 25 ft.
long cost lli/^c, delivered ready for setting, 851 per acre, one
to each hill 7x7 ft., or $97.86; with proper care, they last 15
years, annual loss, $6.52. interest at 6 per cent., $5.87, total
yearly cost of poles $12.39. It is easy to determine cost of
setting a yard and first year's cultivation. Potatoes or corn,
potatoes preferably, are planted with hops the first year,
occupying three-quarters of the ground. As 120 bu. of pota-
toes to an acre is an average crop, the hops would displace
just 30 bu. of potatoes per acre, which, at an average price
of 40c per bu., would have been worth $12. But the seed for
hops usually costs more, and they receive better care than
potatoes. Such additional cost is about $2 per acre. The
average period which a hop yard will last and be produc-
tively profitable is about six years. So that the average cost
of planting yards to displace those running out would be
$2.33 per acre per annum on all hop land harvested. During
depressed times, only one shovelful of barnyard manure
is placed in each hill in the autumn, but when prices are
good, more is used — about eight two-horse loads are used per
acre, worth $8, and it costs $2 to apply. When pickers are
plenty, they can usually be hired to pick and board them-
selves for 40c per box at present (1898), but in this locality
not half enough pickers can be hired to pick and board
themselves, The grower is obliged to board them, and go
254 THE HOP.
some distance after them, making the average cost of pick-
ing about 45c per box, and as hops usually cure about 15
lbs. to the box, this would make the cost of picking 3c per
lb. Drying can be hired done at %c, the grower finding
brimstone and fuel, and this is as cheap as he can do it him-
self if due allowance is made for capital, depreciation and
insurance of kiln. My figures make the crop of 700 lbs. per
acre (which is about the average) cost 13i4c per lb., as
follows:
Hop poles $12.39, renewing roots $2.33 1S!14.72
Mamire, and its application I'tOO
Cleaving up in fall, stacking poles, etc -50
Setting poles $1.50, grubbing $1 2.50
Plowing four furrows per row each way from liill 2.50
Cultivating twice in row botli ways 1.00
Tying twice $2, twine $4, putting on $1 7.00
Training and hoeing 4.00
Winding on twine, lyinc: with ladder 2.00
Plowing 1o hill $2.50, hilling $1.50, cultivating $1 5.00
Picking 3c i>er lb. cured hops, box tending and yard bosslc, cn>---
tom drving %c, brimstone, fuel, balii.g, marketing i/^c, to-
tal per '700 lbs 2G.75
Baling cloth $1.40, insuring crop 42c 1.82
Rent of land at least 3.00
Total for 700 lbs. hops, one acre $82.79
St. LAwr.F.NCE County, N. Y. (S. Hemingway) — Small
items might be added to make the total below an even
$110 per acre, or 20c per lb. for 500 lbs. per acre, about lie
for 1000 lbs., or (allowing for heavier manuring and in-
creased cost of harvesting and curing) about 7c per 2000 lbs.
per acre. The kiln, 20x30 ft, cost about $300, on which inter-
est, $18, depreciation, $20. and insurance, $10, cost $48
per year, one-fifth of which is charged against one acre. I
use two poles to each of 680 hills per acre, or 1360 poles per
acre, costing $68, and allow 10 per cent, for depreciation.
One-fourth day uncovering hills 35c, two davs setting poles $2.50,
one day plowing $2.00 .' $4.85
One day hoeing $1.25, one day tying $1.25, one day trimming $1.25 3.75
680 lbs. fertilizer 10. to
Three days' plowing, 2d, 3d and 4th times 6 00
Three days' hoeing $3.75, two days resetting poles $2.50 n.25
One-half day's attention weekly for 16 weeks 10.00
Picking 1,000 lbs. at 3c 30.00
Two nights' drying at $2 4.00
One-half day's baling, two men 2.50
Two days' stacking poles $2.50, one day's cutting and burning
vines $1.25, one day's covering hills $1.25 5.00
Total operating expenses $82.75
Fixed charges : Interest at 6 per cent.on land worth .$50 an acre
$3, depreciation on poles $10.88, use of kiln $9.60 23.48
Aggregate expenses per acre $106.23
FROM NORTHERN OHIO
Statement of Banner and Hatch of Richland County, Ohio.
The plant — buildings, tools, boxes, press, etc., for five
acres cost $245, interest on which is $14.70. As it lasts 20
EXPENSES AND PROFITS.
255
years, 5 per cent, is allowed for depreciation, or $12.25 per
y<^ar, or $26.95 per annum for use of kiln, of which one-fifth
is charged to the one acre. One yard lasts about six years
on our gravelly clay loam, rolling and fairly drained; worth
$50 per acre, tax 50c. Crop for four years (1893-'97) averaged
80 boxes, or 960 lbs. per acre; set 7x7 ft., or rearly 750 hills
Ih
n n.
□
TJ
"m
d
FIG. 137. HOMEMADE HOP PRESS.
a. Studs to holil press together; 6, iiianner of supportin? press; c, bottom of press;
d, finislied press. Four rods of 314 in. iron about 16 ft. lonar are bent, and ends
welded toffetlier like lara:e chain links. These are passed through the floor
above the press, where they are supported by sti ong scatitlin,' 4x4. In the
lower ends place timbers 4x6 as befl pieces, b. The hnttom, r, is made of 2 in.
planks 2 ft. long, with end strips 3>^ ft. in length. The studs, a, at the sides,
are of 2x5 in. stuff, mortised into the bottom and held together by a long mor-
tise at the top. The sides are shown in d. The box may be 5 ft. long inside,
18 in. wide, and 6 ft. high.
per acre. First year's expenses are $24 (of which one-sixth
is charged up annually), and includes 10 loads of manure $5,
fitting ground $3. roots $1. planting $3, cultivating and hoe-
ing four times $6, five loads manure to cover hills $2.50,
interest and taxes $3.50, poles (two to a hill) 1500 per acre,
cost 2c each delivered, or $30, and being good for six years,
256 THE HOP.
cost $5 per year. The annual expenses in the second and
subsequent years will average as follows:
Animal ehai'ge on first cost $4.00
Grubbing, two days' work at $1.50.. 3.00
Poles $5, and poling Si-^ days $5.75 10.75
Sharpening poles (40c per 100, good for 3 yrs, $6), one year 2.00
Plowing botli ways, 1% days at $2 3.00
Cultivating four times at 75c 3.00
Hoeing twice, four days, at $1.50 G.OO
Tying up vines V/2 days at .$1.25 1.87
Picking 80 boxes hops at 25c 20.00
Hoard 28 pickers 1G8 meals at 10c 10.80
Fotir box tenders two days at $1 8.00
Board box tenders, 24 meals at 10c 2.40
Put hops on kiln, two kilns at $1 2.00
Man to dry, two kilns at $1.50 3.00
Wood 2V2 cords, two kilns at $1.50 3.75
Brinis(one, two kilns .90
Baling five bales at ;50c, delivering 50c 2.00
Sacking $1.25, stacking poles $1.50 2.75
Total operating expenses $95.22
Fixed charges : Depreciation $5.93, rent $3, taxes, r)Oc 9.43
Aggregate (10.8c per lb. for 9G0 lbs.) $104.05
COST OF HOPS ON THE PACIFIC COAST
California — Daniel Flint says a hop kiln for 50 acres
with all things complete will cost $3500 to $4000. High wire
trellis costs $80 to $90 per acre, 2000 roots $20. and Japanese
will contract to do for $10.25 per acre all the hand labor
on the crop until it is ready to harvest. Picking, curing and
baling costs him $2200 on 64 acres, and $1500 on 40 acres, an
average of about $35 per acre.
Oregon, Washington Co. — E. C. Malloy submits a
statement of a nine-acre hop yard started in 1893 on land
worth $25 an acre, interest at 10 per cent, taxes 17 mills on
the dollar. No man are is used, nor hoeing after the first
season; kiln is 25x25 ft, 20 ft studding, that cost $200, two fur-
naces and pipes $54. warehouse $125, total on building $379.
The harvesting equipment, picking and curing the first crop
cost $51. Plowing, setting out, cultivating and poles for the
first crop, produced the same year, $281, interest and taxes
$29. This makes an even $1200 for cost of first crop, or $133
an acre for a yield averaging 1300 lbs., which would have
to net lie per lb. to pa-'- all t'^ese expenses and leave the
yard in good shape.
For the next crop it cost $1.25 per acre for cleaning up
yard. $11.25: $12 per acre for setting poles, tying up hops
and cultivating, $108: harvesting, curing, baling, etc.. $472;
interest, insurance, taxes, and depreciation on the whole
outfit, $107. This made the second crop cost $698. or over
?77 per acre, equal to 6c per lb. on 1300 lbs. per acre. "To
further show the uncertainties of this business, especially
in this region, I want to say that instead of getting 11 and 6c
for those crops. I got 5% and 4c, while many others con-
EXPENSES AND PROFITS. 25?
signed their hops on advances of 2 to 2^c per lb. and never
got another cent."
Okegox: a Polk Co. Report — For the first plowing
in spring, one man and two horses will plow four acres
a day, at $2 per day, which is 50c per acre. One man
and one horse will cultivate down five acres a day at $1.50
per day, or 30c per acre. Cross plowing will cost the same
a-^ first plowing, and cross leveling the same as first culti-
Drying hops, including wood and sulphur, Ic; pressing in-
over five acres a day at a cost of 40c per acre; three addi-
tional cultivatings will cost the same each. Smoothing, or
clod smashing, both ways, one man and one horse, five acres,
or ten acres one way, will cost 30c per acre. It takes 12 lbs.
of 10-ply cotton twine for an acre, at 12c per lb. Putting ou
twine, one man, five acres one way, costs 40c per acre twined
both ways. Land is worth $75 an acre, interest 8 per cent.,
taxes $1.50 per acre, repairs and depreciation on tools $1.25.
Three sprayings will require 18 Ihs. quassia chips $1.08, 36
lbs. whale-oil soap $1.80, labor $2, repairs 37c, total $5.25.
This gives us for one acre:
Cnltivatinp: as nhove SS.fiO
Hanliiifr 40c, and setting stakes .S2 2.40
New stakes 81.. "iO, twine and twining .$1.84 3.34
Hoeing and sin'onting liills 3.00
Training vines four times fi.OO
Pinning snrplns vines 2.00
Cleaning yard in fall 1.2r)
Interest and taxes 7.90
Spraying three times 5.25
Total (about 21/30 per lb. for 1,500 lbs. of cured hops) $34.74
Picking at 40c per box will cost about 3c per lb., antl
yard help (including delivering hops at kiln) %c more,
vating. With disk harrow, one man and two horses will go
clnding hop cloth, five yards to the bale, at 8c, %c; insur-
ance, interest and repairs on plant, warehouse storage, etc.,
Ic, making a total of harvesting expenses of SV^c a pound.
The crop will therefore cost the grower about 8c per lb.
These figures are not the itemized expenses of any one
grower in any particular year, but will cover the average
cost for the last three years (1896-7 ^^ of those who own
and work their own hop yards. "I do not think tnat anv one
man's itemized expenses for any one year is a safe basis
from which to draw conclusions. 3S my hops have not cost
me exactly the phttip any two years."
Oti-foox, Yamhill Co.. .T. W. F.— My hop garden contains
20.37 acre'?, valued at $125 n^r acre. The hills are eight
feet apart each way, a total of 12.915 hills. The poles
are fir and cost on the yard two cents apiece, or $258.30. The
kiln is an octagonalbuildinp^. 28 ft. each way in the clear, with
storeroom combined 20x24 ft: with furnace, piping and press,
it cost $910; 150 sacks $30, five measuring boxes of cedar, hold-
17
258
THE HOP.
ing nine bushels each, $4.50. We use no fertilizer, as to culti-
vate the ground well is all that is necessary here, the soil
being of a clayey nature, mixed with a very small amount of
sand. Hops at this date (Feb. 14, '98) are nearly all sprouted
or up, now and then one an inch long. My '97 crop was
16,187 lbs., or an average of 795 lbs. per acre, and cost a
fraction over 7c per lb., as follows:
rieanins; np and bxiniing vines $!14.00
Grubbing $35, setting poles $27, twine $16.90 78.90
Putting twine on poles $7, training and hoeing $158, plowing $58,
harrowing $9 232.00
Rolling $11, reversible disk harrowing $22 33.00
Spraying 46.00
I'icliing 1,258 boxes at 40e 503.20
Yard man during picking 27.00
Two men to measure hops 39.00
Man and team to liaul green hops to kiln 28.00
Two men at kiln 11 davs at $2 each 44.00
440 yards of baling clo'lh. 37.40
Baling 88 bales at 20c 17.60
Twine to sew up bales 2.70
Kiln cloth $5.10, 600 lbs. sulphur $10, fuel $10 25.10
Oil for press and lights 2.00
Two men and teams to draw hops to station 5.50
Insurance and taxes 34.53
Total cost 1,169.93
Balance net profit 934.38
Total crop sold at 13c per lb 2.104,31
WASHINGTON, KING COUNTY, 1897 CROP (By Alexander Adair).
Grubbing $50, setting poles $50
Tying up vines
Plowing and cidtivating
Spraying, three men and horse 10 days.
Quassia chips, whale-oil soap
Picking, $1 per box
Six men eight days at $2
Insurance on hops and kilns $2,000
Freight on hops to Seattle
Hop cloth and sulphur
Total
Harvested and sold, lbs
Sold at 8c per lb
Loss on crop
Ten acres.
$100.00
25.00
100.00
50.00
36.00
456.00
96.00
55.00
45.45
41.00
$1,004.45
11,700
$936.00
68.45
One acre.
$10.00
2.50
10.00
5.00
3.60
45.00
9.60
5.50
4.54
4.10
$100.44
1,170
$93.60
6.84
RAISING THE CROP IN THE NORTHWEST.
British Coh^mhia (Major R. M. Hornby) — Before going
into hop culture, the novice should realize that it is
one of the most uncertain of crops, that two good crops,
three medium and two failures can be reckoned on every
seven years, both as to yield and value. Only the best hops
are now wanted. Such require the best land, outfit and
methods. The cost of starting is large, and for an eight-acre
yard (yielding 1800 lbs. of cured hops per acre in a favorable
season) may thus be estimated.
EXPEI^SES AND PROFITS. 259
Hop kiln, 24x24 ft., with stove complete $1,250
Poles, 7 ft. apart, 820 per acre, at $30 per 1,000 177
1,G40 hop sets per acre, at $3 per 1,000 40
Marking out yard and planting sets at $5 per acre 40
100 hop boxes of 15 bu. capacity 100
Two double-acting spray pumps, with barrels and sleigli 50
Hop press 165
Total first cost $1,822
The annual charges include interest and 15 per cent,
depreciation on the above items of first cost, together aggre-
gating $325 a year. Good hop land is worth at least $100 an
acre, and interest and :axes may be added to the following
figures. No insurance is included because the rate is too
high, and proper care is cheaper than to pay insurance.
Neither do we use manure on our rich lands, on the Pacific
coast, which saves a large item that eastern and foreign
hop growers have to pay, and their yield per acre under
favorable conditions is not as large as ours. When yard
forms part of farm, horses and implements are not charged
to initial expenses, because they are part of the farm outfit.
With this explanation we get the following:
ANNUAL EXPENSES ON EIGHT-ACRE YARD.
Depreciation and interest $325
Setting up poles at $5 per acre 40
Credit the farm for one man, two horses, with use of imple-
ments for all horse cultivation and work 250
Tyings at $3, $1 and 50c per acre 36
Spraying once $4 (may be $12), say $7 per acre 56
Pickir.g 1,81 lbs. per acre at $1 per box 504
Curing and drying 90
Baling by four men twodays $12, floor and baling cloth, string $30 42
Cleaning up yard at $2.50, hauling to depot $1 27
Total annual expenses $1,370
Profit if all goes well 730
Receipts for 1,800 lbs. per acre at 15c on eight acres $2,100
Sometimes the yield is larger, more often less. The
price is oftener less than more. The above makes an ex-
pense of about $171 per acre, or about 10c per lb. on a good,
full crop. But the expense up to harvesting is the same,
whether the yield is large or small, the quality good or bad.
With the wide fluctuations in crop results, it is easy to see
that cost per pound of hops in the bale may easily mean far
above 10c per lb. and seldom below it. With market prices
ranging from 5c to 25c. the speculative nature of the indus-
try is apparent, as many have learned to their sorrow.
APPEISTDIX
STATISTICS OF THE HOP TRADE.
RECEIPTS OF DOMESTIC
HOPS
AT NEW YORK (In bales).
Crop of
1890.
8,374
24,809
23,411
6,430
4,778
4,114
5,636
2,697
2,789
3,789
3,320
2,989
93.136
22,804
70,332
1891.
5,572
20,200
27,386
24,242
15,775
8,954
5,597
5,842
2,239
964
1,885
1,767
120,423
54,619
1892.
1893.
1894.
5,180
26,466
32,339
30,088
21,236
12,100
11,340
7,051
8,749
3,282
3,049
166,241
83,749
~82,492
1895.
3,216
22,086
36,015
22,028
17,495
15,257
13,215
4,644
3,179
3,432
2,515
1,348
144,430
76,506
67,924
1896.
1897.
Av.
September..
()ctol>er
November..
December . .
January
February . ..
Mareli . ."
April
May
2,926
14,376
19,882
23,302
13,819
5,162
8,361
6,316
6,583
10,119
9,(!28
8,664
129,1.38
64,205
64,933
9,305
25,399
31,669
24,141
10,595
7,883
6,792
5,418
5,704
5,423
4,629
4.3.35
2,778
16,836
34,712
13,930
7,297
6,565
2,911
2,998
2,039
2 222
1J21
1,440
1)5,449
51,892
"43^557
3,388
15,074
21,190
30,626
25,408
8,125
5,802
3,844
1,569
2,195
1,500
1,952
120.673
87,165
5,092
20,656
28,325
21,848
14,550
8,145
7,456
4,826
4,106
3,928
3,819
June
July
AUfTUSt
3,193
Tot. rec'ts.
Exj^ortert .
141,293
74,623
"66,670
126.348
64,445
Dom. use .
65,804
33,508
61,903
EXPORTS OF HOPS FROM THE PORT OF NEW YORK (In bales).
Crop of
September..
()ctol>er
Noveml)er..
December . .
January
Febriuiry . . .
3Iareli. .."....
A])ril
]\I;iv
1890.
2,086
7,083
5,540
1,271
698
1,041
1,405
218
946
640
1,474
402
1891.
3,681
4,748
16,393
18,260
6,376
2,124
1,776
578
19
18
646
54,619
70,000
78
1892.
1,007
8,653
7,615
10,697
12,497
2,287
1,357
4,176
2,377
4,672
5,146
3,721
64,205
64,000
1893.
4.223
6,890
21,217
14,028
10,102
3,867
2,578
2,530
2,677
2,713
2,872
926
1894.
1,218
7,927
10,692
21,970
13,2(>0
8,404
9.183
4.448
1,083
2,964
1,442
1,158
1895.
800
7,875
16,390
19,858
9,084
7,973
9,094
2,351
1,380
1,319
237
145
76.506
93.000
1896.
513
8,625
13,956
11,326
5,626
3,487
4,956
856
357
947
844
399
51,892
63,000
1897.
""3,010
3,976
10,754
23,459
26,526
11,372
4,554
948
785
1,123
962
716
87,185
95,000
Av.
""2,067
6,972
12.794
15,108
10,396
5,069
4,.S.50
2,013
1,028
June
July
August
1,799
1,8.54
1.014
Tot. N. Y . .
Tot. U.S...
22,804
49,000
47
74.623
97,000
77
83,749
97,000
87
t.4,448
78,000
% via N. Y.
100
82
82
91
85
AVERAGE MONTHLY PRICE PER POUND
In cents, of clioice state hops at Ne^v York city. The periods are for
the years inclusive.
Sept
.2.52
Oct.
.255
Nov
.267
Dec
.267
Jan
Feb
.250
Mar
.235
Apr
.229
May
.226
Jun
.216
July
.21
Aug
1874-1896. . .
.258
.202
1874-1878...
.254
.251
.252
.245
.2.36
.224
.201
.187
.186
.183
.178
.18
1879-1883...
.346
.375
.435
.459
.442
.429
.416
.409
..396
.367
.350
.322
18^4-1888...
.250
.236
.225
.210
.192
.183
.175
.167
.164
.170
.178
.181
1889-1893. . .
.251
.249
.247
.241
.248
.248
.230
.2.35
.243
.234
.219
.209
1894-1896. . .
.10
.103
.117
.123
.113
.108
.10
.091
.09
.08
.076
.07
261
262
THE HOP.
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13 rttl7
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21 fa 24
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16 ^18
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10 (a 13
22 «23
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17 fdlS
14 (a 16
11 (aV2\
211 a 23
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18 (5)20
14 (a 15
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23 ^24
18 (ffil9
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10 fall
21 a23
23 ,a25
17 fal9
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18 (a 21
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9 (»10
18 (a 19
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18 23
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2(54
THE HOP.
HOP CROP OF THE WORLD.
Crop of
rtl897
310
99
38
256
1896
353
136
43
281
813
175
1895
368
95
42
343
848
292
1140
1894
404
109
38
395
1893
130
74
33
257
494
268
1892
300
79
44
257
680
223
903
1891
1890
rjermany
Austria . .
France. ..
England .
269
72
36
272
164
65
54
176
Total. ..
U. S
703
200
903
946
320
1266
649
208
857
459
205
Aggre'ate
988
762
664
a American Aqriculturist's preliminary estimate. This journal is an
aeeepted authority on America's liop crop, but It frankly admits that
this crop is one of the most difficult to re})ort upon for obvions reasons.
The figures of each cx'op are subject to final revision at the close
of each year when data are available of the interior and foreign
movement.
HOP CROPS AND PRICES.
This table shows, for many years, the bales of hops produced each
season in the United States and in Enrope (including England), the
total constituting about 95% of the world's supply. It also gives the
number of b.iles of each crop exported from the Unitetl States, and
the imports of foreign hops into the United States, with average yearly
United States expi>rt prices and Hamburg import values.
In
lionsands of bales of 180 lbs. net.
Av. cts
aU. S.
per lb.
c Crop of
U. S.
Enrope
Total
U. S.
U. S.
6Ham-
crop.
crop.
crop.
exi)orts
imports
burg.
1897
200
695
895
95
14
13.8
1896
175
813
988
63
17
10.2
1895
292
848
1,140
93
15
8.8
1894
320
946
1,266
97
17
10.7
1893
268
494
762
97
5
22.0
1892
223
680
903
63
15
23.7
1891
208
649
815
70
13
19.3
26
1890
205
4.59
661
49
21
26.6
26
1889
218
717
935
42
36
29.0
20
1888
69
31
22.4
21
1887
39
28
17.4
19
1886
1
103
21.0
21
1885
76
15
12.5
24
1884
35
9
19.7
33
1883
75
4
24.1
50
1882
125
387
512
43
12
71.8
40
1879
'j5
379
474
54
26.3
26
1874
110
428
538
17
41.9
41
A v. '81-90
193
746
939
H50.1
L 19
'85-89
190
773
963
H20.7
L19
'81-85
196
720
916
H50.1
L25
'76-80
152
647
799
H30.0
L21
a Average annual export value (in cents per lb.) of hops shipped
from the United States. 6 Average annual value (in cents per lb.) of
all hops imported into Hamburg, Germany. H, Highest average an-
nual import value of hops imported into Hamburg, during the period
noted; L, lowest, c Observe that the year given is that in which the
crop was produced.
Hops consumed per bbl. of beer: United States, 1 to IV4 lbs.; Eng-
land, IV2 to 2V2 lbs. ;Germany and elsewhere, % to 1V2- A barrel of beer,
U. S., contains .32 imperial gallons, or 31 gallons net.
Gross weight of a bale of hops: United States, 185 lbs., legal tare
5 lbs., actual tare 7 to 9 lbs. ; foreign hops imported into United States,
350 to 600 lbs. per bale, averaging 430 lbs., with a tare of 14 lbs.
APPENDIX.
265
ACREAGE IN HOPS (so far as ascertainable).
England
France
Germany
Austria.!
Total Europe...
New York
Washington
Oregon
California
Total United Sts
World's aggregate.
1897
50,863
6,122
98,767
35,108
190.86(»
1896
1895
1894
59,535
7,204
104,241
38,048
209,088
30,177
10,000
15,000
8,600
54,207
6,428
101,709
36,431
198,785
22,190
4,500
12,0(»0
7.200
58,940
7,939
103,923
3!),765
•-'10,567
26,238
5,700
16,500
8,500
19,730
3,000
9,000
6,000
37,735
228,595
45,890
56,938
267,505
ii.i,777
244,675
•J72,865l
1893
1892
57,564
6,921
103,901
37,626
56,259
6,728
107,282
36,857
206,012
207,126
1891
56,142
6,592
107,791
36,679
i07,204
32,300
9,000
10,000
8,000
33,100
8,000
6,000
7,000
59,3001 54,100
34,000
6,101
3,900
5,340
49,941
i65,3l2l261,226i257,145
181M
"53,961
6,968
110,681
38,708
210.318
35,000
4,.J38
2.620
4,015
45,973
2.56,291
Yield per acre kiln-cured packed hops : Eui'o]ie, 400 to 750 lbs., s.ny
500 lbs. in good year; England, 905 lbs. in '97, 936 lbs. in '94 and 888 lbs.
as the official average for t lie yeiirs 1886-95; New \''ork, 400 to 1,200 lbs.,
say 900 lbs. ; Pacific coast, 600 to 2,000 !l>s., say 1,200 as a fair average in
a good year. Germany's ten-year aveiage is 510 ll)s. per acre, largest
crop averaged 730 lbs. per acre in 1894, lowest 260 lbs. per acre in 1893.
COMPAKATIVE RANK OF UNIIED STATES HOP SECTIONS,
ING TO THE CENSUS OF 1890.
ACCORD-
Rank.
Counties.
Slate.
Acres.
Total crop.
Lbs.
Per acre.
Lbs.
1
Otsego
New York
7,749
4,698,687
606
2
Madison
New Yorlc
6,956
4,094,440
589
3
Oneida
New York
6,002
3,704.341
617
4
Pierce
Washington
2,191
3,699,671
1.689
5
King
Wasiiington
1,708
3,238,075
1,831
6
Schoharie
\ew Yorlc
5,563
3,148,885
566
7
Sacramento
California
963
2,1.34.r,06
2,217
8
Sonoma
California
1,046
1,26;; 610
1,208
9
Marion
)regon
974
1,169,()57
1,201
10
Franklin
Vew York
2,930
1,106,123
378
UNITED STATES CENSUS OF HOP CROPS IN POUNDS.
1890.
1880.
1870.
1860.
1850.
New York . . .
20,063,029
21,628,931
17,558,681
9,671,931
2,536,299
AVashington.
8,313,280
703,277
6,962
44
California...
6.547,3.38
1,444,077
625,0(;4
80
Oregon... ..
3,613,726
244,371
9,745
493
8
Wisconsin. ..
428,547
1,966,827
4,630,1,55
135,587
15,9.30
Other
205,350
39,171,270
558,895
26.54r>,378
2,626,062
25,456,669
1,183.861
10,991,996
944,792
Total
3,497,029
UNITED STATES CENSUS OF ACREAGE AND VALUES.
States.
Acreage.
Values.
1890.
35,552
5,282
3,796
3,223
871
238
1889.
36,670
5,113
3,974
3,130
967
358
1879.
1890,
1889.
New York . ..
Washington.
California. . .
Oregon
Wisconsin . ..
Other states.
39,072
534
1,119
304
4,439
332
f6,068,163
2,284,955
1,521,847
1,047,224
142,198
41,037
$2,210,137
841,206
605,842
322,700
51.983
27,829
U. S
48,962
50,212
46,800
$11,105,424
$4,059,697
266
THE HOP.
GERMANY'S FOREIGN TRADE IN
HOPS.
In bales, 180 pounds net.
Crop of
Exp'iMs.
1896
111,495
1895
135,613
1894
41,746
1893
118,516
1892
118,020
1891
124,778
1890
208,999
1889
127,100
1888
144,197
1887
226,010
1886
167,880
1885
159,322
1884
93,497
1883
21,864
Av.
129,327
Imp'rts,
39,103
22,647
50,615
20,803
24,729
14,970
22,747
13,095
15,153
13,975
19,439
13.646
19,445
7,258
19.65()
Net exp't
72,392
112,922
a 38,869
97,713
93,219
109,808
186,252
114,005
124,044
212,035
148,441
145,676
74,052
14,606
109,993
a Net import.
GREAT BRITAIN'S IMPORTS OF HOPS
BY YEARS. (BALES.)
Cal
From
To-
Value
Value
yi-
U. S.
tal.
U.S.
Other.
1896
76
129
14c
12c
1895
95
130
15c
13c
1894
68
118
20c
18c
1893
88
127
26c
24c
1892
50
117
24c
22c
1891
50
121
23c
22c
1890
45
117
22c
20c
1889
48
125
15c
15c
1888
56
135
17c
16c
14c
16c
21c
30c
31c
35c
35c
21c
IMPORTS, EXPORTS AND TOTAL
SUPPLY IN GREAT BRITAIN.
(Tliousancis of bales, 180 lbs. net.)
1897
1896
1895
1894
1893
1892
1891
1890
Av'90-5
1889
Ex-
Im-
Net
Eiig'li
p'ls.
p'ts.
Im't
crop.
256
7
129
122
257
8
135
127
344
13
118
105
396
11
127
116
258
7
117
110
257
6
122
116
272
8
117
109
177
9
123
114
284
11
124
113
Tot.
snp'y
380
471
501
374
367
388
286
398
IT. S. FOREIGN TRADE, SUPPLY
AND CONSUMPTION, a
Crop
Ex-
Net
Im-
Total
of
p'ts.
63
sup'ly
112
p'ts.
17
sup'ly
129
1896
1895
93
199
15
214
1894
97
223
17
240
1893
97
171
5
176
1892
63
170
15
175
1891
70
138
13
151
1890
49
143
21
164
Con*.
~177
184
184
171
178
164
1^
*ConsumpMon at 1 lb. of luTjis lo
abl)l.of beer, a In thousands of
bales.
ENGLISH HOP CROPS COMPARED.
Crop
of
1897
1896
1895
1894
In thousands
bales, 180 lbs.
Kent
153
199
197
264
Oth
103
83
147
132
Tot
256
282
344
396
Av. yearly
prices,
cts. per lb.
Exp' t
16
14
16
21
Imp't
15
12
13
20
Average import value in 1893
was 26c per lb.; '92, 24c; '91, 23f ;
'90, 22c; '89, 15c; and in 1888 it
was 17c.
HALF-YEAR'S FOREIGN TRADE,
Jan. 1 TO JULY 1, IN BALES.
Great Britain
Imports
Exports
Net. Imp'ts.
United States
Exports
Imports
Net exv>'ts. .
1897
35,206
3,497
31,709
21,554
8,126
13,428
1896
62,404
3,016
59,388
42,237
8,507
33,730
1895
65,770
3,450
62,324
48,881
6,157
42,734
U. S. HOP CROPS COMPARED.
[In thousands bales of 180 lbs. net.]
Crop
Faci'c
N. Y.
Total
Av. exp.
of
coast.
135
state.
u. s.
200
value lb.
1897
65
15.4 c
1896
100
75
175
10.2 C
1895
182
110
292
8.8 c
1894
180
140
320
10.7 c
1893
143
125
268
22.0 c.
1892
105
118
223
23.7 c
1891
94
114
208
19.3 c
1890
92
100
192
26.6 c
A ten-year statement (1883-'92) shows Germany's imports to have
come, on 'the average, from Austria 90%, from Belgium 3%, from
France 1%, from Russia 2%, from other countries 4%. Germany's
exports during tlie period noted averaued : To Austria 6%, to Russia
2%, to England 6%, to France 13%, to Belgium 11%, to Sweden 2%, to
the United States (average for 1887-'92) 8%, to other cotmtries 24%.
Germany's exports to the United States ranged from 7,500 cwt. (of 110
lbs) in 1887 to 46,000 cwt. in the trade year ended Aug. 31, 1890.
APPENDIX.
267
world's production and consumption of hops
For lSSi-'S6, from the Deutschen Hopfenbati J^ereiu, which gave it wp
1889 as unreliable. From 1887-'96, tioni the Vienna Brewers' Journal.
[In metric hundredweight of 110 lbs.]
in
World's
World's
consumpt'n.
production.
1884
1,604,400
1885
1,549,000
1,888,550
1886
1,655.000
1,846,810
1887
1,698,021)
1 ,607.000
1888
1,615,000
1,569,200
1889
1,606,486
1,967,250
1890
1,546,915
1,096,000
1891
1,566,642
1,456,440
1892
1,592,311
1,527,715
World's
consumpt'n.
1,669,791
1,725,762
1,744,439
1,923,756
World's
production.
1893
1894
1895
1896
1,481,300
2,205,510
2,012,155
1,994,370
Tollcwt
Av.
A V bales
180 lbs
19,893,128
1,657,760
1,013,075
22,256,700
1,712,054
1,046,255
BEER PRODUCTION.
United States data are official. Returns for the world are from
Brewers' Journal, Vienna.
[In millions of barrels of 31 gallons.]
Year.
U. S.
World.
YEAR.
1891
U. S.
World.
1865
4
30
167
1870
7
1892
32
172
1880
13
1893
35
173
1885
19
1894
33
175
1887
23
147
1895
33
179
1888
25
145
1896
35
197
1889
25
148
1897
34
200
1890
28
166
RELATIVE CONSUMPTION OF BEERS AND OTHER LIQUORS.
E. Struve, in Wochenschrift fiir Brauerei, Berlin, 1896, esti-
mates that the wine consumed in France, Germany, Switzerland and
Belgium contains 6% of aU-oliol, against 7% in Austria, Holland,
Denmark, Sweden and Norway, and 8% in Great Britain, Russia and
the United States. For the beer consumed an average proportion of
4% alcohol was adopted, and for spirituous liquors 33.3%. The table is
based on official returns and shows the annual consumption per
capita for 1895.
In liters (1 liter equals 2.113 pints U. S., or just about 1 quart).
Country.
Belgium
France
Denmark
Germany
Great Britain
Switzerland
Austria-Hungary,
Holland
Russia
Norway
United States
Sweden
Wine.
3.7
103.0
1.0
5.7
1.7
55.0
22.1
2.6
3.3
1.0
1.8
0.4
Beer.
169.2
22.4
33.3
106.8
145.0
37.5
35.0
29.0
4.7
15.3
47.0
11.0
Spirits
14.1
12.4
26.7
13.2
8.4
9.3
12.4
14.1
14.1
12.0
7.7
4.8
Alcohol consumption.
Wine.
0.22
6.18
0.07
0.34
0.13
3.30
1.54
0.18
0.26
0.07
0.14
0.03
Beer.
Spirits
6.76
4.7
0.90
4.04
1.33
8.9
4.27
4.4
5.80
2.8
1.50
3.1
1.40
4.15
1.16
4.7
0.19
4.7
0.61
4.0
1.88
2.58
0.44
1.6
Total.
11.68
11.12
10.30
9.01
8.73
7.90
7.09
6.14
5.15
4.68
4.60
2.07
BELGIUM HOP TRADE, 1890.
Lbs.
Value.
Exports
Imports
12,111,228
10,586,895
$2.443,.546
2,533,636
Net exports
1,524,333
^
208 THE HOP.
QUOTATIONS ON HOPS
In America, are in cents per lb. avoirdui^ois. In England, are in
ponnds and shillines per cwt. of 11'2 lbs. In Germany, are in marks
per metric cwt. of ilO lbs. Reckoning one mark as eqnal to '23.8c, and
£1 (one i)onnd sterling) at ijf-l.SG, the following tables show the equiv-
alent of foreign qnotations in U. S. enrrency per lb.
German Marks per 110 lbs. eqnal U. S. cents per lb.
5]M=1.0Sc 35M=7.59c 50 M=10.81c 80M=17.30c
10 ]M=*J.lGc 38 M=8.'22c 51 M=ll.G8c 90 Mzrl9.4Tc
20 M=4.32c 40 M=8.05c 60 ]M=12.98o 95 Mi=20.55c
25 M=5.40c 42 M=9.08c 68 M=14.70c 100 M=:21.G3c
30 M=6.49c 45 M=9.73c 70 M=15.14c
English pounds and shillings per 112 lbs. ec[ual U. S. cents per lb.
1£ =4.33c 1£ 8s=5.59c 1£ 18s= 8.18c 5£=:21.65c
1£ ls=4.54c 1£ 10s=6.49c 2£ = 8.660 6£zz25.98c
1£ 2s=4.75c 1£ 12s=i6.90c 3£ =12.99c 7£=30.31c
1£ 3s=r4.91c 1£ 14s=7.33c 4£ =17.32c 8£=34.64c
1£ 5s=5.40c 1£ 15s=7.57c
The German Hop Growers' Association
Is quite an effective institution, under the presidency of Herr Von
Sodcn with Mr. A. Fairth as vice president. Its prime object is the
obtaining of crop reports from its branch associations and local
members, as well as the dissemination of information of general
Interest to planters. Its official organ is Deutschen Hopfenbau-Verein,
edited by Mr. Fairth, to whom we are indebted for numerous courte-
sies The branch organizations of this association, with the director
of each and his post-office address, are as follows :
BAVARIA--Spalt and Spalterland, director Landrath Herkenschlager,
Hauslach bei Georgenogmund ; Hersbruckerland, director T. von
Soden,Vorra; Neustadt, director Steward Sorg, Newstadt on the
A; Oberbayern, director Mayor of Aichbichlerland and Delegate
Imperial Diet, Wolnzach; Niederbayern, director G. Zieglmeier,
Katzenhofen ; Kindiiig, director Ihirgomasier Zaigler, Kinding.
"WUKTEMBERG -- Neckar, director Verwalter Distlen, Flemmingen;
Schwarzwalkdkreis, director City Counsel Edelmann, Rotten-
burg on N; Donankreis, director Delegate of Diet Bueble,
Tetlnang.
BADEN'-Director Burgomaster Mechling, Schwetzinger.
East and West rKUSsiA--Direclor AViepkingin, Tathannen.
The bulk of the trade in hops in Germany is concentrated at Nu-
remberg, but every large town has trade chambers, at which there is
some buying of hops.
The principal market places for Austrian hops are Saaz, Auscha
and Danba. In Alsace, Hagnenan is the most important hop center;
Frankfort-on-the-Main, Mayence-Mannheim are also important cen-
ters of great hop denlers, bu't not for the sale of hops by growers. For
Baden, the hop center is Schwetzinger. In Belgium, Alost and rojier-
inghe are the chief centers, but the dealers also meet regularly at the
exchanges in Brussels and Antwerp, Mhere large transactions are con-
ducted. In France the most important hop markets are Dijon and
Luiieville.
THE HOP DICTIONARY
Glossary of Technical Terms Pertaining to Hops
and the Hop Trade, Including Hints on
Curing and Other Practical Points
By N. K. WAIvTTKR
GROWERS who have not good equipment (facilities in one
locality may not suffice in another) and cannot get an experi-
enced and good dryer, should never contract their hops because
CURING is difficult; the variety, nature, development of the
hop, and climatic and weather conditions playing an important
part. Each season they may differ, and often each day, and
even picking (morning and afternoon) must be differently ma-
nipulated. Proper knowledge of drying takes years to acquire
and cannot be learned in several seasons.
HARVESTING, HANDLING, CONDITION— Hops should be
well cultivated and cared for, be of good, bright, even color, well
matured but not over-ripe, cleanly picked and properly cured;
put up in sound condition and merchantable shape, in new mate-
rial and in correct and uniform bales.
CONTRACTS call for choice goods, unless distinctly other-
wise specified; that is, an excellent article and only the best
grade. Usage has established that all contracts — purchases and
sales — are made "severally as to bales," and there is no averag-
ing to grade or sample, each bale stands on its own merits.
There is no averaging' to a grade or sample, because buyers
often have absolutely no outlet for anything below the standard
bought on, and further, that below certain grades there is often
positively no market, and it is therefore impossible at times to
estimate the value of inferior goods.
INSPECTION— Buyer has the right of accepting each and
every bale equal to purchase, and the privilege of rejecting all
that class below. Changes in quality, due to difference in bulk,
wrapping, storage and general outward surroundings and con-
ditions, may take place in a few hours, and therefore samples
may not represent the distinct bales from which they were
taken. Example: A sample taken from hops, newly baled in
slack condition, wrapped in paper and mailed, might dry out,
and reach intending purchaser entirely changed, whereas a re-
drawn (a fresh sample) or a tryer sample, from the same bale,
would show such slackness and would therefore be reason to
reject. In other words, the identical bale, the original sample
from which reached the buyer with every indication of sound-
ness, would, due to large bulk, depending upon storage condi-
tions largely, either heat or sour.
For the reason cited in foregoing example and other changes
that might occur, it is an accepted fact that samples, as a rule,
are unreliable as an indication of the condition (and therefore
269
270 THE HOP.
quality) of a hop in bale, except at the time they are drawn.
Changes often talce place so quickly, as already explained, that
samples are often useless as a guide a few days, and even at
times a few hours, after they are talcen.
JUDGMENT— The reason that the inspection by buyer, or his
expert agent, is, through usage, accepted as final, is because
there must be some experienced judge to determine whether the
hops are up to requirements and in sound and proper condition,
and the buyer, after acceptance, assumes all risks in changes
that may take place in storage and transit, while seller is
relieved from all responsibility after he has delivered.
Experts, through varied experience, can tell the merits and
defects of a hop, and may be able to attribute the cause of
shortcomings, though they are rarely hop dryers.
DISEASE or VERMIN, SPRAYING and WEATHER DAM-
AGE are always good causes for rejection under contracts.
STORAGE — Hops, being delicate and sensitive, should have
clean, good, cool, dry and dark storage — removed from moisture
and away from anything that emits a decided or strong odor.
WEIGHTS — Only full pounds count on each bale. Hops lose
in weight, with age.
GRADING — ^In the trade there are four divisions made In
quality: First, choice; second, prime; third, medium, and fourth,
common to poor.
QUALITY AND CUASSIFICATION DO NOT CHANGE,
BUT COMPARATIVE VALUES DO— Examples: A hop grading
prime remains a prime hop, although in an excited market it
may command the same price as choice, whereas, in a weak
market, it is rarely worth more than medium. In years of
world's shortage, common and poor bring as much as medium.
In such seasons, there are really only two distinctions in the
price of brewing hops, choice and prime commanding about the
same figure, while there is little if any difference between me-
dium, common and poor. In years of overproduction, choice
only command top price, prime less, and medium sink to the
lowest valuation; it is difficult to get a price even on mediums,
when, of course, common and poor are practically valueless.
Summing up: Supply and demand regulate values, but do not
alter quality.
flOP LAW is principally *'Law Merchant." Most terms and
expressions in the hop business are purely technical. Rulings
and decisions governing quality, condition, samples, inspection,
etc., in cases covering other kinds of crops, will not necessarily
apply to hops, because of their very nature, which is so different
and distinct from other products. The customs controlling the
tender, delivery, inspection, rejection, replacing and acceptance,
are well established, and therefore controlled by trade usages,
that is "Law Merchant.'
THE HOP GLOSSARY
ACRE— A hop acre is sometimes figured, regardless of land
j-urface; at 1000 hills, or plant centers, as an acre, but unless so
qualified means statute acre.
AGING— Becoming old; or taking on the properties of former
jears' growths. Losing in brewing virtue.
AIRING— Permitting a free circulation of air between the
bales or through the hops. When found slackish, the bales are
separated "on end," to retard damage that would be promoted
by close piling. The bales are sometimes opened at the side
seams, and the hops loosened and holes made through them, to
permit access of air, thus to prevent or arrest heating. Often
the bales are torn apart and the hops opened out and spread on
the cooling and kiln floors, to permit free exposure to the air.
These should really be subjected to re-drying. Hops that require
airing are generally sour, and therefore poor. The injury to
APPENDIX. 271
value naturally depends upon the degree of resultant damage
to quality and market conditions.
ALL FAULTS— The English term for "as is."
AS IS— Without privilege of rejection. A condition at times
imposed on sales of lots containing damaged hops, or including
injured and unmerchantable bales or a mixed lot.
BABY BALE— A single, small, "lightweight" in an other-
wise standard weight lot.
BABY HOPS— See young hops.
BAD COLOR— See off color.
BAKED— Harsh and rough, with brewing quality damaged
through improper ventilation and circulation of air in kilns dur-
ing drying process.
BALES— The packages of hops as they are marketed. These
must be of regulation shape and requirements. See baling; also
weight.
BALING AND DIMENSIONS— Size varies somewhat,
but the hop presses generally in use are the recognized stand-
ards. The baling must be properly done, neat and clean, with
new material and well sewed. See weight.
BALINGS— See pickings.
BASKETS— Small baskets used in gathering hops.
BATCH — A single kiln flooring of hops.
BERRY OR STROBILE— The hop. The catkins. Infrequently
called buds (not burrs).
BIN — The cooling room, or the divisions of a cooling room,
which is sometimes partitioned off into compartments, to keep
qualities (pickings, color and curings) separate for proper bal-
ing. A name also given to a burlap bottomed framework into
which green hops are picked.
BINSMAN— In England, the person in charge of a gang, who
also pulls poles and assists measuring and loading wagons. See
field boss: also poleman.
BliACK— A name sometimes given to heated hops.
BLEACHING— The sulphuring. The term bleached is applied
to hops that are naturally whitish, or those that have lost too
much color from improper sulphuring. See sulphuring.
BLIGHTED— Diseased.
BOLD— Rather large and prominently flaky hops, that are
serviceable but not silky.
BOARDS— A term used in England for the shelves or tables
on which the hop samples are shown.
BOARDY— Hops hard pressed and wanting in life; not
springy in bale.
BOOKER— In England, the person who follows the measurer
and enters proper credits or gives tickets to each picker for
work done.
BOXES— Boxes in which the picked hops are taken to the
kilns.
BOX MAN— See foreman.
BRACTS— See petals.
BREAD Y— The aroma of warm, newly baked bread. An
indication of over-drying. See over-drying.
BRIGHT— Brilliant and even in color.
BROKEN— The berries parted, the petals largely loose and
showing few whole berries, resulting from too much drying,
untimely or improper baling. See al~o hard pressed; also shelly,
powdered and chaffy.
BL^DDING— A reprehensible method of throwing selected
whole berries on the face of samples.
BUDS— See catkins: also berry.
BULK SAMPLES— A big representative line of samples
from a lot.
BURNT— See roasted.
BLTRR — The burr or real bud— the undeveloped hop in its
early stages of formation, before the petals form.
272 THE HOP
BUTTERY-See oily.
BUTTONY— Full berried. See flaky.
BUYING AND SELLING— The purchase and sale of hops,
which is always according- to grade or sample. Unless otherwise
distinctly agreed, the transactions are subject to usual customs.
CABBAGY— The cut edge of a sample resembling a cut sec-
tion of a cabbage. Also called streaky.
CAKED— Brick-like, lumpy (the berries sticking together in
bale and lifeless). Indicates slackness. See also cold.
CARLOAD— Unless otherwise qualified, means sixty regula-
tion bales. See bales, baling, weights.
CARPELS— See petals.
CARPET— See kiln cloth.
CASING Cor going through case in curing) — This is a reac-
tionary sweating that takes place in the cooling room, promot-
ing njellowness or silkiness, sometimes named the "second
sweat," calling the "reek" the first sweat.
CATKINS OR BUDS— See berry; for buds, see also burr.
CHAFFY — Broken and brittle, powdery; also called mashy.
CHEESY— The name sometimes given to the rancid odor of
hops that are aging. See aging.
CHIPPY— See cold; also harsh.
CHOICE HOP— One that shows the entire bale to be of
a g"ood, bright, even color, flaky (whole berries), cleanly picked,
silky, rich in lupulin, g^ood flavor and properly cured and baled.
See quality.
CLAMMY— A cold, moist, sticky condition, indicating slack-
ness. See slack.
CLASSIFY — To grade samples. See grading.
CLEAN— Refers to picking. Free of leaves and stems and all
foreign matter. Properly picked.
CLOTH— See hop cloth; also kiln cloth.
COARSE — Full berries, wanting in silkiness.
COLD — Clammy, slackish and usually immature. Also applied
to a hop that has soured. If the hops do not heat, but simply
sour in bale, then the berries will be hard and slightly caked,
or what may be termed chippy. See souring.
COMMON HOP— One that shows either flaky berries, or,
if broken (not powdered), fair brewing quality. It may be
somewhat poor in color and general conditions, but must be
sound and put up properly. See quality.
COMPLEXION— Color and sghtliness, particularly as to
luster.
CONDITION— The name sometimes given to lupulin. Brew-
ing virtue. Further, it refers to curing- and marketable manner
of baling.
CONES— The hops. See berry.
CONTRACTING— The engaging ahead of production. The
selling and buving of "future" crops. See buying and selling.
COOKED— See stewed.
COOLING ROOM— The room or 1>uilding in which the hops,
after being taken from the kilns, undergo the completion of the
curing process.
COPPER HOPS— Hops for the brewing kettles. Generally
applied to those hops used for boiling, but not particularly
adapted to flavoring in the vats, or for hopping.
CORE OR HOP STEM— The strig. The axis of the strobile
In contradistinction to the vine sterns. See stems.
CROSS GRAINED— Diagonally packed, through tramping,
or the "follower" of the press not working evenly. See curly.
CRTTSTED— Hardening of the outward portions of the bale
next to the cloth, caused by damp storage, and causing- caking,
discoloring and a musty flavor.
CULLS OR CULLING— Bales rejected upon inspection.
APPE]S"DIX. 273
CURING— The process of drying hops on the kilns, together
with their management in the cooling rooms. See drying; also
curing guides, and casing.
CUKING GL IDES— There are no positive rules to regulate
the drying of hops. Each flooring may require different manip-
ulation, and this requires stu'dy. aptitude and years of practical
experience, because seasons differ. The following pomts, how-
ever, are es.sential. LOW HEAT. GOOD DRAFTS, PROPER
SULPHURING, and to complete the curing, intelligent manage-
ment in the cooling room. See drying; also casmg.
CURLY— Applied to a flaky hop when cross-grained.
CUT— The cut Side of a sample.
DEAD, Dl'LL OR J^EADY— Wanting in color, grayish and of
a lifeless character.
DELICATE— Tender in texture and of fine flavor.
DIMENSIONS— See baling.
DIRTY— Refers to picking, and is applied to samples that
contain either or both leaves and stems. That is, that the hops
were uncleanly, not properly picked.
DISEASED— A choice hop must be absolutely sound. The
slightest touch of disease of any kind prevents a hop being
classed choice. Even to be classed prime, there cannot be more
than the slightest trace of disease present. A medium hop can
only contain very little mold; where mold abounds, the hop can-
not be better than common and is rarely classed above poor. In
seasons where disease is isolated, and the world's crop lairly
abundant, then sound hops only are marketable, and thosp
unfortunates in the infected districts can claim no standing
for such of their crop that shows disease. It is worthless in
a commercial sense, and no buyer takes the product unless
bought on sample. See quality.
DOUBLE BALE— The compression of two bales into one
package. See repacking.*;
DRIFTS— The different blocks or portions of a field of hops
allotted to separate sets, companies, gang, division or section of
pickers.
DRYER— The man who dries the hops, supposed to be an
adept at curing.
DRYING— That portion of the curing process that takes
place in the kilns.
DULL— See dead.
EARLY Id OPS— Early varieties, or early ripening hops.
EDGE — The cut side of samples. Also those parts of a bale
where any tv. o surfaces meet. Sometimes applied to the front
of the bale; which is properly called the face.
ENDS— I'hose parts of a bale making top or head surfaces.
EXAMINATION— The examining of a lot of hops and the
passing on samples, but this does not constitute inspection
unless each bale is tried. See inspection; also good light.
EXCELLENT BREWING HOPS— Prime hops. See quality;
also prime.
EXPERT— One versed in the quality and action of hops,
together with the requirements and customs of the trade.
EXPORT- Fit for export shipment.
FACE- Surfnce of the sample; also the long, narrow surface
of the bale. See facing: also edge.
FACING— The method sometimes employed of cleaning leaves
and stems from the face of samples.
FAIR BREWING HOPS— Common hops. See quality; also
common.
FALSE PACKED— Layers of different color or maturity m
one bale, or diffi^rent qualities of hops baled together.
FANCY BREWING HOPS— Choice hops. See quality, also
choice.
FAT— The term applied to such hops, during curing, in which
the cores have not perceptibly started to dry. See also rich.
274 THE HOP.
FEATHERY— Fluffy, Berries on the vine that are not full
or firm, and on which the petals spread.
FIFLD BOSS— The overseer of the pickers.
FIRST YEAR'S GROWTH— See first year's planting.
FIRST YEAR'S PLANTING— Also called first year's growth.
See young hops; also new.
FLAKY— Lying in layers of full, whole berries. Perfect
strobiles.
FLAT— Lifeless and often scrubby, and at times cabbagy,
FLAVOR— See good flavor.
FLOORING— The quantity of hops put on a kiln at a single
drying. Depths of floorings cannot be fixed. This depends upon
the nature of the hops, capacity, or rather efficiency, of the
kilns and the prevailing atmospheric conditions. The character
of the hops and possible draft must govern quantity.
FORCED DRYING— Dried too rapidly at a higher than nec-
essary, but not scorching heat; causing loss of volatile oils and
making the hops harsh. See harsh.
FOREMEN— The j^ard bosses, paymasters and superintend-
ents of the different work. These include in the eastern states
the sacker, who empties the eight-bushel boxes of green hops
each into a separate sack and gives pay checks. On the Pacific
coast the box man who supervises the picking and gives pay
tickets. The chief baler who is in charge of the presses. See
also dryer, weigher, field boss, measurer and booker.
FOXY — Reddish brown from over-maturity, disease or decay.
GOING— Occasionally applied to hops that are heating. See
heating.
GOING OFF — Getting overripe, or beginning to show disease.
See shattering.
GONE— Applied to hops that have heated. See heating.
GOOD BREWING HOPS— Medium hops. See quality, also
medium.
GOOD COLOR — A brilliant pale green, or a golden yellow.
A light, bright, properly and evenly developed appearance.
GOOD FLAVOR— The natural aroma emitted from a rich
and mature, perfect, healthy hop berry at the time it is taken
from the vine, after compression and rubbng between the fin-
gers, ar\d which flavor should permeate the fresh cured hops.
GOOD LIGHT— Hops must be examined by da- ""ht; arti-
ficial light will not answer. A soft, clear, steel light. A veiled
or slightly shaded (not shadowed") natural light, or what might
be styled "an indirect sunlight" is best. The intense direct rays
of the sun are too strong. See examination; also inspection.
GOOD QUALITY— See quality.
GRADE AND VALI'E— There are four mercantile divisions,
ramelj^, choice, prime, medium (or good brewing) and com-
mon to poor. Classification does not change, but supply and
demand regulate relative values.
GRADING— Classifying hops as to quality and standard.
GRAIN— See cross-grained: also curly.
GROSS WEIGHT- The entire weight of bales. See weights.
GUIDES — See curing guides.
GUMMY— Pesiroiig and not thoroughly cured.
HARD PRESSED— Too heavily baled. It takes buoyancy,
or sponginess. from a well-cured hop. Also called hard baled
and heavy baled, and when over the maximum proper weight
range of 205 pounds are called over-weights, or heavy weights,
which latter term is also often applied to a lot of bales, the most
of which run considerably over the ordinary average. See
weights.
HARSH— Wanting in oily matter. Generally flaky, and the
berries stiff, or what could be called chippy. Usually the result
of forced drving.
HEAD— See top.
APPEN"DIX. 275
HEATING AND HEATED— Spoiled from heating. Rotting or
rotted; usually due to insufficient drying; also possible from
becoming wet through absorption of a large quantity of mois-
ture, from exposure, and sul>sequent sweating with consequent
turninsT and rotting. A heated hop is worthless.
HEATED BERRIES— Berries heated before being put on the
kilns.
HEAVY BALED— See hard pressed.
HEAVY WEIGHTS— See hard pressed.
HIGH-DRIED— A degree of curing between over-dried and
over-fired, which causes the running of the lupulin and loss of
oily matter and brewing strength. High-dried hops are of a
chaffy nature.
HIGH-FIRED— See over-firing.
HOP CLOTH— The burlap covering for the bales. This should
be 24-ounce cloth, and there must be not more than is neces-
sary to properly cover the bales.
HOPPERS— Hop pickers; those who pluck the hops from the
vines.
HOPPING — The occasional practice of putting a few whole
berries in barrels of malt liquor.
HOPPING OUT— The transitory stage from burr to cone, or
formation of the true hop.
HOP, SACKS — The sacks in which the hops are taken to the
kilns. The size varies in different localities, but should not be
made to hold over 80 pounds green hops, which would require
a sack about 60 inches long by 40 inches wide. See pokes; also
under "foremen."
HOP STEMS— See core.
HOP YARD— Hop garden, or field of hops.
IMMATURE— Not sufficiently ripe; indicated by green
appearance of berry, and pale color of hop seed which when
fully ripe is dark purple.
IN CASE— See casing.
IN HOP — Fully contoured strobiles in first stages of develop-
ment of hop.
INSPECTION — The trying and examination of every bale,
and the passing on each bale separately. See examination; also
good light, and try; tryer samples.
IN THE SWEAT— See casing-.
KILN — The house in which the hops are dried.
KILN BOSS — The man in charge of the curing. See dryer.
KILN CARPET— See kiln cloth.
KILN CLOTH— The covering of the kiln floor, usually 10-
ounce burlap. Also called kiln carpet.
LATE HOPS— I^sed in contradistinction to early hops, where
a grower has several varieties (including some earlies), or differ-
ent fields that mature at differently advanced stages of the
harvest season.
LEADY— See dead.
LEAVES— The leaves of the hop vine.
LIGHT— See thin; also good light.
LIGHT-BALED— See loose pressed.
LIGHT WEIGHTS— See loose pressed.
LIVELY— See spongy.
LOOSE BALED— See loose pressed.
LOOSE PRESSED— Not tightly enough baled. Well-cured
hops, put up this way. and hops that are aging, lose weight
quickly. Also called loose baled and light baled, and, when ot
less than proper minimum weight range of 170 pounds, are
styled light weights, a term also applied to a lot of bales, a good
many of which run under the customary average. See weights.
LOT— A number of bales collectively.
LLTPULIN— The bitter, buttery, globular secretion in the
hops— their principal virtue. In its normal condition, in healthy,
276 THE HOP.
properly handled, cured new hops, it has its natural brilliant
lemon-yellow color and oily characteristics.
MANAGEMENT— The treatment of the hops. Curing.
MASHY— See chaffy.
MATl^RE— The stage of development proper for picking.
Not immature and not over-ripe.
MEASTjRER— In English usage, the person who measures
the green hops with a bushel basket into the pokes. See
booker.
MEATY— A fat, wholesome, b\it not delicate hop.
MEDIUM HOP— A hop of good brewing quality, that may
not be as even in color, or may not excel in distinct qualifica-
tions as the better grades, but must be bright, fairly clean,
safelj^ cured and well put up. See quality.
MEIjIjOWNESS— Silkiness. See sulphuring; also casing.
MERCHANTABLE— Sound and properly pur up. Refers to
both contents and covering of package, or to tlie bale itself.
MIX— A disadvisable habit some growers have of blending
their growth in cooling room.
MIXED L,OT— A lot containing bales of different qualities.
MIXED COLOR— A mixture of early and late pickings,
brought about by a deliberate and thorough mixing of the
greener with the more mature hops. See uneven color; also off
color.
MIXED CTJRING— See uneven curing.
MOTTLED— Mixed in color. Green, ripe, and over-ripe or
wind-whipped berries baled together indiscriminately, usually
the fault of uneven ripening.
MOVE— Changing or tossing hops from one place in cooling
room to another.
MUDDY— Imperfectly developed unsightly hops full of dirt
and sand.
MUSTY— Foul odor. Fustiness.
NET WEIGHT— The weight of the bales less tare allow-
ance. See weights.
NE^V — Hops of the latest crop in contradistinction to old
hops. As it gets near to a harvest the term applies also to the
growing crop. The spirit of its use and plausible intent govern
the meaning. First year's growths are sometimes called new
hops, to distinguish them from the product of roots that have
produced before. See young hops.
OASTS or OAST HOUSES— The English term for the drying
houses. See kirns.
OFF COLOR— Not bright; unsightly. Also used when the
color is uneven from any cause. See dull.
OILY or BUTTERY— Sometimes applied to hops that are
fat and silkv. See silkv. also rich.
OLD HOPS— All growths except the latest harvest. (See
yearlings, also olds and old olds.")
OLD OLDS— A general term for hops over two seasons old.
(Bevond two vears removed from the latest harvest.)
OLDS— Hops two seasons old. (Growth of the second year
removed from latest harvest.)
ORANGED— The lupnlin changed from its original yellow to
a deeper or orange color, the effect of imperfect curing, or result
of nsring. See luniilin.
ORDINARY BREWING HOPS— Poor hops. See quality; also
poor.
OVER-DRYING— The drying of a hop for too long a period
at a low heat. It lessens brew ng strength; that is, it lessens its
intrinsic value. It makes a hop tender. Over-drying is less
damaging in its effects than high-drying or over-firing.
OVER-FIRING, as the word implies, means excess firing In
curing process. It causes more or less evaporation of the volatile
oils, causes crystallization of the lupulin and spoils the flavor.
Its degree can only be determined by an -export (and this can be
APPENDIX. 277
said of all faults). In its worst stages it Is called burnt or
scorched; in the lesser degrees, over-fired or high-dried. General
over-firing may mean practically entire loss of brewing quality.
OVER-GRADING— Classing hops at too high a quality.
Overrating standard. See grading.
OVER-RIPE— Over-mature; shown by the hops turning red,
and in advanced stages by fluffiness or lack of solidity in the
berries on the vines.
OVER WE:IGHTS— See hard pressed.
PACKAGE— A bale.
PACKERS— See pack hops.
PACKET HOPS— Hops put up for domestic uses in tightly
compressed quarter, half and one-pound paper packages. See
pack hops.
PACK HOPS OR PACKERS— Hops for packets for drug-
gists' and grocers' trade. See packet hops.
PARCEL— A collective number of bales. See lot.
PETALS— The leafiets of the hop; that is, the carpels or
bracts of the strobile.
PICK— Privilege of taking any portions of a lot, subject to
usual inspection conditions.
PICKINGS OR BALINGS— When the several portions of a
yard are picked in different stages of maturity, the hops are
kept separate accordingly in early and late, or early, middle
and late balings (or pickings), as is necessary.
PLATTY— The development of a yard unevenly; that is, in
blocks, or maturing irregularly, but evenly in separate plats.
POCKETS— An English term for bales, or, rather, pressed
bags of cured hops, of weights varying according to locality.
POINTING OR TIPPING- The shriveling of the extreme
ends of the point petals, and breaking off of these tips when
the hops have reached their fullest development. This feature,
with dark-purple color of the seed, indicates, under normal con-
ditions, ideal maturity.
POLEMAN— The person delegated to pull vine poles for pick-
ers, or, in the trellis yard, to get down — by means of a hook and
blade attachment to a long scantling — such portions of vine and
hops as cling to trellis wires when the vines are pulled down for
picking.
POKES— The English term for their hop sacks, into each of
which 10 bushels of green hops are put.
POOR COLOR— See off color.
POOR HOP— Any hop having some brewing virtue, but off
in general appearance and conditions. It must be sufficiently
sound to stand shipment, and although it may lack in color and
strength, must be well baled. See quality.
POWDERED — Pulverized. This occurs in baling hops that
have been killed on the kilns by extreme high-drying or over-fir-
ing. Hops become chaffy and powder as they age or disinte-
grate, but favorable storage retards this. See chaffy.
PRIME HOP — One having most of the characteristics of
a choice, but lackng in some point that does not affect its
other general conditions. For instance, a prime hop may be
choice other than to be not qviite as good in flavor, or not fully
rich in lupulin, or not quite although fairly cleanly picked, or
the berry instead of being firm may be tender, or the color
may not be quite even, though fairly uniform (not far off nor
mixed), etc. That is, some slight and single defect, but otherwise
equal to choice. A hop sample containing several blemishes as
above cited would, as a rule, grade only medium. See quality.
PRIMROSE — An expression rarely used, but sometimes
applied to a color indicating early stages of over-ripeness.
QUALITY — To secure good quality, diligent cultivation and
attention in the yard, and clean picking, proper curing and
baling are essential. See choice, or what could be called fancy
brewing hops; prime, that might be termed excellent brewing
278 THE HOP.
hops; medium, that are also called good brewing hops; common,
or fair brewing hops; and poor, or ordinary brewing hops. Also
see diseased, worthless, curing guides.
RANK— An off colored hop with a strong, earthy, or green
vegetable aroma.
RE-BALED— Baled a second time. Necessary, of course, to
re-dried hops. Also to hops that have been opened out for air-
ing. Sometimes resorted to when the first baling was too heavy
or too light, or the baling unmerchantable. Re-baling generally
badly breaks the hop. See re-dried; also airing.
RED— A name sometimes given to over-ripe hops.
RE-DRIED— Dried a second time. Administered to hops that
are found slack, or to hops that have become wet. A re-dr:ed
hop cannot be a choice hop, and the operation generally results
in very inferior quality. See re-baled.
REEK — The vapor or steam arising from hops at the early
stages of drying, called at times a sweat. See sweating, steam-
ing and casing.
RE-PACKING — The re-wrapping or replacing of the burlap
on the bale, or the compression of several bales into one package,
a method sometimes employed for exporting.
RICH OR FAT— Thick in lupulin. See fat.
ROASTED OR BURNT— Terms sometimes applied to badly
scorched hops.
ROUGH— Unevenly developed berries with bracts lacking In
oil and not smooth.
RITB— See the rub.
RULES— See curing guides.
RUSTED— Brown spots. A weather effect on delicate points
and flaws of the growing hops. A blemish, but this is not
meant as the disease known as rust.
SACKER— See foremen.
SACKS— See hop sacks.
SAFE— SuflSciently dry in bale to stand either long (including
export) shipment or compact piling and close storage.
SAMPLES— A chunk (or, as it is called, a square sample) of
hops, cut and drawn from side of bale, with knife and tongs.
Advance samples, the type or shipping samples. Type
samples, the standard for comparison of quality. Shipping
samples, those sent to indicate style of hops shipped. Re-drawn
samples, fresh or newly drawn samples, to show nature and con-
dition. Samples should not be taken until the nops have set
or become firm in bale, which takes several days after pressing.
At inspection examination a square sample is usually taken from
each 10th to 15th bale, depending upon size of lot, besides th*^
tryer samples from each bale. See tryer samples; also bulk
SCORCHED— Burning, caused by over-firing, resulting in the
crystallization of the lupulin and excessive loss of and injury
to brewing quality and flavor.
SCRUBBY— Tracking in roundness or fullness of berry, want-
ing in solidity. Light, flat berries.
SECOND SWEAT— See casing.
SEEDLESS— Free or almost free of seed.
SELECTION— The separate accepting or rejecting of each
bale severally in a crop of hops.
SELLING— See buying and selling.
SHATTERING— The breaking apart of the berry. Falling
off of the petals. Usual to hops that have gone off. Also through
excessive drying-out in the bin after casing. See going off; also
shelly. . ,. T^ X,-
SHELLY— Brittle from drying out in cooling room. Rather
shattered in baling. See casing; also shattering.
SHIPPERS— The top quality demanded by foreign trade.
SHOVE OFF— Act of removing the dried hops from the kiln
floors.
APPENDIX. 279
SICKLY— Cured hops showing an unhealthy or darkened,
watery discoloration of the base of the petals and of the lup-
ulin, caused through faulty handling.
SIDE— The broadest and largest surface of a bale. The sam-
ples are drawn from this portion.
SILKY— Oily feeling in a hop. A point indicating proper
development and good condition.
SIZE— See baling.
SKYLIGHTS— The windows through which the light is
reflected on the boards.
SLACK BINE— Shortage of lateral arms and foliage.
SLACK-DRIED or SLACKNESS— See slack.
SLACK OR UNDER-DRYING— A slack hop is one that is
under-dried, not sufficiently dry. Hops in this condition heat or
sour, depending on the degree of slackness and storage condi-
tions. Heating, which virtually means rotting, may be occa-
sioned by even a bunch as little as a handful of slack hops, and
once started, usually affects the entire bale, and even commu-
nicates to surrounding bales if closely stored. See heating or
heated; also sour and cold.
SLACKISH— Slightly slack. These hops usually sour. See
SLACK-SCORCHED -Hops dried at too high a temperature
and not dried through. Burning them without drying them,
so that while they have a scorched flavor, they may still sour or
heat in cooling bin or bale. Often the fault of too many hops
being on the kiln for its capacity. See slack.
SLEAZY— Thin in texture, wanting in vitality and brewing
strength; flimsy.
SMOKY— Smoky smell that the hops take when the kiln fur-
nace or pipes are defective and allow smoke to escape through
the hops.
SMOTHERED — Inappropriate casing, resulting from inade-
quate airing of hops in cooling room. Usually due to too heavy
packing, causing loss of brilliancy and effecting early disintegra-
tion or aging.
SMUDGED— Incipient heating arrested. Berries indicating
that they had started to heat and cooled off.
SOET— Delicate to the eye and touch, and usually mild of
flavor. Yielding to easv pressure.
SOGGY— Very wet or slack. See slack.
SOUND— Not slack; in a safe condition.
SOURING — A hop generally sours or takes a seur flavor
when not properly ventilated in cooling rooms (when too
heavily piled), while going through case, and generally, if prop-
erly dried, when baled too soon; that is. "nefore completely
cured. A slackish hop in bale will sour if it does not heat. Con-
dition of storage affects the extent of damage at times. See
storage; also cold.
SPINDLING— Thin, straggling, light-foliaged, unproductive
or small bearing vines.
SPONGY— Springy to the touch, full of life. A good point and
essential to a first-class hop. Also called lively.
SPOTTED--Berry showing uneven development of color.
Petals of different color in same berry.
SPRAYING— Squirting washes on the vines through spraying
machines, to avert the appearance or stop the spread of vermin
or disease.
SPRAYING DAMAGE— Injury created by the spraying wash,
caused generally by washes that are too powerful, or by apply-
ing same at wrong stage.
STEAMING— Emitting volumes of moisture. This occurs to
the hops in the kiln at the earlier stages of drying. See the
reek; also sweating.
STEMS— The twigs from the lateral arms (consisting of the
peduncle, petioles and pedicels), which should not be picked.
280 THE HOP.
See core, or hop stem.
STFWED OR COOKED— A condition due to inadequate over-
head drafts in kilns, causing the moisture supercharged air or
reek to fall back on the drying hops.
STIR— Some growers stir instead of turning their hops by
walking through or rather dragging their feet with a shuffling
motion along the kiln floors through the batches of drying hops.
STORAGE— Should be clean, dry and dark, away from mois-
ture and foreign odors. Hops while in transit are in a poor con-
dition of storage, due to the extreme and oppressive heat gener-
ated in cars and vessels.
STOUT— Rich in lupulin and of good flavor.
STOWAGE — An English expression for cooling room.
STRAWY— The cut edge of a sample of broken or scrubby
hops that lack in oily matter, and have a straw-like appear-
ance.
STREAKY— See cabbagv.
STRIPPING— The removing of the foliage (branches and
leaves) from the lower portion of the main vine.
STROBILE— See berry.
STRONG— Full flavor.
STTLPHURING — Burning sulphur at the kiln furnaces, so
that the fumes pass through the drying hops. It has a three-
fold effect; it opens the hops, thus helping to keep them loose,
whicn assists the draft: it modifies or evens ttie color of the
hops; and it has a preserving tendency by promoting mellowness.
See casing. It should be employed at the proper stage, and
that is from the time the hops on the kiln have become warm
until thev have finished steaming. See bleaching.
SUN SCALD— The weakening of the vine and injury to or
curtailment of the crop, through protracted Intense heat during
the developing period of growth, before the true hops have
formed. ^ , . ^„^
SWEATING— Sometimes used in the sense of heatmg. Often
for the reek. Also applied to casing, which is at times called the
second sweat.
SWEEPINGS- The refuse from floors swept mto the press,
making such bales inferior.
TARE— The customary allowance or deduction in weight for
baling cloth.
TENDER— Soft; delicate to the touch.
THE RUB— The feeling and action of a hop between the
fingers or hands in examination.
THICKNESS— An English term employed in passing on the
quantity of lupulin; richness.
THIN— Lacking in lupulin; wanting in brewing strength.
Also called light, or weak. .-,.,.
TINTED— Touched with a faint pinkish color, indicating the
turning point to over-maturing. This feature is desirable. An
indistinct blush, not too pronounced, or it would mean over-
ripeness.
TIPPING— See pointing.
TONGS— A tool for taking square samples from a bale.
TOP CROP— The growth of hops running principally to the
extreme end (top> of the vines, due to less than ordinary
branching or arm.ing, and indicating a lighter than normal yield.
TOP OR HEAD— The smallest surface of a bale.
TOUGH— A tenacious condition that the cores of the hops
are in at a certain stage of curing. A number of tough stems
in baled hops are an indication of slackness.
TOUGH STEMS— Tenacious "hop stems;" strigs that are not
brittle; incompletely cured cores.
TRAMPING— The light compression of the hops in the
presses, to permit more hops being added for proper weight
of bale before actual power is applied through the follower
attachment of the press.
APPENDIX. 281
TRY — The probing with tryer. The examination of each
bale singly. See examination, also inspection, and good light.
TRYER— A harpoon-shaped instrument used in inspecting
each bale, and which brings out a handful of hops. See try.
TRYER SAMPLES OR TRYING S— The handful of hops
taken from the center and sometimes from several parts of each
bale, with the tryer, by the inspector. See sample, also good
light, and inspection
TRYINGS— See tryer samples.
TURN OR TURNING— Some growers upset or turn their
hops on the kiln floor after several hours' drying. A hop is said
to be turning when aging. Also said of hops that are heating or
heated. See soviring.
UNDER-DRYING— See slack.
UNDER-GRADING— Underrating quality. Classifying below
proper standard. See grading.
UNEVEN COLOR— Not a uniform color; a mixture of differ-
ently colored but fairly developed berries. See mixed color; also
off color.
UNEVEN CURING AND MIXED CURING— Uneven drying
of hops, caused by too heavy floorings; that is, too great a
depth of hops on kilns, or through faulty kiln construction and
improper drafts, so that in order to dry part of the hops properly
those in another section of the k In are either over or under-
dried. In such cases it is uneven curing. Where the kilns work
properly and growers dry some floorings to different degrees
than others and mix them in bin and bale it is mixed curing.
ITNSAFE— See unsound
UNSOUND OR UNSAFE— Not sound; slack or slackish.
USEFLTL— Not particularly fine, nor sightly, but of good
brewing quality.
VALUE — See grade and value.
VARIEGATED— Mixed in color; checkered. See mottled.
VERMIN DAMAGE— Injury to the growing crop, caused by
pests and the resulting damage of which is apparent in the hop.
WEAK— See thin.
WEIGHER— The yard boss, who has charge of pickers,
weighs the hops and gives credit, or pay-checks, for them.
WEIGHTS— Bales should weigh from 170 to 205 pounds gross
weight and should average not less than IFO pounds net weight.
Unless otherwise stated all transactions imply net weight. See
loose pressed, hard pressed, bales, baling.
WIND-WHIPPED— The tips and outer leaves of berries
bruised, withered and discolored, caused by wind shaking and
hitting. ;
WOODY — Abounding in vegetable fiber and harsh.
WORTHLESS — Hops that cannot even be classed poor; that
is, those that are spoiled through bad handling or disease. There
is always a lot of this valueless trash. See qual'ty.
YARD BOSSES— Those in charge of the picking. See foremen.
YEARLINGS— Hops of the next to the latest harvest. (On
the Pacific coast young hops are sometimes erroneously called
yearlings.)
YOUNG HOPS— Hops of first year's planting; i. e. .from vines
of the first growth after the sets or cuttings have been planted
for a crop; infrequently called baby hops. See new.
RULES REGULATING THE HOP TRADE
AMONG MEMBERS OF THE KEW YORK PRODUCE EXCHANGE.
[Adopted March 1, 1S83, and amended September 27, 1889.]
Rule 1.— At the first meeting of the Board of Managers,
after their election, the president shall (subject to the approval
of the Board) appoint as a committee on hops, five members
of the New York Produce Exchange, who are known to be deal-
ing in hops, to consist of two brewers and three dealers. It
shall be the duty of this committee to properly discharge the
obligations imposed upon them by these rules, and also to con-
sider and decide all disputes arising between members dealing
in, consuming, or exporting hops, which may be submitted to
them.
A majority of the committee shall constitute a quorum, but
the committee shall fill temporary vacancies, if requested by
either party, by some member or members representing the
same interest as the absent member or members, and a decision
of a majority of those present at any meeting shall be final.
They shall keep a record of their proceedings, and a fee of
fifteen dollars ($15) shall bo paid to the committee for each
reference case heard by them— to be paid by the party adjudged
to be in fault, unless otherwise ordered by the committee; pro-
vided, however, that nothing herein shall prevent a settlement
of questions of difference by private arbitration, or as provided
in the by-laws.
Rule 2.— All transactions In American hops only between
members of the Produce Exchange shall be governed by the
following rules, but nothing herein shall be construed as inter-
fering in any way with the right cf members to make such
special contracts or conditions as they may desire.
Rule 3.— All hops shall he deliverable In merchantable bales.
When a certain number of pounds are sold, number of bales
not specified net weight shall be understood.
Rule 4.— When specific lots are sold by sample, or other-
wise, and are ready for immediate delivery, any bale weighing
not less than 170 poimds, nor more than 205 pounds, shall be
considered a good delivery.
Rule 5.— When hops are sold for future delivery, and the
weights of the bales have not been ascertained at the time of
sale, a good delivery shall be a sufRcient number of bales to
effect a delivery of the number of bales sold, at an average of
not less than 180 pounds, nor more than 190 pounds, gross
w'eight.
Rule 6.— On all New York state hops, an allowance of five
pounds per bale shall be made as tare, in conformity with
Chapter 239, laws of 1889.
Rule 7 — In the absence of any specific agreement, the seller
shall have the right to demand payment at the time of passing
the title.
Rule S.— Whenever sales are made -uetween memhers or the
Produce Exchange through a broker who is not a member of
the exchange, a written memorandum of the transaction is to
be exchanged bv the principals before the sale is binding.
282
RULES. 283
Rule 9.— Hops sold for immediate delivery must be inspected
on the day succeeding' the sale. Hops sold for future delivery
must be inspected on the day succeeding the notice of delivery.
Rule 10. — If upon inspection it shall be found that any lot,
or part of a lot, of hops shall not conform with the contract,
the buyer shall take all which do conform to the contract, ana
the seller shall replace the lot, or part of a lot, rejected with
other hops of as good a quality, and for this purpose the seller
shall have 10 days to replace and tender hops to fill the original
contract; but if a specific lot is sold by sample the buyer shall
take all which are up to sample, and he shall have the privilege
of taking the rejections at a reduction to be agreed upon be-
tween seller and buyer, or to be settled by arbitration.
Rule 11. — Hops shall be weighed (unless otherwise agreed
upon) by a city weigher, whose return shall be taken as the
correct weights of the bales. Weigher's fees to be divided by
buyer and seller equally.
Rule 12.— All hops shall be removed at the buyer's expense
within two days after receiving the invoice (weather permit-
ting), and until then the seller is to hold the same fully cov-
ered by insurance at invoice value.
Rule 13. — When hops are sold to arrive and to be inspected
on dock, the buyer shall, after inspection and order for de-
livery being given, assume the same relation toward the trans-
portation line by which the hops arrived, as the seller previ-
ously held as regards their removal from the place of delivery
within the time granted by such lines for that purpose.
Rule 14.— Rules 3, 4, 5 and 6 shall apply only to the crop of
1S83 and subsequent crops.
Rule 15. — A carload of hops shall be understood to contafn
not less than 10,000, or more than 13,000 pounds.
BIBLIOGRAPHY.
The Curiosities of Ale and Beer, John Bickerdyke;
London, 1889.
Twenty-five Years of Brewing and History of Ameri-
can Beer, George Ehret; New York, 1891.
The London and Country Brewer, printed for T. Ast-
ley; London, 1758-59.
Hops and Hopping, John B. Marsh; London, 1892.
Root Glowing and the Cultivation of Hops, Arthur
Roland, edited by William H. Ablett; London, 1887.
Hops, their Cultivation, Commerce and Uses in Various
Countries; a manual of reference for the grower, dealer
and brewer, P. L. Simmonds; London, 1877.
Hop Culture in the United States, being a practical
treatise on hop growing in Washington territory, from the
cutting to the bale, E. Meeker; Puyallup, Wash., 1883.
Diseases of Plants Induced by Cryptogamic Parasites,
Tubeuf and Smith; London, 1897.
Diseases of Plants, H. Marshall Ward (contains a de-
tailed popular description of mildew) ; New York, 1890.
Insects and Fungous Enemies of the Hop Vine, Charles
Whitehead; Journal of the Royal Society of England series
3, 1893, pp. 240-247.
Methods of Preventing and Checking Attacks of Insects
and Fungi, Charles Whitehead; London, 1891.
Annual Report of the Board of Agriculture, Charles
Whitehead; London, 1890, p. 24.
Hop Cultivation, Charles Whitehead; London. 1893.
Handbook for Hop Growers, a guide to the practical cul-
ture of hops (German), E. D. Strebel; Stuttgart, Ger-
many, 1887.
Hop Cultivation (German), C. Beckenhaupt; Weissen-
burg, Germany, 1890.
A beautiful set of photographic plates, each 36 by 23
ctms., was prepared in Germany by Dr. M. Braungart, and
published in 1881-2. Not less than 429 "varieties" of hops
are illustrated in the 37 plates. The hops are shown in life-
size and from all parts of the world. The old edition is
out of print, but copies are in many libraries in Europe.
A new edition is expected in 1901 that ought to be in every
agricultural college and other important libraries in
America.
Hop Culture, practical details as given by ten experi-
enced cultivators residing in the hop-growing sections in
the United States, collected by Orange Judd Company,
edited by A. S. Fuller; New York, 1883.
284
LIST OF ILLUSTRATIONS.
A section of hop pickers starting their work. Frontispiece
Fig-. Page.
1. Three-hundred acre hop field nearly ready to pick . . 10
2. Commencement of pole stack 12
3. New York hop yard 14
4. Hop harvest in New York state IV
5. Southern Oregon hop yard, ready to pick ... 20
6. Hop yard two miles long at Horstville, Cal. . . . 24
7. Branch of male hop vine 26
S. Female vine, showing flowers 27
9. Branch of female hops 28
10. Grains of lupulin 29
11. Female cluster newly set .30
12. Single female flower 30
13. Cross-sectional longitudinal view of female hop . . 31
14. Various shapes of hops 33
15. Kentish hops 34
16. Kentish cluster hops . 37
17. Fuggles, Kent .40
18. Bates's brewers, Kent 43
19. Rear view of 12 kilns, Pleasanton, Cal .... 46
20. Climbing tendril of hop vine 48
21. Largest hop kiln in the world under one cover . . 53
22. Hop harvest in Madison Co., N. Y 55
23. Partly picked hop yard, Cal 57
24. Hop fields near Cooperstown, N. Y GO
25. Tank for dipping hop poles to prevent rot ... 62
26. Hop pickers in Washington 66
27. Picking hops in Kent, Eng 68
28. Picking hops 70
29. Irrigating hops 75
30. Yard on the short pole system 78
31. Trainins hons in Kent 81
32. Horizontal hop yard, N. Y 82
33. Otsego grub hoe . 84
34. Twine pole 85
35. Kentish wire trellis 86
36. Kentish hop vards 87
37. Hop root stock . 88
38. Hop vine stock for transplanting 90
39. Hop stock 91
40. Tools for making holes for setting poles .... 92
41. Forms of hop knives 94
42. Plants untrimmed and trimmed 95
43. Yard pegged out for planting 96
44. American grub hooks ...» 98
45. Foreign hop tools 100
46. Tying knot 101
47. Hop garden in Kent 102
48. Picking hops grown on strings and trellis, Cal. , . 104
49. Orchard cultivator 106
50. Pleasanton trellis, side and end views .... 107
51. Starting out to "string" a wire trellis .... 108
52. Trellis system used at Pleasanton 110
53. One-horse shovel plow Ill
54. Indian hop pickers at dinner, Cal 112
55. Spraying outfit, British Columbia hop yard . . . 114
285
2^6
THE HOP.
Fig. Page.
56. Hop plant louse, true female 116
57. " " " stem mother 116
58. " " " first immigrant 118
59. '■' " " male 120
60. Hop plant louse and eggs 121
61. Aphidine parasite of hop plant louse i23
62. Cynipid parasite of hop plant louse 125
68. Hop grub 127
64. Hop vine snout moth 131
65. Interrogation butterfly 132
66. Comma butterfly 133
67. Zebra b^Jtterfly 134
68. Woolly bear caterpillar ... .... 135
69. Saddleback caterpillar 136
70. Hop vine leaf hopper 137
71. Striped fiea-beetle 139
72. "Red spider" or spinning mite 140
73. Needle-nosed hop bug 143
74. "Scars" on hop vine 144
75. An eelworm disease of hops 145
76. Threads of hyphae of hop mold 147
77. Ascocarps of "hop mold" 148
78. Single ascocarp 150
79. Growing pineapples or tobacco under sheds in Florida 156
80. Step-ladder 158
81. Scene in Kentish hop yard 160
82. Indian pickers' lodges, Cal 161
83. Hop bin frame, N. Y 163
84. Picking bin, N. Y. . . . 164
85. Hop picking check 166
86. Pickers' weight memorandum 167
87. "Set" for four pickers 168
88. Weighing hops . 169
89. Elevating hops to kiln 171
90. Tent training 173
91. Improved English oast 174
92. Section of group of kilns and cooling room ... 176
93. Ground floor of kilns and cooling room .... 176
94. Elevation of the common hop kiln 178
95. Ground plan of hop kiln , . 179
96. Second floor of hop kiln 179
97. Draft hop kiln 180
98. Section of cowl to draft kiln 182
99. Ground plan of kiln . - 183
100. Plan of drying floor 184
101. Improved France kiln 186
102. Details of kiln construction 187
103. Support for hot-air pipe 189
104. Stove for kiln, front view 190
105. Hop baling press 192
106. Elevation of hop house, N. Y 193
107. Ground plan of hop house 194
108. Section of hop house , 195
109. Shovel and brush for use in kiln 197
110. Elevation of double kiln, N. Y. . , • . . . 198
111. Ground plan of double kiln 199
J12. Car at kiln to receive hops 200
113, Harris hop press .201
114, Press with front removed 202
115, Pleasanton hop kiln, front elevation 203
116, Side elevation of kilns 204
117, Detail of hopper . , o 205
118, Arrangement of heating pipes and drums .... 206
119, Pleasanton kilns and coolers 208
120, Ground plan of Pleasanton establishment , .210
121, Cooling house for hops 212
LIST OF ILLUSTRATIONS.
287
Pig.
122.
123.
124.
125.
126.
127.
128.
129.
130.
131.
132.
133.
1.34.
J 35.
136.
137.
Cooler— end elevation ....
Circular kiln. Montgomery Co., N. Y.
Improved kilns and warehouse of iron
A glimpse of Kentish oast houses
Loading bags of hops for the kiln
Interior of hop kiln
P.ohemian hops from imported roots .
Washington hop kilns in King Co., near Auburn
Hop kilns, Pleasanton . . . . .
Bavarian hops grown at Horstville, from imported roots 2.38
Scene in English oast nouse ....
Trainload of hops leaving Horstville, Cal.
Picking .golden clusters . . ...
East Kent Goldings ......
Picked yard at left, unpicked at right
Homemade hop oress
Page.
213
215
216
218
221
223
226
231
236
241
242
244
246
248
255
288 ADVERTISEMENTS.
Louis A. Horst
E. Clemens Horst
HORST BROTHERS,
Growers and Dealers
CHOIOEI
HOPS AND BARLEY.
Hop Ranches at
HuKSTViLLE, Bear River, California.
Ukiah, Russian River, California.
Salem, Willamette River, Oregon.
EoLA, Willamette River, Oregon.
Agassiz, Fraser River, British Columbia.
Main Offices : ^S^.'^
24 Southwark St., S. E., London, England. Horsum.
122 Battery St., San Francisco, California. IIokst.
212 Commercial St., Salem, Oregon. "
20 State St., New York, N. Y.
172 Washington St., Chicago, 111. «
Codes Used:
"A. B. C."
"A. I."
" MEYERS."
"ATLANTIC."
INDEX
Acrea-e in United States
world's, 1S90-'S7 .
Australia, hop area in
Austria-Hun.^ary, culture
Bales, marking-
shaping- .
sacking for .
weig-ht of
Baling, methods of .
Beer, influence of hops on
production, 1S65-1S90
relative consumption
Belgium, foreign trade of
Bibliography
Bine, clinibing tendril of
Brewers, views of .
British Columbia, cost of g-
Brush for kiln .
California, cost of growing:
first hops in ...
methods ....
soil conditions in
Chemistry of hops (Ewell)
Clark, James F.
methods of .
Climate, best for hops .
Coolers, construction of
Cooling, time required .
Co-operation of growers
Crops and prices, lS74-'97
Crops of the world, lS9(J-'97
Crops used with hops .
Cultiv^ation second year
Cultivator, use of .
Curing, deep "floor"
fuel for ....
German method
"nattiral cure" .
object of . . .
temperature for
time required
Diseases, eel worm .
fungus ....
hop-mold
mildew ....
England, average yearly e
crops compared
expense of culture in
foreign trade of, 188S-'96
hop area in .
v^ariety of soils .
Ensilage, hop vine
Estimates by growers
19
rowmg
hop", i.
xpenses
hops in
Page.
265
265
4
3
206
205
203
206
232, 204
54
267
267
267
284
48
49
258
199
256
8
98
63
54
8
99
61
212
199
234
264
264
94
94
101
194
191
75, 199
175
195
207
195
147
148
148
155
250
266
249
266
4
64
21
251
289
HANS C. WAHLBERG
Cable Address, " Wahlberg." Portland, Oregon, U. S. A.
DEALER IN
(290)
Trade
HANS C. WAHLBERG
REFERENCES: — Any bank and respectable businessman in
Portland, Ore., and a long list of well-known representative Hop
dealers in the Eastern States, Canada and abroad, who have been my
customers for years.
Samples forwarded and quotations given on application. Cor-
respondence respectfully solicited. My private Cable Code mailed
to any prospective customer who may want it.
CODES USED:— My private code, A. B. C. (4th Edition), J.
K. Armsby's, U. S. Cipher Code.
Branch offices and sub-agents in every Hop section of Oregon
and Washington.
I have a big Hop farm of my own wherefrom I harvest about
500 bales of'Hops of choice quality every year.
HANS C. WAHLBERG,
PORTLAND, OREGON, U. S. A.
(201)
292 ADVERTISEMENTS.
LILIENTHAL
BROTHERS,
Hop Merchants^
102 Broad St., Neu) York, 0. S. fl.
24 SoUfhuiark St., S. E., London, Eng.
LILIENTHAL & CO.,
Hop Merchants,
AND SHIPPERS
Pacific Coast Hops.
MAIN OFFICE:
too Front St., San Francisco, CaL, U. S* A,.
Representativ es in all CALIFORNIA, OREGON
and WASHINGTON HOP CENTERS.
INDEX. 293
Page.
Expenses and profits, in British Columbia 258
in California ... 250
in England 250
in Germany, 249
in King Co., Wash 258
in Madison Co., N. Y 252
in northern Ohio 254
in Otsego Co. , N. Y 251,253
in Polk Co., Ore 257
in St. Lawrence Co., N. Y 254
in Washington Co., Ore 256
in Yamhill Co., Ore 257
Export demand, influence on prices 232
value by months, lSS'9-'98 263
Exports from New York city 233
from New York, lS90-'97 261
of domestic hops, 1889-'98 263
Fertilizers 69
commerciul 73, 76
English 77
form.iilas 76
lime 74
nitrogen 75
phosphoric acid 73
potash 73
stable manure 72
substances required 71, 74
Fertilizing constituents • 59
Fish-oil soap 124
Flint, Daniel 8
France, industry in 3
German hop growers' association 268
Germany, curing in 175
expense of culture in 249
foreign trade of, 18S3-"96 266
plantations in 2
soil. 65
Grades, mixed 228
recognized in markets ......... 219
Grading, a "choice" hop 224
color test in ......... . 223
disagreement in . . 222
Hop dictionary 269-281
exchange 234
extract 239
Hops, botanical analyses of 30
composition of 51, 52, 54, 59
from seed 89
per barrel of beer 264
properly cured 1^6
quality in . 38, 45, 220
quotations in foreign currency 268
re-sulphured 217
seedless .... 231
"slack-dried" 197, 230
smudged . 19'>
uses of aside from beer 19
weight of bale 264
yield per acre 249
Horst Brothers, contracts 243
experiments by ... . 245
tireproof kilns 247
hydraulic compress 247
irrigation 245
methods of 243
294:
ADVERTTSEMElsTS.
I THE SPRAMOTOR PATENTED
SPRAYING, PAINTING
AND WHITEWASHING MACHINE
Sii
Hi
iMiE^ «sr»i«.A.ivioaroi«
v\
m
Has been awarded Jn
over 1 00 gold medals S
and FIRST AWARDS S
and was placed %
FIRST at the Govern- S
ment Spraying Con. ?!
test, as a F r u i t S
of w
wi
iff*
m
Spraying Appara
tus. A contest
this character,
under judges ap-
pointed by a British S
„ Government, being IS
ijt, both practical and thorough, has done very i^
m much in the interests of the users of Spraying m
^ Appliances, by preventing them buying poor, *?!>
Si! cheap and hard working apparatus, which has 'n
^ done more to discourage the practice of spray- ^>
iH ing than all other causes combined. m
SPRAMOTOR CO.,
m
m
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Hop News Every Week
Tlie most Complete Summary of the world-wide Situation
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Sffifisfics of the Ct'oj) 3loreinent,
Kstiniates of Acreage and Yield;
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INDEX. 297
Page.
Horstville ranch, freedom from vermin 245
Industry, artificial conditions affecting 15
natural conditions affecting ....... 13
Insects, affecting' hops '. . . . 113
caterpillars 130, 136
cynipidae 122
flea-beetles 139
hop grub 128
hop merchants 131
hop plant louse 115
hop-vine snout moth 130
lace-winged flies 121
lady-bird beetles 121, 146
leaf hoppers 137
needle-nosed hop-bug 143
red spider 139
saddle-back caterpillar 135
syrphus flies 121
woolly bear caterpillar 134
zebra caterpillar ... 133
Irrigation 69
Kent, introduction into 1
Kerosene emulsion 124
Kiln, cohstruction of . . . 178, 187, 194, 195, 203, 204, 205, 206
cowl for 181
Kilns, drying stove for 188
fireproof 247
in N. Y. state 179
on Pacific coast 185
Liupulin 51, 58
composition of 52
extracting the - . 239
Machine, hop-picking 173
Markers 80
Maturity, dates of 44
Mold washes 154
New York, rules regulating hop trade in 282
New York state, cost of hops in 251
condition of soil 64
first yard in 4
growth of industry in 6
largest yard 8
Oast houses, English 177
Oregon, cost of growing hops in 256
hop lands in 64
hidustry in 9
Packing, foreign method of 199
Pickers' checks 166, 167
handling 171
prices paid 163, 168
rules for 165
Picking, care in 163
methods 172
preliminary work 159
time of 161
Plant, "dressing" of 95
food removed from soil .' . . 71
fenfiale 25
food removed by 71
growth of 69
male 25
sex in 23
Planting, best time for 93
methods of 91
298 IKDEX.
Page.
Pleasanton Hop Company, clearing 105
clearing wires Ill
covering 106
cross-plowing 106
cultivation ... 106
grubbing ' 105
hilling up Ill
kilns 185
plowing 105
pruning 105
resetting 106
setting out yard 112
stringing 109
training 109
trellis 106
tuckering Ill
Plows, use of . . 101
Poles, after harvest 173
number to hill 81, 82
setting 83
Press 183
homemade 255
Prices, at New York 263
average monthly at New York. 1874-'96 261
fluctuations at New York, 1874-"98 262
fluctuations of 18
uncertainty of 233
Properties, bittering principles 56
narcotics 52
resin 58
tannic acid 56
Quality, descriptive terms 220
means of testing 219
Receipts at New York, 1890-'97 261
Resin wash 124
Root, for transplanting 90
Roots 25
Russia, hop area in 4
Sample, perfect 227
selling by 228
Sampling 225
Scorching, by sun 157
Seeds, in Germany 52
Selling, best time for 232
Shed 158
Shovel for kiln 198
Soil, best for hops 62
preparatory working of . . . 68
subsoiling 67
under draining 67
well drained . . . , 67
Specvilating in hops 233
Spraying, after frost 155
for caterpillars 130
for hop louse 122
formula .... 124, 126, 130, 142
in Oregon 142
in Washington , 141
outfit 126
Storage, cold 237
Store room 237
Storing, loss of properties in 239
protection from atmosphere 237
Strobile 29
Sulphur, for hop mold 153
INDEX.
299
Sulphuring, methods of
reasons for .
Taxation of hops and beer
Terms used in hop trade
Tobacco, for hop yards
Tools, grub liooks
Training
Tryer
Twining
Tying vines
United States, acreage and
census of crop, 1S50-'90
crops compared .
foreign trade, 1890-'96
ranlv of hop sections in
Varieties, Canada Red .
European ...
in California
in England ...
in New York
in Oregon
Vines, climbing nature of
disposing of old
motion of . . .
Washington, cost of growing
culture in .
methods of culture in
Wind, effect on plants .
Wind lews ....
Wiring in England .
Wisconsin, culture in .
World's acreage
acreage. 1890-'?7 .
hop crops, 1890-'97
protection and consumption
supply ....
Yard, distance of plants
hills per acre
laying out .
location of . . .
values
ops
1884-'92
Page.
213
214
16
269-281
144
95
83
229
83
102
265
265
266
266
265
41
44
42
38
40
43
28
173
27
258
9
97
157
157
85
8
2
265
264
267
11
79
79
80
65
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