How to Cast the Fly
To be able to cast the artificial fly a distance of 50 ft., or more, and
let the feathered lure alight upon the desired bit of water as lightly as
a falling leaf is no small accomplishment, for fly casting is an art, and
to become an expert, much practice is necessary. The personal assistance
of a skillful caster is not often available, but if the angler will follow
the suggestions outlined, a beginner will soon grasp the knack of handling
the fly rod, and the casting will steadily improve with practice. As the
knack of handling a gun is best gained--not in the field, shooting live
game, but through shooting at targets--so may the art of fly casting be
more quickly acquired by intelligent practice conducted away from the
stream, in the back yard, or any other place roomy enough to swing the
rod and a moderately long line. By practicing in this way, the angler's
attention is focused upon the cast and is not partly occupied with the
excitement of fishing. To make a good beginning, let the reel contain
about 25 yd. of common, braided, linen line (size E is about right) and
instead of a fly, or hook, affix a small split shot to the end of the
line. It is well to begin with a cheap rod and save a good outfit, and
if the angler learns how to make a fairly long and accurate cast with
a common rod, he may feel assured that he can even do better with a
first-rate outfit.
[Illustration: Fig. 1--The Proper Way to Take Hold of the Handle with the
Reel on the Under Side]
The first point to observe in making the cast is to grip the rod
correctly, and this is done by grasping the rod at the right point where
it balances best. By shifting the hand about this point of balance is
quickly found, for at no other point will the rod "hang" well in the hand.
In casting, the reel is turned to the under side of the rod with the thumb
extended along the top of the grip, as shown in Fig. 1. Taking up an easy
casting position, with the left foot slightly advanced, pull from the reel
about 25 yd. of line and let this slack line fall in coils upon the ground
in front; bring the rod up slightly above the horizontal, as shown in Fig.
2, and with a quick snap of the wrist, avoiding shoulder or body movement,
throw the tip upward, checking it sharply as soon as the tip is carried
over the shoulder about 25° beyond the vertical plane as in Fig. 3. This
snappy upstroke of the rod makes the "back cast," by projecting the line
high in the air, and carries it well behind the angler. Before the line
has fully straightened out behind, and before it has an opportunity to
fall much below the caster's shoulders, the rod is snapped forward with a
quick wrist-and-forearm movement, which throws the line forward in front
of the fisherman and in the direction he is facing, which finishes the
cast with the rod in the position shown in Fig. 4.
[Illustration: Fig. 2--Begin the Cast with the Rod in a Position Just
above the Horizontal Plane]
Long and accurate fly casting is much more a matter of skill than muscle,
and while some fly fishermen cast directly from the shoulder and upper
arm, and thus use a considerable amount of muscular force in making the
cast, this cannot be regarded as the best method of casting. The great
elasticity of the fly rod ought to be taken full advantage of by the
caster, and if this is done, casting will be naturally accomplished by
the wrist and forearm. To make strenuous efforts to hurl the fly through
the air, using an arm or body movement, is extremely tiring after an hour
or so of fishing, while if the cast is made from the wrist, aided by the
forearm, the snap of the rod may be depended upon to project the fly to
greater length of line and allow it to fall close to the desired spot,
lightly and without splashing.
Timing the back cast is the most difficult detail of fly casting, because
the line is behind the angler and the eye cannot aid the hand. The novice
will soon acquire the knack of casting, however, if he will remember to
keep the elbow close to the side, and to keep the line well up in the
air when making the back cast, and to begin the forward movement before
the line has fully straightened out behind him. After a little practice,
the hand will feel the slight tension communicated to the rod as the
line begins to straighten out, and this should be taken advantage of to
correctly time the forward movement. Counting "one" for the upstroke, "two
and" for the interval required for the line to straighten out in the rear,
and "three" for the forward movement, is also a good way to time the cast.
At the beginning the caster should make no attempt to secure distance.
Accuracy and delicacy in placing the fly on the water is of much more
importance than length of cast in trout fishing, and to attain this end,
it is a good plan to place a newspaper about 25 ft. distant and try to
drop the end of the line on this mark. When the caster can drop the line
on the target lightly and with reasonable accuracy, he may feel justified
in lengthening his cast. Other casts than the overhead cast just described
are occasionally used, as the Spey, switch, wind, and flip casts, but
the overhead cast is mostly used, although it is much more difficult to
master.
To make the Spey cast, the angler requires a rapid stream which will
carry the line downstream until it is straight and taut, the tip of the
rod being held as long as possible to accomplish this end. The rod is
then raised high in the air with a quick wrist movement, which lifts
the line from the water to the extreme end, then without pausing the rod
is carried upstream with just sufficient force to let the fly fall just
above the angler. The line is now on the reverse, or upper, side of the
fisherman, when with a sweep of the rod the line is projected over the
water's surface--not along the surface--in the manner used in making the
overhead cast.
[Illustration: Fig. 3--The Rod is Quickly Checked When It is Carried over
the Shoulder About 25 Degrees]
The switch cast is sometimes useful when trees or rocks are immediately
back of the fisherman, thus preventing the line from extending far enough
backward to make the overhead cast. In making this cast the line is
not lifted from the water, but merely to the surface by raising the tip
of the rod. The line is dragged through the water by carrying the tip
in the direction one is standing until it is as far in the rear as the
obstructions will permit. By a quick downward sweep of the rod the line
is projected with sufficient force to roll it forward in a large coil or
loop, much as a wheel rolls on a track.
The wind cast is a modification of the switch cast, but easier to make.
The caster brings his line almost to his feet, and with a quick downward
motion of the rod the line is thrown in a long loop against the wind.
The underhand and the flip casts are so simple that it seems almost
unnecessary to describe them. Both are short casts and are only used when
the angler is fishing in an overgrown stream. The underhand cast is really
a side cast, inasmuch as the short line is lifted from the water in a loop
and propelled in the desired direction by a side sweep of the rod. The
flip cast is made by holding the fly between the thumb and finger and with
a few coils of line in the right hand. Bend the rod like a bow, release
the fly suddenly, and the snap of the rod will project it in the desired
direction and allow it to drop lightly like a fly.
Handling the Flies in the Water
As a general thing the veteran fly fisherman prefers to wade with the
current and fishes the water in front of him by making diagonal casts
across the stream. A good fisherman will systematically cover every inch
of good water and little will be left to chance. The novice is inclined to
fish his flies in a contrary manner, he casts more or less at random, and
is as likely to splash the flies recklessly about in the most impossible
places as he is to drop them in a favorable riffle or pool. To be able
to pick out fishable water, the angler should know something about the
habits of the trout, their characteristics at the several seasons of the
fishing year, and their habits, which differ greatly in different streams.
A fishing knowledge of the stream to be visited is of much value, but
if the angler knows how to make a fair cast and possesses average skill
in handling flies on water, there should be no question but that he will
creel a fair number of trout even though he casts in strange waters.
[Illustration: Fig. 4--The Cast is Finished by Throwing the Line Forward
with a Quick Wrist-and-Forearm Movement]
To imitate the action of the natural insect is the most successful manner
of fishing the flies, and as the natural fly will struggle more or less
when borne down with the current, the fisherman endeavors to duplicate
this movement by making his artificial fly wriggle about. This motion
must not be overdone, for if the flies are twitched and skipped about, or
pulled against the current, the wary trout will refuse to fall for any
such obvious deceit. A gentle motion of the wrist will cause the fly to
move somewhat as the natural insect will struggle.
In making the cast do not cast directly down or upstream, but across
the current at an angle. Let the flies fall upon the water as lightly as
possible, so that the water will carry them downstream over the likely
places where the trout are hiding. Keep the line as taut as possible by
drawing the slack in with the left hand. The flies should not be allowed
to soak in the water, neither should they be retrieved in haste. The
experienced fly caster will invariably fish with a wet line, that is to
say, with a slightly submerged fly, and will let the flies drag over as
much water as possible before making a second cast. Owing to the fact
that trout lie with their noses pointing upstream awaiting their food
carried down by the current, the caster will naturally take pains to float
his flies downstream with the leader fairly taut. To neglect this detail
and allow the leader to float in a wide loop near or before the flies
is slovenly fishing, and few trout will strike a fly presented in this
amateurish fashion.
Early in the fishing season, and when the stream is flooded and discolored
after a heavy rain, it is a good plan to fish the flies below the surface.
Fishing in this manner makes it more difficult to tell when to strike a
fish, and some little practice is needed to determine the opportune moment
by feeling the slight tension on the line. Many fish will be pricked to
be sure, but some trout will be creeled, and fishing with the submerged
fly is sometimes the only way trout can be taken.
On fair days and in smooth water, better luck may be expected when the fly
is kept upon the surface, and this is easily managed by keeping the tip
of the rod well in the air. Often the fisherman can take advantage of a
bit of floating foam, and if the fly is cast upon it and allowed to float
with it downstream, the ruse will often prove effective.
The trout is a hard striker and it is not unusual to have a trout rush
ahead of the fly in his attempt to mouth it. In rapid water the savage
rush of the fish is sufficient to hook it securely, but when casting in
quiet pools, the hook is imbedded by a snap of the wrist. At what exact
moment to strike, as well as the amount of force to use, depends upon
circumstances. When fishing in small streams and brooks where the trout
run small, much less force is necessary to hook the fish, but in quiet
water and in larger streams where 2 or 3-lb. trout are not uncommon, the
fish may be struck with a smart upward jerk of the forearm and wrist.
So far as my experience goes, the matter of striking is governed by the
temperament as well as the judgment of the angler. The deliberate thinking
man is likely to strike too late, while the nervous individual, striking
too early, is apt to prick the trout and roll him over.
The best time to fish for trout is when they are feeding on the surface;
and in the early days of spring, when there are few flies about, the
warmer part of the day, say, from 10 in the morning to 5 in the afternoon,
will prove to be the most successful time. Later on, when flies are
numerous, good luck may be expected at an early hour in the morning,
and in the hot summer months the cooler hours of the day may be chosen.
Of course, there are many exceptions, since there are many cool days in
summer, as well as exceptionally warm days in spring, and these changes
of weather should be considered. However, extremes are not likely to make
good fishing, and the trout will not rise as freely on cold, windy days,
nor will they fight as gamely. On hot days, too, not so much luck can be
expected during the hours of the greatest heat--12 to 4--but a good basket
of trout may be creeled early in the morning or late in the afternoon of
summer. A bright, clear day is usually the best for fly fishing, because
the sun brings out more flies, but a warm rain, or even a fog, is also
considered good fishing weather.
Among the live baits available for trout fishing are the minnow, white
grub, cricket, grasshopper, and other insects, and last, but by no means
least, the common angle or earthworm. The minnow is beyond a doubt the
most enticing morsel that can be offered to a hungry trout, and a minnow
may be reckoned to secure a rise when other baits fail. The inconvenience
of transporting this bait is a great drawback, and as minnows are delicate
fish, a minnow bucket is necessary for their preservation. This means a
lot of trouble, as the water must be frequently changed or aerated, and
this labor, together with the difficulty of carrying a bulky pail through
the brush, makes this desirable bait almost impossible for stream and
brook fishing. The salt-water minnow, known as a "shiner" or "mummychug,"
is a topnotch trout bait, and being much tougher than the fresh-water
minnow, makes a bait often used by anglers residing near the seacoast.
The white grub, or larvae of the so-called May beetle, is a good bait
available for early-season fishing, and may be obtained in the early
spring months by spading up grass land. The grub is about 1 in. long, and
of a creamy yellow color with a darker head. It may be kept a month, or
more, by putting it in a box with a number of pieces of fresh turf.
Crickets, grasshoppers, and many other insects, make good baits, while
the earthworm is a good all-around bait for trout. A supply dug some days
before and kept by packing in fresh moss and slightly moistening with milk
and water will prove more attractive in appearance and the worms will be
tougher and cleaner to handle than when carried in earth.
Other good baits include the fin of a trout, and if this is used in
combination with the eye of the same fish, it forms an attractive lure. In
using this bait, do not puncture the eyeball, but hook through the thin
flexible skin surrounding the eye. A fat piece of salt pork, cut into
pieces 1 in. long and 1/4 in. wide, makes a fairly good bait. Spoons and
other spinning baits are presumably attractive, but few sportsmen use them
when angling for so fine a fish as trout.
[Illustration:]
Houses Made of Poles By Lola A. Pinchon
[In this article descriptions are given of several shelters
suitable for a resort, but the reader may select any one of
them that answers his needs and build a camp house, or fit up
a more substantial one to make living quarters for the whole
year.--Editor.]
[Illustration: Houses Made of Poles]
Being forced to take the open-air treatment to regain health, a person
adopted the plan of building a pole house in the woods, and the scheme was
so successful that it was decided to make a resort grounds, to attract
crowds during holidays, by which an income could be realized for living
expenses. All the pavilions, stands, furniture, and amusement devices
were constructed of straight poles cut from young growth of timber with
the bark remaining on them. Outside of boards for flooring and roofing
material, the entire construction of the buildings and fences consisted
of poles.
[Illustration: The Frame Construction of the House Made Entirely of Rough
Poles, the Verticals being Set in the Ground, Plumbed, and Sighted to Make
a Perfect Rectangle of the Desired Proportions]
A level spot was selected and a house built having three rooms. The
location was in a grove of young timbers, most of it being straight, and
13 trees were easily found that would make posts 12 ft. long, required
for the sides, and two poles 16 ft. long, for the center of the ends, so
that they would reach to the ridge. The plot was laid out rectangular and
marked for the poles, which were set in the ground for a depth of 4 ft.,
at distances of 6 ft. apart. This made the house 8 ft. high at the eaves
with a square pitch roof; that is, the ridge was 3 ft. high in the center
from the plate surfaces for this width of a house. The rule for finding
this height is to take one-quarter of the width of the house for the
height in the center from the plate.
[Illustration: The Steps are Supported on Pairs of Vertical Poles Set in
the Ground to Make Different Levels]
The corner poles were carefully located to make the size 12 by 24 ft.,
with a lean-to 8 by 12 ft., and then plumbed to get them straight
vertically. The plates for the sides, consisting of five poles, were
selected as straight as possible and their ends and centers hewn down to
about one-half their thickness, as shown at A and B, and nailed to the
tops of the vertical poles, the connection for center poles being as shown
at C.
The next step was to secure the vertical poles with crosspieces between
them which were used later for supporting the siding. These poles were
cut about 6 ft. long, their ends being cut concave to fit the curve of the
upright poles, as shown at D. These were spaced evenly, about 2 ft. apart
from center to center, on the sides and ends, as shown in the sketch,
and toenailed in place. The doors and window openings were cut in the
horizontal poles wherever wanted, and casements set in and nailed. The
first row of horizontal poles was placed close to the ground and used both
as support for the lower ends of the siding and to nail the ends of the
flooring boards to, which were fastened in the center to poles laid on
stones, or, better still, placed on top of short blocks, 5 ft. long, set
in the ground. These poles for the floor should be placed not over 2 ft.
apart to make the flooring solid.
[Illustration: Gate Openings were Made in the Fence Where Necessary, and
Gates of Poles Hung in the Ordinary Manner]
A lean-to was built by setting three poles at a distance of 8 ft. from
one side, beginning at the center and extending to the end of the main
building. These poles were about 6 ft. long above the ground. The rafter
poles for this part were about 9-1/2 ft. long, notched at both ends for
the plates, the ends of the house rafters being sawed off even with the
outside of the plate along this edge. The rafter poles for the house were
10 in all, 8 ft. long, and were laid off and cut to fit a ridge made of a
board. These poles were notched about 15 in. from their lower ends to fit
over the rounding edge of the plate pole, and were then placed directly
over each vertical wall pole. They were nailed both to the plate and to
the ridge, also further strengthened by a brace made of a piece of board
or a small pole, placed under the ridge and nailed to both rafters. On
top of the rafters boards were placed horizontally, spaced about 1 ft.
apart, but this is optional with the builder, as other roofing material
can be used. In this instance metal roofing was used, and it only required
fastening at intervals, and to prevent rusting out, it was well painted on
the under side before laying it and coated on the outside when fastened
in place. If a more substantial shelter is wanted, it is best to lay the
roof solid with boards, then cover it with the regular prepared roofing
material.
Some large trees were selected and felled, then cut into 4-ft. lengths
and the bark removed, or if desired, the bark removed in 4-ft. lengths,
and nailed on the outside of the poles, beginning at the bottom in the
same manner as laying shingles, to form the siding of the house. If a more
substantial house is wanted, boards can be nailed on the poles, then the
bark fastened to the boards; also, the interior can be finished in wall
board.
The same general construction is used for the porch, with horizontal
poles latticed, as shown, to form the railing. It is very easy to make
ornamental parts, such as shown, on the eave of the porch, by splitting
sticks and nailing them on closely together to make a frieze. Floors are
laid on the porch and in the house, and doors hung and window sash fitted
in the same manner as in an ordinary house.
[Illustration: All Furniture, Together with the Large Lawn Swings, Took
on the General Appearance of the Woodland, and As the Pieces were Made Up
of the Same Material As the Houses, the Cost Was Only the Labor and a Few
Nails]
A band stand was constructed on sloping ground, and after setting the
poles, the floor horizontals were placed about 2 ft. above the ground,
on the upper side, and 4 ft. on the lower side. The poles used were about
18 ft. long. Instead of having the horizontals 2 ft. apart, the first was
placed 1 ft. above the floor, the next at about one-half the distance
from the lower one to the plate at the top, and the space between was
ornamented with cross poles, as shown. A balcony or bay was constructed
at one end, and a fancy roof was made of poles whose ends rested on a
curved pole attached to the vertical pieces. Steps were formed of several
straight poles, hewn down on their ends to make a level place to rest on
horizontal pieces attached to stakes at the ends. A pair of stakes were
used at each end of a step, and these were fastened to a slanting piece at
the top, their lower ends being set into the ground. The manner of bracing
and crossing with horizontals makes a rigid form of construction, and if
choice poles are selected for the step pieces, they will be comparatively
level and of sufficient strength to hold up all the load put on them.
The roof of this building was made for a sun shade only and consisted of
boards nailed closely together on the rafters.
[Illustration: The Entrance to the Grounds was Given an Inviting
Appearance with Large Posts and Swinging Gates]
An ice-cream parlor was built on the same plan, but without any board
floor; the ground, being level, was used instead. There were five vertical
poles used for each end with a space left between the two poles at the
center, on both sides, for an entrance. This building was covered with
prepared roofing, so that the things kept for sale could be protected in
case of a shower.
A peanut stand was also built without a floor, and to make it with nine
sides, nine poles were set in the ground to form a perfect nonagon and
joined at their tops with latticed horizontals. Then a rafter was run
from the top of each post to the center, and boards were fitted on each
pair of rafters over the V-shaped openings. The boards were then covered
with prepared roofing. A railing was formed of horizontals set in notches,
cut in the posts, and then ornamented in the same manner as for the other
buildings.
Fences were constructed about the grounds, made of pole posts with
horizontals on top, hewn down and fitted as the plates for the house; and
the lower pieces were set in the same as for making the house railing.
Gates were made of two vertical pieces, the height of the posts, and two
horizontals, then braced with a piece running from the lower corner at
the hinge side to the upper opposite corner, the other cross brace being
joined to the sides of the former, whereupon two short horizontals were
fitted in the center. A blacksmith formed some hinges of rods and strap
iron, as shown, and these were fastened in holes bored in the post and
the gate vertical. A latch was made by boring a hole through the gate
vertical and into the end of the short piece. Then a slot was cut in the
side to receive a pin inserted in a shaft made to fit the horizontal hole.
A keeper was made in the post by boring a hole to receive the end of the
latch.
Large posts were constructed at the entrance to the grounds, and on
these double swing gates, made up in the same manner as the small one,
were attached. These large posts were built up of four slender poles and
were considerably higher than the fence poles. The poles were set in a
perfect square, having sides about 18 in. long, and a square top put on
by mitering the corners, whereupon four small rafters were fitted on top.
The gates were swung on hinges made like those for the small gate.
Among the best and most enjoyed amusement devices on the grounds were the
swings. Several of these were built, with and without tables. Four poles,
about 20 ft. long, were set in the ground at an angle, and each pair of
side poles was joined with two horizontals, about 12 ft. long, spreaders
being fastened between the two horizontals to keep the tops of the poles
evenly spaced. The distance apart of the poles will depend on the size of
the swing and the number of persons to be seated. Each pair of side poles
are further strengthened with crossed poles, as shown. If no table is to
be used in the swing, the poles may be set closer together, so that the
top horizontals will be about 8 ft. long. The platform for the swinging
part consists of two poles, 12 ft. long, which are swung on six vertical
poles, about 14 ft. long. These poles are attached to the top horizontals
with long bolts, or rods, running through both, the bottom being attached
in the same manner. Poles are nailed across the platform horizontals at
the bottom for a floor, and a table with seats at the ends is formed of
poles. The construction is obvious.
A short space between two trees can be made into a seat by fastening two
horizontals, one on each tree, with the ends supported by braces. Poles
are nailed on the upper surface for a seat.
Other furniture for the house and grounds was made of poles in the manner
illustrated. Tables were built for picnickers by setting four or six
poles in the ground and making a top of poles or boards. Horizontals were
placed across the legs with extending ends, on which seats were made for
the tables. Chairs and settees were built in the same manner, poles being
used for the entire construction.
An Electric Water Heater
Procure the barrel and cap from a hand bicycle pump and prepare them as
follows: Make a tube of paper, about double the thickness of a postal
card, to fit snugly in the pump barrel and oil it slightly before slipping
it into place. Procure some resistance wire of the proper length and
size to heat quickly. The wire can be tested out by coiling it on some
nonconducting material, such as an earthen jug or glazed tile, and
connecting one end to the current supply and running the other wire of
the supply over the coil until it heats properly. Cut the resistance at
this point and temporarily coil it to fit into the bottom of the pump
barrel, allowing one end to extend up through the space in the center with
sufficient length to make a connection to supply wires.
Mix some dental plaster to the consistency of thick cream and, while
keeping the wire in the center of the pump barrel, pour in the mixture
until it is filled to within 1-1/2 in. of the top. Allow the plaster to
set for about a day, then remove it from the barrel and take off the paper
roll. The coil of wire at the bottom is now straightened out and wound in
a coil over the outside of the plaster core, allowing sufficient end for
connecting to the supply wires.
[Illustration: An Electric Heating Coil Made of Resistance Wire Placed in
a Bicycle-Pump Barrel for Boiling Water]
Cut two or three disks of mica to fit snugly in the bottom of the pump
barrel, also cut a mica sheet to make a covering tube over the coil on the
plaster core and insert the whole into the barrel. The two terminals are
connected to the ends of a flexible cord which has a plug attached to the
opposite end. Be sure to insulate the ends of the wire where they connect
to the flexible cord inside of the pump barrel under the cap. In winding
the resistance wire on the core, be sure that one turn does not touch the
other. The heater when connected to a current supply and placed in 1 qt.
of water will bring it to a boil quickly.--Contributed by A. H. Waychoff,
Lyons, Colo
[Illustration]
Camps By F. S. Charles
A good site, pure water in abundance, and a convenient fuel supply, are
the features of a temporary camp that should be given first consideration
when starting out to enjoy a vacation in the woods. The site should
be high and dry, level enough for the tent and camp fire, and with
surrounding ground sloping enough to insure proper drainage. A sufficient
fuel supply is an important factor, and a spot should be chosen where
great effort is not required to collect it and get it into proper shape
for the fire.
[Illustration: Wall Tent]
[Illustration: Lean-To of Boughs]
[Illustration: Log Cabin]
When locating near streams of water be careful to select a spot above high
water mark so the ground will not be overflowed by a sudden rise of the
stream. Do not select the site of an old camp, as the surroundings are
usually stripped of all fuel, and the grounds are unclean.
Division of Work
Clear the selected spot and lay out the lines for the tent, camp fire,
etc. If the camping party consists of more than two persons, each
one should do the part allotted to him, and the work will be speedily
accomplished. Remember that discipline brings efficiency, and do not be
slack about a camp just because it is pleasure. One of the party should
attend to the camp fire and prepare the meals while another secures the
fuel and water. The tent can be unpacked and the ground cleared by the
other members of the party, and when ready, all should assist in raising
the tent, especially if it is a large one.
Tents
An ordinary A or wedge tent is sufficient for one or two campers. Where
you do not wish to locate permanently, this tent can be set up and taken
down quickly. It should have a ring fastened to the cloth in each peak
through which to pass a rope or line to take the place of a ridge pole.
Such a tent can be pitched between two trees or saplings, and, after tying
the rope to the trees, it can be tightened with a long forked stick,
placed under one end of the rope. If two trees are not conveniently
located, then two poles crossed and tied together will make supports
for one or both ends, the ridge line running over them and staked to the
ground.
[Illustration: Fire between Two Logs]
[Illustration: Fire Built against a Log]
On a chilly night, the A tent is quite advantageous. The stakes can be
pulled on one side and the cloth doubled to make a lean-to, open on the
side away from the wind. A fire can be built in front and the deflected
heat on the sleeper will keep him comfortable and warm.
For larger parties, the wall tent with a fly is recommended. These tents
can be purchased in various sizes. The fly is an extra covering stretched
over the top to make an open air space between the two roofs. It keeps the
interior of the tent delightfully cool in hot summer weather and provides
a better protection from rain. The fly can be made extra long, to extend
over the end of the tent, making a shady retreat which can be used for
lounging or a dining place.
Protection from Insects
Where mosquitoes and other insects are numerous, it is well to make a
second tent of cheesecloth with binding tape along the top to tie it to
the ridge pole of the regular tent. The sides should be made somewhat
longer than the regular tent so that there will be plenty of cloth to
weight it down at the bottom. This second tent should be made without any
opening whatever. The occupant must crawl under the edge to enter. The
cheesecloth tent is used inside of the ordinary tent, and when not in use
it is pushed aside.
[Illustration: Forked Sticks Supporting Cooking Utensils]
Two camps are illustrated showing the construction of a lean-to for a
temporary one-season camp, and a log cabin which makes a permanent place
from year to year. (A more elaborate and more expensive camp was described
in the May issue of this magazine.) The construction of these camps are
very simple. The first is made of poles cut in the woods. A ridge pole is
placed between two trees or held in place with poles of sufficient length,
set in the ground. Poles are placed on this at an angle of about 45 deg.,
forming a lean-to that will be entirely open in front when finished. The
poles are covered, beginning at the bottom, with pine boughs, laid in
layers so as to make a roof that will shed water. A large fire, built a
short distance from the open front will make a warm place to sleep, the
heat being reflected down the same as described for the A tent.
A Permanent Camp
A good permanent camp is a log cabin. This can be constructed of materials
found in the woods. Trees may be felled, cut to length, and notched to
join the ends together at each corner so as to leave little or no space
between the logs. The roof is constructed of long clapboards, split from
blocks of wood. The builder can finish such a camp as elaborately as he
chooses, and for this reason the site should be selected with great care.
Camp Fires
There is no better way to make a camp fire than to have a large log or
two against which to start a fire with small boughs. Larger sticks can be
placed over the logs in such a way as to hold a pot of water or to set
a frying pan. Forked sticks can be laid on the log and weighted on the
lower end with a stone, using the upper end to hang a cooking vessel over
the flames. Two logs placed parallel, with space enough between for the
smaller sticks, make one of the best camp cooking arrangements. Two forked
sticks, one at each end of the logs, may be set in the ground and a pole
placed in the forks lengthwise of the fire. This makes a convenient place
for hanging the cooking utensils with bent wires.
Food Supplies
The conditions in various localities make a difference in the camper's
appetite and in consequence no special list of food can be recommended,
but the amount needed by the average person in a vacation camp for two
weeks, is about as follows:
Bacon 15 lb.
Ham 5 "
Flour 20 "
Corn Meal 5 "
Rice 5 "
Baking Powder 1/2 "
Sugar 5 "
Beans 4 "
Salt 2 "
Lard 3 "
Coffee 3 "
A number of small things must be added to this list, such as pepper, olive
oil, sage, nutmeg and vinegar. If the weight is not to be considered,
canned goods, preserves, jam and marmalade, also vegetables and dried
fruits may be added. Do not forget soap and matches.
Food can be kept cool in a box or a box-like arrangement made of straight
sticks over which burlap is hung and kept wet. This is accomplished by
setting a pan on top of the box and fixing wicks of cloth over the edges.
The wicks will siphon the water out evenly and keep the burlap wet.
A Drinking Tube
When on a walking tour through the woods or country, it might be well
to provide a way to procure water for drinking purposes. Take with you
several feet of small rubber tubing and a few inches of hollow cane of
the size to fit the tube.
In one end insert the cane for a mouthpiece, and allow the other end to
reach into the water. Exhaust the air from the tube and the water will
rush up to your lips.--Contributed by L. Alberta Norrell, Augusta, Ga.
Washing Photographic Prints
The usual way of washing photographic prints is to place them in a shallow
tray in which they will become stuck together in bunches, if they are
not often separated. A French magazine suggests that a deep tank be used
instead, and that each print be attached to a cork by means of a pin
stuck through one corner, the cork thus becoming a float which keeps the
print suspended vertically, and at the same time prevents contact with
its nearest neighbor.
Camp Furnishings By Chelsea Curtis Fraser
When on a camping trip nothing should be carried but the necessities, and
the furnishings should be made up from materials found in the woods. A
good spring bed can be made up in the following manner: Cut two stringers
from small, straight trees, about 4 in. in diameter, and make them about
6 ft. long. All branches are trimmed off smooth and a trench is dug in the
ground for each piece, the trenches being 24 in. apart. Small saplings,
about 1 in. in diameter, and as straight as can be found, are cut and
trimmed of all branches, and nailed across the stringers for the springs.
Knots, bulges, etc., should be turned downward as far as possible. The
ends of each piece are flattened as shown at A, Fig. 1, to give it a good
seat on the stringers.
A larger sapling is cut, flattened, and nailed at the head of the bed
across the stringers, and to it a number of head-stay saplings, B, are
nailed. These head-stay pieces are cut about 12 in. long, sharpened on one
end and driven a little way into the ground, after which they are nailed
to the head crosspiece.
[Illustration: A Camp Bed Made of Saplings with Several Layers of Boughs
for the Mattress (Fig. 1)]
In the absence of an empty mattress tick and pillow cover which can be
filled with straw, boughs of fir may be used. These boughs should not be
larger than a match and crooked stems should be turned down. Begin at the
head of the bed and lay a row of boughs with the stems pointing toward the
foot. Over this row, and half-lapping it, place another row so that the
tops of the boughs lie on the line C and their stems on the line D. This
process is continued until the crosspiece springs are entirely covered,
and then another layer is laid in the same manner on top of these, and
so on, until a depth of 6 or 8 in. is obtained. This will make a good
substitute for a mattress. A pillow can be made by filling a meal bag with
boughs or leaves.
[Illustration: A Table Made of Packing-Box Material and a Wash Basin Stand
of Three Stakes (Fig. 2, Fig. 3)]
A good and serviceable table can be constructed from a few fence boards,
or boards taken from a packing box. The table and chairs are made in one
piece, the construction being clearly shown in Fig. 2. The height of the
ends should be about 29 in., and the seats about 17 in. from the ground.
The other dimensions will be governed by the material at hand and the
number of campers.
A wash-basin support can be made of three stakes, cut from saplings and
driven in the ground, as shown in Fig. 3. The basin is hung by its rim
between the ends of the stakes.
Wherever a suitable tree is handy, a seat can be constructed as shown in
Fig. 4. Bore two 1-in. holes, 8 in. apart, in the trunk, 15 in. above the
ground, and drive two pins, about 12 in. long, cut from a sapling into
them. The extending ends are supported on legs of the same material. The
seat is made of a slab with the rounding side down.
A clothes hanger for the tent ridge pole can be made as shown in Fig.
5. The hanger consists of a piece, 7 in. long, cut from a 2-in. sapling,
nails being driven into its sides for hooks. The upper end is fitted with
a rope which is tied over the ridge pole of the tent.
[Illustration: A Seat Against the Trunk of a Tree, and a Clothes Hanger
for the Tent Ridge Pole (Fig. 4, Fig. 5)]
A Fruit Stemmer
In the berry season the stemmer shown in the sketch is a very handy
article for the kitchen. It is made of spring steel and tempered, the
length being about 2-1/2 in. The end used for removing the stem is ground
from the outside edge after tempering. A ring large enough to admit the
second finger is soldered at a convenient distance from the end on one
leg.--Contributed by H. F. Reams, Nashville, Tennessee.
[Illustration]
A Homemade Fountain Pen
A very serviceable fountain pen can be made from two 38-72 rifle
cartridges and a steel pen. Clean out the cartridges, fit a plug tightly
in the end of one shell, and cut it off smooth with the end of the metal.
Drill a 3/16 in. hole in the center of the wood plug and fit another plug
into this hole with sufficient end projecting to be shaped for the length
of the steel pen to be used. The shank of the pen and the plug must enter
the hole together. One side of the projecting end of the plug should be
shaped to fit the inside surface of the pen and then cut off at a point
a little farther out than the eye in the pen. On the surface that is to
lie against the pen a groove is cut in the plug extending from near the
point to the back end where it is to enter the hole in the first plug.
The under side of the plug is shaped about as shown.
[Illustration: One Cartridge Shell Makes the Fountain Part of the Pen,
and the Other the Cap]
The other cartridge is cut off at such a point that it will fit on the
tapering end of the first one, and is used for a cap. The cartridge being
filled with ink and the plug inserted, the ink will flow down the small
groove in the feeder plug and supply the pen with ink. Care must be taken
that the surface of the smaller plug fits the pen snugly and that the
groove is not cut through to the point end. This will keep the ink from
flooding, and only that which is used for writing will be able to get
through or leak out.--Contributed by Edwin N. Harnish, Ceylon, Canada.
Destroying Caterpillars on Grapevines
The grapes in my back yard were being destroyed by caterpillars which
could be found under all the large leaves. The vine was almost dead when I
began to cut off all the large leaves and those eaten by the caterpillars,
which allowed the sun's rays to reach the grapes. This destroyed all the
caterpillars and the light and heat ripened the grapes.--Contributed by
Wm. Singer, Rahway, N. J.
* * * * *
It will require 1 gal. of ordinary mixed calcimine to
cover 270 sq. ft. of plastered surface, 180 sq. ft.
of brickwork and 225 sq. ft. of average woodwork.
A Camp Provision Box
While on a camping-and canoeing trip recently, I used a device which added
a touch of completeness to our outfit and made camp life really enjoyable.
This useful device is none other than a provision or "grub" box.
[Illustration: The Provision Box Ready for Use in Camp, the Cover Turned
Back on the Brackets and the Legs Extended]
From experience campers know that the first important factor in having
a successful trip is compactness of outfit. When undertaking an outing
of this kind it is most desirable to have as few bundles to carry as
possible, especially if one is going to be on the move part of the time.
This device eliminates an unnecessary amount of bundles, thus making the
trip easier for the campers, and doubly so if they intend canoeing part
of the time; and, apart from its usefulness as a provision container, it
affords a general repository for the small articles which mean so much to
the camper's welfare.
The box proper may be made of any convenient size, so long as it is not
too cumbersome for two people to handle. The dimensions given are for a
box I used on a canoe trip of several hundred miles; and from experience
I know it to be of a suitable size for canoeists. If the camper is going
to have a fixed camp and have his luggage hauled, a larger box is much to
be preferred. A glance at the figures will show the general proportions
of the box. It may be possible, in some cases, to secure a strong packing
box near the required dimensions, thus doing away with the trouble of
constructing it. The distinguishing features of this box are the hinged
cover, the folding legs, and the folding brackets. The brackets, upon
which the top rests when open, fold in against the back of the box when
not in use. The same may be said of the legs. They fold up alongside the
box and are held there by spring-brass clips.
[Illustration: The Brackets for the Cover as Well as Each of the Four Legs
Fold Against the Sides of the Box in Such a Manner as to be Out of the
Way, Making the Box Easy to Carry and Store Away in a Small Space]
On our trips we carry an alcohol stove on which we do all of our cooking.
The inner side of the top is covered with a sheet of asbestos, this side
being uppermost when the hinged top is opened and resting on the folding
brackets. The stove rested on this asbestos, thus making everything safe.
The cover is large enough to do all the cooking on, and the box is so high
that the cooking can be attended to without stooping over, which is much
more pleasant than squatting before a camp fire getting the eyes full of
smoke. The legs are hinged to the box in such a manner that all of the
weight of the box rests on the legs rather than on the hinges, and are
kept from spreading apart by wire turnbuckles. These, being just bolts
and wire, may be tucked inside the box when on the move. The top is fitted
with unexposed hinges and with a lock to make it a safe place for storing
valuables.
[Illustration: Detail of the Turnbuckle, Button to Hold the Brackets, and
the Spring Clip for Holding the Legs on the Side of the Box]
In constructing the cover it is well to make it so that it covers the
joints of the sides, thus making the box waterproof from the top, if rain
should fall on it. A partition can be made in one end to hold odds and
ends. A tray could be installed, like the tray in a trunk, to hold knives,
forks, spoons, etc., while the perishable supplies are kept underneath
the tray. Give the box two coats of lead paint, and shellac the inside.
The wire braces for the legs are made as follows. Procure four machine
bolts, about 1/4 in. in diameter and 2 in. long--any thread will do--with
wing nuts and washers to fit. Saw or file off the heads and drill a small
hole in one end of each bolt, large enough to receive a No. 16 galvanized
iron wire. Two inches from the bottom of each leg drill a hole to take
the bolt loosely. Determine the exact distance between the outside edges
of the legs when the box is resting on them. Make the wire braces 1 in.
longer than this distance so that the bolts will protrude through the
holes in the legs and allow for putting on the nuts and washers. Screwing
up on the nuts draws the wire taut, thus holding the legs firm.
The size of the top determines the dimensions of the folding brackets
which support it when open. These brackets may be solid blocks of wood,
but a lighter and more serviceable bracket is constructed as follows. If
the top is 20 in. wide and 30 in. long, make the brackets 10 by 13 in.
Constructing the brackets so that their combined length is 4 in. shorter
than the total length of the box, facilitates their folding against
the back of the box when not in use. This point is clearly shown in the
drawing. Our brackets were made of 1/2-in. oak, 1-1/2 in. wide, and the
joints halved together. They are hinged to the back of the box as shown;
and when folded are held in place by a simple catch. The weight of the lid
is sufficient to hold the brackets in place when open, but to make sure
they will not creep when in use insert a 1/4-in. dowel in the end of each
so that it protrudes 1/4 in. Drill two holes in the top to the depth of
1/4 in., so that when the top rests on the brackets, these holes engage
with the dowels. In hinging the brackets to the back see that they are
high enough to support the lid at right angles to the box.
The box here shown is made of 7/8 in. white pine throughout. The legs are
7/8 by 2-1/2 by 18 in. They are fastened to the box with ordinary strap
hinges. When folded up against the box they do not come quite to the top
so that the box should be at least 19 in. high for 18-in. legs. About
2 in. from the bottom of the legs drive in a brad so it protrudes 1/8 in.
as shown. This brad engages in a hole in the spring-brass clip when folded
up as shown in the illustration.
If in a fixed camp, it is a good idea to stand the legs in tomato cans
partly full of water. This prevents ants from crawling up the legs into
the box, but it necessitates placing the wire braces higher on the legs.
Our box cost us nothing but the hardware, as we knocked some old packing
boxes to pieces and planed up enough boards to make the sides. Of course,
the builder need not adhere to these dimensions, for he can make the size
to suit his requirements, while the finish is a matter of personal taste.
* * * * *
A blue writing ink is easily made of 1 oz. Prussian
blue, 1-1/2 oz. oxalic acid and 1 pt. of soft water.
Shake and allow it to stand until dissolved.
Wall Pockets in a Tent
When camping I find a few wall pockets sewed to the tent walls at the back
end provide a convenient means to hold the soap, mirror, razor and other
small articles liable to be lost. The pockets can be made of the same
material as the tent and sewed on as a patch pocket.--Contributed by A.
M. Barnes, Atlanta, Ga.
Camp Stoves
The camp stoves illustrated are different forms of the same idea. Both can
be taken apart and laid flat for packing. Iron rods, 1/2 in. in diameter,
are used for the legs. They are sharpened at the lower end so that they
may be easily driven into the ground. The rods of the one shown in the
first illustration are bent in the form of a hook at the upper end, and
two pieces of light tire iron, with holes in either end, are hung on these
hooks. Across these supports are laid other pieces of the tire iron. In
the other stove, the rods have a large head and are slipped through holes
in the four corners of the piece of heavy sheet iron used for the top.
A cotter is slipped through a hole in each rod just below the top, to
hold the latter in place.--Contributed by Mrs. Lelia Munsell, Herington,
Kansas.
[Illustration: Camp-Stove Top, Either Solid or Pieced, Supported on Rods
at the Corners]
Attractor for Game Fish
A piece of light wood, shaped as shown and with four small screweyes
attached, makes a practical attractor for game fish, such as bass, etc.,
by its action when drawn through the water or carried by the flow of a
stream. Hooks are attached to three of the screweyes and the fourth one,
on the sloping surface, is used for the line.--Contributed by Arthur
Vogel, Indianapolis, Ind.
[Illustration: A Device for Attracting Game Fish Which is Used in Place
of Bait]
Simple Photographic-Print Washer
The ordinary washbowl supplied with a faucet may be easily converted
into a washing tray for photographic prints or film negatives. Procure a
medicine dropper from a druggist, and attach it to the faucet end with a
short piece of rubber tubing. Be sure to procure a dropper that has the
point turned at right angles to the body.
[Illustration: The Whirling Motion Set Up by the Forced Stream at an Angle
Thoroughly Washes Prints]
When the water is turned on it is forced through the small opening in the
dropper in such a manner that the water in the bowl is kept in a constant
whirling motion. This will keep the prints on the move, which is necessary
for a thorough washing.
How to Make an Electric Fishing Signal
A unique electric fishing signal, which may be rigged up on a wharf or
pier, and the electric circuit so arranged as to operate an electric bell
or buzzer, located in the fisherman's cottage, or any other convenient
place, may be constructed as follows: Obtain two pieces of 1/16-in. spring
brass, one 6 in. long and 3/4 in. wide, and the other 7 in. long and
1/2 in. wide. Mount a 2-in. brass wood screw, A, in one end of the 6-in.
piece as shown.
[Illustration: Construction of the Parts to Make the Contact Points and
the Electric Connections]
Place over the end of the 6-in. piece a thin sheet of insulating fiber, B,
allowing it to extend down on each side about 1 in. Then bend a piece of
1/16-in. brass, C, over the insulating fiber, allowing it to extend down
on each side the same distance as the insulating fiber. Drill a small hole
through the lower ends of the U-shaped piece of brass, C, the insulation,
B, and the 6-in. piece, while they are all in place. Remove the insulation
and the U-shaped brass piece, and tap the holes in the brass for a machine
screw, D. Enlarge the hole in the 6-in piece, and provide an insulating
bushing for it with an opening of the same diameter as the brass machine
screw. Mount a small binding post, E, on one side of the U-shaped piece of
brass, and the parts may then be put together and held in place by means
of the brass screw.
Drill two holes in the other end of the 6-in piece, also two holes in one
end of the 7-in piece, and rivet them together with two small rivets. The
7-in. piece should project beyond the end of the 6-in. piece. A piece
of thin spring brass should be made into the form of a spiral, F, and
fastened to the upper end of the 7-in. piece. Provision should be made
for attaching the fishline to the inside end of the brass spiral. A small
binding post should be soldered to either the 6-in. or 7-in. piece, at
the bottom.
If the device is set up with the head of the brass adjusting screw in the
top of the 6-in. piece, pointing in the direction the line to the fishing
hook is to run, and if a fish pulls upon the line, the 7-in. piece is
pulled over and touches the point of the adjusting screw. If a battery
and bell, or buzzer, is connected as shown, the circuit will be completed
when the 7-in. piece comes in contact with the adjusting screw, and the
bell will ring.
A Chair Swing
A comfortable porch or lawn swing can be easily and quickly made with a
chair as a seat, as follows. Procure some rope of sufficient strength to
bear the weight of the person, and fasten one end securely to one of the
front legs of the chair and the other end to the same side of the back as
shown in the illustration, allowing enough slack to form a right angle.
Another piece of rope, of the same length, is then attached to the other
side of the chair. The supporting ropes are tied to these ropes and to
the joist or holding piece overhead.--Contributed by Wm. A. Robinson,
Waynesboro, Pa.
[Illustration: The Ropes are Tied to the Chair so That It will be Held in
a Reclining Position]
Another Broom Holder
Of the many homemade devices for holding a broom this is one of the
simplest, and one that any handy boy can make.
[Illustration]
It consists of a string, about 1 ft. long, with a knot at one end and
the other tied to a nail or staple driven into the wall. To hang up the
broom simply turn the string around the handle as shown, and the broom
will be held securely, because its weight will pull the string taut
and the knot at the end will prevent the string from running off the
handle.--Contributed by Jef De Vries, Antwerp, Belgium.
Squaring Wood Stock
The device shown in the sketch is a great help to the maker of mission
furniture as a guide on short cuts. It consists of two pieces of wood, A
and B, preferably of oak, fastened together at right angles by two large
flat-head screws. The pieces should be placed exactly at right angles.
[Illustration: The Saw Teeth Edge can be Run through Both Pieces, the
Stock being in the Corner]
A cut is then made through both pieces. The cut on B should be exactly
at right angles to the surface of piece A. This device can be either
clamped on a board or merely held by hand, and will insure a true
cut.--Contributed by F. W. Pumphrey, Owensboro, Ky.
A Wind Vane
A novelty in wind vanes is shown in the accompanying sketch. The vane can
be made of sheet metal or carved from light wood. The wings are so set on
the body as to cause the dragon to rise when the wind strikes them. The
dragon is pivoted on a shaft running through its center of gravity, so it
will readily turn with the wind. The tail part may also be made to revolve
as the propeller of an aeroplane.
[Illustration]
The length and size of the shaft will depend on the dimensions of the
dragon, and similarly, the location of the weights on the chains will
be determined by its size and weight. Upon these circumstances and the
varying velocities of the wind will depend how high the dragon will rise
on its shaft, and the height reached by it will thus serve to indicate--in
a relative manner only--the velocity of the wind, but it is also possible
to arrange the weights at such distances apart that the dragon will rise
to A in a 20-mile wind, to B in a 30-mile wind, to C in a 40-mile gale,
and so on, with as many weights as desired. This can be done with the aid
of an anemometer, if one can be borrowed for some time, or the device may
be taken to the nearest weather bureau to be set.--Contributed by H. J.
Holden, Ontario, Cal.
* * * * *
Never rock a file--push it straight on filing work.
How to Make a Flutter Ring
The flutter ring is for inclosing in an envelope and to surprise the
person opening it by the revolving of the ring. The main part is made of
a piece of wire, A, bent so that the depth will be about 2 in. and the
length 4 in. Procure or make a ring, 2 in. in diameter. The ring should
be open like a key ring. Use two rubber bands, BB, in connecting the ring
to the wire.
[Illustration: The Shape of the Wire and Manner of Attaching the Rubber
Bands to the Ring]
To use it, turn the ring over repeatedly, until the rubber bands are
twisted tightly, then lay it flat in a paper folded like a letter. Hand
it to someone in this shape or after first putting it into an envelope.
When the paper is opened up, the ring will do the rest.--Contributed by
D. Andrew McComb, Toledo, O.
A Kitchen Utensil Hanger
Every cook knows how troublesome it is to have several things hanging on
one nail. When one of the articles is wanted it is usually at the back,
and the others must be removed to secure it. A revolving rack for hanging
a can opener, egg beater and cooking spoons, etc., takes up less space
than several nails, and places every article within easy reach as well as
providing individual hooks for all the pieces.
[Illustration: The Hook Support Revolves so as to Make Each One Readily
Accessible for Hanging Utensils]
The rack is easily made of a block of wood, 2-1/2 in. in diameter and
1 in. thick; an arm, 3/4 in. wide, 1/4 in. thick and 6 in. long, and a
metal bracket. The arm is fastened to the bracket and the bracket to the
wall. A screw is turned through a loose-fitting hole bored in the end of
the arm and into the disk. Screw hooks are placed around the edge of the
disk as hangers.--Contributed by A. R. Moore, Toronto, Can.
Homemade Hinges for Boxes
A very simple form of hinge can be made as shown in the sketch. It is
merely a matter of cutting out two pieces of flat steel, A, punching holes
in them for screws or nails, and fastening them to the box corners, one on
each side. When the box is open, the lid swings back clear and is out of
the way. A hinge of this kind is very strong. For a light box, the parts
can be cut from tin.--Contributed by Chas. Homewood, Waterloo, Iowa.
[Illustration: Hinge Parts Made of Sheet Metal and Their Use on a Box
Cover]
To Remove Odors from Ice Boxes
An easy way to prevent odors in an ice box is to place a can of coke in
the box. This will take up all gases and prevent milk from tasting of
onions or vegetables which may be kept in the box.
In factories where bad odors are apt to spoil the men's lunches put up in
pails or baskets, a box can be constructed to hold these receptacles and
a large pail of coke placed in it. Anything placed in this box will remain
free from odors, and fresh.--Contributed by Loren Ward, Des Moines, Iowa.
Preventing Window Sash from Freezing to the Sill
When it is cold enough to cause the window sash to freeze fast in the
bathroom and bedrooms not having double sash, much discomfort will be
experienced and the health may even be menaced. I have discovered a
simple method to overcome this difficulty. Lay on the outside sill, close
up against the window frame, a thin, narrow strip of wood, on which the
window can rest when down. This gives a continual current of fresh air
between the sashes at the center, but no unpleasant draft below, and
no amount of dripping and freezing will fasten the window sash upon
it.--Contributed by Mary Murry, Amherst, Nova Scotia.
A Hanger for the Camp
[Illustration]
A garment, or utensil, hanger can be easily made for the camp in the
following manner: Procure a long strap, about 1-1/4 in. wide, and attach
hooks made of wire to it. Each hook should be about 4 in. long and of
about No. 9 gauge wire. Bend a ring on one end of the wire and stick the
other end through a hole punched in the center of the belt. The ring will
prevent the wire from passing through the leather, and it should be bent
in such a manner that the hook end of the wire will hang downward when the
width of the belt is vertical. These hooks are placed about 2 in. apart
for the length of the belt, allowing sufficient ends for a buckle and
holes. The strap can be buckled around a tree or tent pole.--Contributed
by W. C. Loy, Rochester, Ind.
* * * * *
Never stand in a direct line of a swiftly revolving
object, such as an emery wheel.
Locking Several Drawers with One Lock
[Illustration]
A lock for a number of drawers in a bench or cabinet may be applied with
a strip of wood hinged to the cabinet edge so that it will overlap the
drawer fronts, as shown. A hasp and staple complete the arrangement for
use with a padlock.--Contributed by H. W. Hahn, Chicago.
A Lightning-Calculation Trick
By means of a simple arrangement of numbers, a calculation can be made
which will easily puzzle any unsuspecting person. If the two numbers
41,096 and 83 be written out in multiplication form, very few will
endeavor to write down the answer directly without first going through
the regular work. By placing the 3 in front of the 4 and the 8 back of
the 6, the answer is obtained at once, thus: 41,096 × 83 = 3,410,968.
A larger number which can be treated in the same way is the following:
4,109,589,041,096 × 83 = 341,095,890,410,968.
An Adjustable Nutcracker
[Illustration]
The advantage of the nutcracker shown in the illustration is that it
can be adjusted to various-sized nuts. The handles are similar to those
usually found on nutcrackers except that they are slotted at the cracking
end to receive a special bar. This bar is 2 in. long, 1/2 in. wide, and
1/8 in. thick, with 1/8-in. holes drilled in it at intervals to allow for
adjustment. Cotters are used in the holes as pins.
Substitute for a Rubber Stamp
A large number of coupons had to be marked, and having no suitable rubber
stamp at hand, I selected a cork with a smooth end and cut the initials
in it. I found that it worked as well, not to say better, than a rubber
stamp. An ordinary rubber-stamp pad was used for inking. Angular letters
will cut better than curved ones, as the cork quickly dulls the edge of
any cutting tool.--Contributed by James M. Kane, Doylestown, Pa.
[Illustration: Initials Cut in a Cork Served the Purpose in the Absence
of a Rubber Stamp]
A Furniture Polish
A good pastelike furniture polish, which is very cheap and keeps
indefinitely, can be made as follows: Mix 3 oz. of white wax, 2 oz. of
pearlash, commonly known as potassium carbonate, and 6 oz. of water. Heat
the mixture until it becomes dissolved, then add 4 oz. of boiled linseed
oil and 5 oz. of turpentine. Stir well and pour into cans to cool. Apply
with a cloth and rub to a polish. The paste is nonpoisonous.
A Hanging Vase
[Illustration]
A very neat and attractive hanging corner vase can be made of a colored
bottle. The bottom is broken out or cut off as desired and a wire
hanger attached as shown. The opening in the neck of the bottle is well
corked. Rectangular shaped bottles fitted with hangers can be used on
walls.--Contributed by A. D. Tanaka, Jujiya, Kioto, Japan.
Filing Soft Metals
It is well known to mechanics that when lead, tin, soft solder or aluminum
are filed, the file is soon filled with the metal and it will not cut.
It cannot be cleaned like the wood rasp by dipping it into hot water or
pouring boiling water over it, but if the file and the work are kept wet
with water, there will be no trouble whatever. Both file and work must be
kept thoroughly wet at all times.--Contributed by J. H. Beebee, Rochester,
N. Y.
Locking Screws in Door Hinges
When screws once work loose in hinges of doors they will never again hold
firmly in the same hole. This trouble can be avoided if the screws are
securely locked when they are first put on the door. The sketch shows
a very successful way to lock the screws. The hole in the hinge for the
screw is filed to produce a notch, as shown at A, deep enough to receive
a small wire nail or brad, which is driven through the slot in the screw
head at one side, as shown at B.
[Illustration: The Screw is Permanently Locked with a Small Nail Driven
into the Slot Prepared for It]
To Remove Grease from Clothing
Equal parts of ether, ammonia and alcohol make a solution that will
readily remove grease from clothing. The solution must be kept away from
fire, and should be contained in corked bottles as it evaporates quickly,
but can be used without danger. It removes grease spots from the finest
fabrics and is harmless to the texture.
* * * * *
Jeweler's rouge rubbed well into chamois skin is handy
to polish gold and silver articles with.
[Illustration: Stove Made of an Old Oilcan with Extending Sides and
Weighted with Sand for Use on a Fishing Boat Holds the Cooking Vessel
Safely in a Sea]
A Canoe Stove By F. V. Williams
Limited space and the rocking motion of salmon-fishing boats in a heavy
sea on the Pacific coast brought about the construction of the canoe stove
shown in the illustration. It is made of a discarded kerosene can whose
form is square. A draft hole is cut in one side of the can, 4 or 5 in.
from the bottom, and a layer of sand placed on the bottom. Two holes are
punched through opposite sides, parallel with the draft hole and about
3 in. from the top edge. Rods are run through these holes to provide a
support for the cooking utensil. The smoke from the fire passes out at
the corners around the vessel.
[Illustration]
The main reason for making the stove in this manner is to hold the cooking
vessel within the sides extending above the rods. No amount of rocking can
cause the vessel to slide from the stove top, and as the stove is weighted
with the sand, it cannot be easily moved from the place where it is set
in the canoe.
The use of such a stove in a canoe has the advantage that the stove can
be cleaned quickly, as the ashes and fire can be dumped into the water and
the stove used for a storage box. The whole thing may be tossed overboard
and a new one made for another trip.
To Prevent Washboard from Slipping in Tub
The modern stationary washtubs are box-shaped, with one side set at an
outward angle or slope. The washboard, when used in these tubs, will slide
up and down against the sloping part of the tub while the clothes are
rubbed against them. This annoying trouble can be avoided by tacking, on
the top edge of the board, strips of rubber cut from a discarded bicycle
tire, placing the rubber side out. The friction of the rubber prevents
any motion of the board.--Contributed by Jas. A. Hart, Philadelphia, Pa.
* * * * *
To print on celluloid, use a good gloss ink and old
rollers.
Clips to Hold Magazine Pages Together
[Illustration]
When a magazine is placed in a bookcase the outer pages are liable to
turn back if it is inserted with the back on the outside. To overcome this
difficulty I made clips for each magazine to hold the open pages together.
Each clip was made of wire, about 8 in. long, shaped as shown. The
width of the clip is made equal to the thickness of the magazine and the
extending ends are slightly pressed together so that they will spring and
grip the pages.--Contributed by W. A. Saul, E. Lexington, Massachusetts.
Slide-Opening Cover for a Plate Holder
The length of time required for the slide of a plate holder to be removed
on a reflecting camera spoiled many of my plates, because strong light
would enter the unprotected slot when the camera was in certain positions.
To protect this slot so that the slide could be left out indefinitely,
I made a cover of a piece of sheet metal having three slots, to admit
screws turned into the camera. A knob was attached at the center. The
illustration shows the application of this cover. In Fig. 1 the plate
holder is shown slipped in with the cover back, and Fig. 2 shows the slide
drawn and the cover over the slot opening.--Contributed by B. J. Weeber,
New York City.
[Illustration: The Two Positions Occupied by the Slide-Opening Cover as
It is Used on a Camera (Fig. 1, Fig. 2)]
Magnetic-Suspension Pendulum
When a pendulum is not periodically supplied with energy its amplitude
grows smaller and finally the motion ceases, due to the resistance of the
air and the friction at the point of suspension. Usually the suspension
is in the form of a knife edge bearing against plates of agate; sometimes
the pendulum rod is simply attached to a very slender and flexible spring
without any bearings. But the minimum of friction is obtained by means of
magnetic suspension, as the following experiment will prove.
If the rod of a pendulum about 12 in. long, beating half seconds, is
sharpened to a needle point and suspended from one of the poles of a
magnet, it will be found that, if set into motion, it will continue to
swing 15 times as long as the ordinary knife-edge suspended pendulum, and
it will not stop until after about 16 hours, while one working on agate
plates will stop in from 50 to 60 minutes. Similarly a top, provided with
a fine-pointed axis of iron, will spin much longer when suspended from a
magnet.
Magnetic suspension is used in precision instruments; for example, the
minute mirrors which are used in certain telegraph systems to register
writing photographically at the receiving end.
Use for Pencil Stubs
[Illustration]
In mechanical drawings cast iron is indicated by a series of straight
lines across the parts made of this material. These lines can be quickly
made with the usually discarded pencil stubs, if these are saved and
sharpened in the following manner: The point is filed flat, as shown at
A; then a slot is filed in the center of the lead with a knife file, as
shown at B, and the points sharpened as in C. In this way two lines are
drawn at one stroke neatly and in half the time.--Contributed by J. Kolar,
Maywood, Ill.
* * * * *
To sharpen a carving knife draw the edge through and
against the open edge of a pair of shears.
[Illustration]
How to Build a Paddle-Wheel Boat By P. A. Baumeister
The paddle-wheel boat, illustrated herewith, was built in the spare time I
had on rainy afternoons and Saturdays, and the enjoyment I derived from it
at my summer camp more than repaid me for the time spent in the building.
The materials used in its construction were:
2 side boards, 14 ft. long, 10 in. wide and 7/8 in. thick.
2 side boards, 14 ft. long, 5 in. wide and 7/8 in. thick.
1 outside keel board, 14 ft. long, 8 in. wide and 7/8 in. thick.
1 inside keel board, 14 ft. long. 10 in. wide and 7/8 in. thick.
120 sq. ft. of tongue-and-groove boards, 3/4 in. thick, for bottom
and wheel boxes.
1 piece, 2 in. square and 18 in. long.
4 washers.
2 iron cranks.
10 screweyes.
30 ft. of rope.
Nails.
The dimensions given in the drawing will be found satisfactory, but these
may be altered to suit the conditions. The first step will be to cut and
make the sides. Nail the two pieces forming each side together and then
cut the end boards and nail them to the sides. Lay this framework, bottom
side up, on a level surface and proceed to nail on the bottom boards
across the sides. The ends of these boards are sawed off flush with the
outside surface of the sides after they are nailed in place. The material
list calls for tongue-and-groove boards for the bottom, but plain boards
can be used, although it is then difficult to make the joint water-tight.
When the tongue-and-groove boards are used a piece of string, well soaked
in white lead or paint and placed in the groove of each board, will be
sufficient to make a tight joint.
Having finished the sides and bottom, the next step will be to fasten
on the bottom keel. Adjust the board to its position and nail it in the
center part where it lies flat on the bottom boards, then work toward
the ends, gradually drawing it down over the turn and nailing it down. If
the keel board cannot be bent easily, it is best to soak it in hot water
where the bend takes place and the wood can then be nailed down without
the fibers breaking. The inside keel is put on in the same manner, but
reversed.
[Illustration: The Boat As It Appears without the Spring and Running Board
and Used as a Pleasure Craft or for Carrying Freight, the Operator Facing
in the Direction of the Boat's Travel]
The next procedure is to make the paddle wheels. The hub for each wheel is
made of a 2-in. square piece of timber, 9 in. long. Trim off the corners
to make 8 sides to the piece, then bore a 3/4-in. hole through its center.
The 8 blades of each wheel, 16 in all, are 17 in. long, 6 in. wide and
3/4 in. thick. One end of each blade is nailed to one side of the hub,
then it is braced as shown to strengthen the wheel.
[Illustration: Detail Drawing of the Boat and One of the Paddle Wheels.
All the Material Required for the Construction is Such That can be Cut
and Shaped with Ordinary Tools Found in the Home Workshop]
The cranks are made of round iron, 3/4 in. in diameter, and they are keyed
to the wheels with large nails in the manner shown. I had a blacksmith
shape the cranks for me, but if one has a forge, the work can be done at
home without that expense. The bearings for the crankshafts consist of
wood, although it is preferable to use for this purpose two large iron
washers, having a hole slightly larger than the diameter of the shaft,
and drill holes in their rims so that they can be screwed to the wheel-box
upright as shown. The bearings thus made are lubricated with a little lard
or grease.
[Illustration: Detail of Paddle-Wheel Fastening, the Springboard
Construction and the Fastening for the Rudder Control]
The paddle-wheel boxes are built over the wheels with the dimensions given
in the drawing, to prevent the splashing of water on the occupants of the
boat.
The trimmings for the boat consist of three seats, a running board and a
springboard. The drawings show the location of the seats. The springboard
is built up of 4 boards, 3/4 in. thick, as shown, only nailing them
together at the back end. This construction allows the boards to slide
over each other when a person's weight is on the outer end. The action of
the boards is the same as of a spring on a vehicle.
It is necessary to have a good brace across the boat for the back end of
the springboard to catch on--a 2 by 4-in. timber being none too large. At
the point where the springboard rests on the front seat there should be
another good-sized crosspiece. The board can be held in place by a cleat
and a few short pieces of rope, the cleat being placed across the board
back of the brace. A little diving platform is attached on the outer end
of the springboard and a strip of old carpet or gunny sack placed on it
to prevent slivers from running into the flesh. In making the spring and
running board, it is advisable to make them removable so that the boat
can be used for other purposes.
The boat is steered with a foot-operated lever, the construction of which
is clearly shown. For the tiller-rope guides, large screweyes are used
and also for the rudder hinges, the pin of the hinge being a large nail.
The hull can be further strengthened by putting a few angle-iron braces
either on the in or outside.
To make the boat water-tight will require calking by filling the cracks
with twine and white lead or thick paint. The necessary tools are a broad,
dull chisel and a mallet. A couple of coats of good paint, well brushed
into the cracks, will help to make it watertight as well as shipshape.
The boat may leak a little when it is first put into the water, but after
a few hours of soaking, the boards will swell and close the openings.
This boat was used for carrying trunks, firewood, rocks, sand, and for
fishing, and last, but not least, for swimming. The boat is capable of
carrying a load of three-quarters of a ton. It draws very little water,
thereby allowing its use in shallow water. It has the further advantage
that the operator faces in the direction the boat is going, furnishing
the power with his hands and steering with his feet.
A Camp Loom
[Illustration: Loom Constructed of Sticks for Weaving Grass or Moss into
a Camp Mattress]
The camper who desires to "rough it" as much as possible and to carry only
the necessities will find it quite a comfort to construct the bedding from
grass or moss by weaving it in the manner of making a rag carpet, using
heavy twine or small rope as the warp. Two stakes are set the width of the
bed or mattress to be made, and a cross stick is attached to their tops.
Several stakes are set parallel with the cross stick and at a distance to
make the length of the mattress. The warp is tied between the tops of the
stakes and the cross stick. An equal number of cords are then attached
to the cross stick and to another loose cross stick which is used to move
the cords up and down while the grass or moss is placed in for the woof.
The ends of the warp are then tied to hold it together. When breaking up
camp the cords can be removed and carried to the next camp.--Contributed
by W. P. Shaw, Bloor West, Can.
A Milk-Bottle Carrier
Carrying a milk bottle by the rim is tiresome work for the fingers, so I
constructed a handle, as shown in the sketch, from a piece of wire. The
carrier can be easily placed in the pocket.
[Illustration: A Carrier Made of Wire to Quickly Attach on a Milk-Bottle
Neck]
The part fitting under the rim of the bottle neck is bent to form two
semicircles, one hooking permanently at A, while the other is hooked at B
after it is sprung around the neck of the bottle.--Contributed by Lawrence
B. Robbins, Harwich, Mass.
How to Make a War Kite By Park Snyder
The material required for the making of a war kite is three pine sticks,
each 60 in. long, one stick 54 in. long, one stick 18 in. long, all
1/2 in. square; 4 yd. of cambric; a box of tacks; some linen thread, and
16 ft. of stout twine.
Place two 60-in. sticks parallel with each other and 18 in. apart, then
lay the 54-in. piece across at right angles to them 18 in. from the upper
ends, as shown in Fig. 1, and fasten the joints with brads. At a point
21 in. below this crosspiece, attach the 18-in. crosspiece.
[Illustration: The Line should be a Very Strong One, Then Banners can be
Flown on It]
The extending ends of all the three long pieces are notched, Fig. 2, and
the line is stretched taut around them, as shown by the dotted lines.
[Illustration: The Sticks are Fastened Solidly with Brads, and the Cloth
Sewed to the String around Their Ends (Fig. 1, Fig. 2, Fig. 3, Fig. 4)]
If the cambric is not of sufficient size to cover the frame, two pieces
must be sewed together, then a piece cut out to the shape of the string,
allowing 1 in. to project all around for a lap. The cambric is sewn fast
to the string with the linen thread. Fasten the cloth to the frame part
with the tacks, spacing them 1 in. apart. The space in the center, between
the sticks, is cut out. Make two pieces of the remaining goods, one 36 in.
by 18 in., and the other 36 in. by 21 in. The remaining 60-in. stick is
fastened to these pieces of cambric, as shown in Fig. 3, and the whole is
fastened to the main frame so as to make a V-shaped projection. The bridle
strings, for giving the proper distribution of pull on the line to the
kite, are fastened, one to the upper end of the long stick in the V-shaped
piece attached to the kite, and the other to the lower end, as shown in
Fig. 4. The inclination can be varied to suit the builder by changing the
point of attachment of the kite line to the bridle. If it is desired to
fly the kite directly overhead, attach the line above the regular point
and for low flying make the connection below this point. The regular
point is found by trial flights with the line fastened temporarily to the
bridle, after which the fastening is made permanent.
Paper Glider That Loops the Loop By C. A. Thompson
The usual paper glider shaped as shown in Fig. 1 can be made to loop
the loop and make corkscrew flights if prepared according to sketches
herewith. It should be carefully made in the first place so that in its
regular form it flies perfectly straight.
[Illustration: Ordinary Paper Glider and the Manner of Throwing It to Make
the Different Flights (Fig. 1, Fig. 2, Fig. 3, Fig. 4, Fig. 5, Fig. 6,
Fig. 7, Fig. 8)]
To make the glider loop, the rear corners of the wings should be turned up
at right angles, as in Fig. 2, and the glider launched with a great deal
of force with the nose pointed slightly upward. This will require some
practice, but one soon learns the trick. After looping once, as shown in
Fig. 3, the glider descends in volplane. This form of glider will also
right itself, if dropped from a height, nose downward, as shown in Fig. 4.
For a corkscrew flight the glider is prepared as in Fig. 5; one
rear corner being bent up and the other down. In this form it flies
horizontally, or downward, while rapidly rotating around its longitudinal
axis, as shown in Fig. 6.
To make a spiral descent, the rear corners of the wings are bent up as in
Fig. 2, and, further, the rear corner of the keel is bent at right angles,
Fig. 7, whereupon it is thrown in the ordinary manner. It then takes the
course shown in Fig. 8.
A Water Filter
A cheap and very effective water filter can be made of a flower pot by
plugging the hole in the bottom with a piece of sponge and fitting it
as follows: Place powdered charcoal on top of the sponge to a depth of
1 in., then 1 in. of clean silver sand, and lastly 2 in. of small stones
and gravel. It is hung with a bail at the top.
A Combination Electrically Operated Door Lock
The illustration shows a very useful application of an ordinary electric
door lock in the construction of a combination lock and alarm to be
operated from the outside of the building.
[Illustration: The Brass-Tack Heads Holding the Numerals in Place
Constitute the Combination Points]
The three numerals, 1, 2, and 4, or any other combination of numbers
constituting the house number on a door, are made of some kind of
insulating material and fastened in place on a base of insulating fiber,
or wood, about 1/4 in. thick, by means of ordinary brass-headed tacks,
as indicated by the black dots. The tacks will extend through the base
a short distance so the electrical connections may be made by soldering
wires to them, as shown by the diagram, alternate tacks being connected
together with the exception of three; for instance, A, B, and C.
The terminals of the leads that are connected to alternate tacks are in
turn connected to the terminals of a circuit composed of an ordinary
vibrating bell, D, and battery, E. If any two adjacent tack heads be
connected together, except tacks A, B, and C, the bell circuit will be
completed and the bell ring, which will serve as an indication that some
one is tampering with the circuit. The person knowing the combination,
connects the tack heads A and B, and at the same time connects the tack
head C with F or G, or any other tack head that is connected to the plus
side of the battery, whereby a circuit will be completed through the lock
H and the door is opened. Any metallic substance, such as a knife, key,
or finger ring, may be used in making the above indicated connection, and
there will be no need of carrying a key for this particular door so long
as the combination is known.
The base upon which the numbers are mounted and through which the points
of the tacks protrude, should be mounted on a second base that has a
recess cut in its surface to accommodate the wires and points of the
tacks.
The combination may be made more or less complicated, as desired, by
connecting the tacks in different ways, and by using a separate battery
for the bell and lock. The circuit leading to the door lock, if there is
one already installed, may be used and then no extra circuit is needed.
Such a device has been used on a private-desk drawer with entire
satisfaction. The battery was placed in the back end of the drawer, and
if it happened to fail, a new one could be connected to the points B and
J so that the drawer could be opened and a new battery put in.
Lock for a Fancy Hairpin
[Illustration: The Bend in the Pin will Hold in the Hair and Prevent the
Loss of the Pin]
To avoid losing a fancy hairpin, bend one leg of the pin as shown in the
illustration. The hair caught in the notch formed by the bend will prevent
the pin from dropping out.--Contributed by W. C. Loy, Rochester, Ind.
* * * * *
A metal surface polished with oil will keep clean
longer than when polished dry.
[Illustration]
An Aeroplane Kite By W. A. Reich
After building a number of kites from a recent description in Amateur
Mechanics I branched out and constructed the aeroplane kite shown in the
illustration, which has excited considerable comment in the neighborhood
on account of its appearance and behavior in the air.
[Illustration]
The main frame consists of a center-stick, A, 31 in. long, and two
cross-sticks, of which one, B, is 31 in. long and the other, C, 15-1/2 in.
long. The location of the crosspieces on the centerpiece A is shown in the
sketch, the front piece B being 1-3/4 in. from the end, and the rear piece
C, 2-1/4 in. from the other end. The ends of the sticks have small notches
cut to receive a string, D, which is run around the outside to make the
outline of the frame and to brace the parts. Two cross-strings are placed
at E and F, 7 in. from either end of the centerpiece A, other brace
strings being crossed, as shown at G, and then tied to the cross-string
F on both sides, as at H.
[Illustration: The Kite Being Tailless Rides the Air Waves Like an
Aeroplane in a Steady Breeze]
The long crosspiece B is curved upward to form a bow, the center of which
should be 3-1/4 in. above the string by which its ends are tied together.
The shorter crosspiece is bent and tied in the same manner to make the
curve 2-1/2 in., and the centerpiece to curve 1-3/4 in., both upward. The
front and rear parts, between the end and the cross-strings E and F, are
covered with yellow tissue paper, which is pasted to the crosspieces and
strings. The small wings L are purple tissue paper, 4 in. wide at M and
tapering to a point at N.
The bridle string is attached on the centerpiece A at the junction of the
crosspieces B and C, and must be adjusted for the size and weight of the
kite. The kite is tailless and requires a steady breeze to make it float
in the air currents like an aeroplane.
The bridle string and the bending of the sticks must be adjusted until
the desired results are obtained. The bridle string should be tied so that
it will about center under the cross-stick B for the best results, but a
slight change from this location may be necessary to make the kite ride
the air currents properly. The center of gravity will not be the same in
the construction of each kite and the string can be located only by trial,
after which it is permanently fastened.
[Illustration: General Plan and Outline of the Kite, Which may be Built
in Any Size, If the Proportions are Kept, and Its Appearance in the Air
on a Steady Breeze]
Distilling Apparatus for Water
[Illustration: Homemade Still for Removing the Impurities in Water That
is Used in Mixing Chemicals]
Pure water, free from all foreign substances, is frequently wanted for
making up photographic solutions and many other purposes. An apparatus for
distilling water can be very easily made from galvanized pipe fittings.
The outer cooling jacket A is a piece of 1-in. pipe, 2 ft. long, threaded
on both ends, and bored and tapped for 1/2-in. pipe at B and C. A hole
is bored and tapped for 1/2-in. pipe in each of the two caps used on the
ends of the pipe A, and a piece of 1/2-in. pipe, D, 2 ft. 8 in. long,
is run through the holes as shown. The joints are soldered to make them
water-tight. Two 1/2-in. nipples, 4 in. long, are screwed in at B and
C. The retort, or boiler, E, in which the impure water is boiled may be
made of any suitable vessel and heated with a Bunsen or gas burner. A
beaker, or other vessel, F, is placed below the lower end of the small
pipe. The cold water from the faucet, which flows into the outer jacket
at C and out at B, condenses the steam in the small pipe D, turning it
into water which falls into the beaker in large drops. The water is often
distilled a second time to remove any impurities which it might still
contain.--Contributed by O. E. Tronnes, Evanston, Ill.
Telephone Stand for a Sloping Desk
Having a sloping-top desk and being compelled to use the telephone quite
frequently, I devised a support for the telephone so that it might stand
level and not fall off. The sides of the stand were cut on the same slope
as the desk top, and their under edges were provided with rubber strips
to prevent slipping.--Contributed by J. M. Kane, Doylestown, Pa.
[Illustration: Stand with a Level Surface for a Desk Telephone to be Used
on a Sloping Desk Top]
[Illustration]
Tandem Monoplane Glider By George F. Mace
The monoplane glider illustrated has better fore-and-aft stability than
the biplane, is lighter in proportion to the supporting surface, simpler
to build, and requires very little time to assemble or take apart. The
material list is as follows:
FRAME
4 pieces of bamboo, 14 ft. long, tapering from 1-1/2 to 1 in.
8 pieces of spruce, 1/2 in. thick, 1 in. wide, and 3 ft. long.
8 pieces of spruce, 1/2 in. thick, 1 in. wide, and 2 ft. long.
WINGS
4 main-wing bars, spruce, 3/4 in. thick, 1-1/4 in. wide, and 18
ft. long.
8 wing crosspieces, spruce, 3/4 in. square, and 4 ft. long.
38 wing ribs, poplar or spruce, 1/4 in. thick, 3/4 in. wide, and
64 in. long.
The first thing to do is to make the main frame which is composed of the
four bamboo poles. The poles take the corners of a 2-ft. square space and
are supported with the pieces of spruce that are 2 ft. and 3 ft. long,
the shorter lengths running horizontally and the longer upright, so that
each upright piece extends 1 ft. above the two upper poles. All joints
should be fastened with 3/16-in. stove bolts. The wire used to truss the
glider is No. 16 gauge piano wire. The trussing is done in all directions,
crossing the wires between the frame parts, except in the center or space
between the four poles.
[Illustration: The Start of the Glide should be Made from the Top of a
Hill, Then a Little Run will Carry the Airman Several Hundred Feet through
the Air]
The framework of the main wings is put together by bolting one of the
crosspieces at each end of two wing bars, then another 4 ft. from each
end, whereupon the wing bars are bolted to the main frame. The frame is
then braced diagonally between these pieces. The ribs, spaced 1 ft. apart,
are fastened to this frame with 1-in. brads. The ribs are so bent that the
highest part will be 5 or 6 in. above the horizontal. The bending must be
uniform and is done when fastening them in place.
The material used to cover the wings and rudders is strong muslin. The
cloth is first tacked to the front wing bar, then to the ribs, and sewed
to a wire which is fastened between the ends of the ribs. Large brass-head
tacks should be used through a strip of tape to fasten the cloth to the
ribs. The rear wings are constructed in a similar manner. After the cloth
is in place it is coated with starch or varnish.
[Illustration: Details of Tandem Monoplane Glider, Showing the Main Frame
and Wing Construction, and the Manner of Placing the Crossed Bracing Wires
Between the Parts and to the Wing Ends]
[Illustration]
The two vertical rectangular spaces in the main frame, just under the
rear wings, are covered with cloth to act as a rudder. The upper and lower
bracing wires for the wings are attached with snaps and rings so that the
glider can be easily taken apart.
It is best not to use the glider in a wind greater than 30 miles an hour.
It is started from the top of a hill in the usual manner. Glides can be
made running from 60 to several hundred feet.
Carrier for a Suitcase
Where it is necessary to carry a well filled and heavy suitcase the
light truck shown in the sketch will be a great assistance. The truck is
constructed on the folding plan, similar to a go-cart, and can be carried
on the side of the case. The wheels are those used on a go-cart, with
rubber tires and about 6 in. in diameter. These are fitted to standards
carrying a hinged top piece, the upper ends of the standards being hinged
in a like manner. The standards should be cut to the proper length for the
person carrying the suitcase.--Contributed by Mrs. Harriet M. S. Kerbaugh,
Allentown, Pa.
[Illustration: The Small Truck will Greatly Assist the Carrying of a
Heavily Loaded Suitcase]
Light in a Keyhole
Remove the lock and cut the mortise deep enough to admit a 3-volt battery
lamp with a suitable socket attached. The lamp is then connected to
wires which are concealed and run to a battery of three dry cells in the
basement or other convenient place. A small push button is attached in
the line and placed near the knob on the door. A small recess must be cut
in the mortise so that the light from the lamp will shine directly on the
inside of the plate over the keyhole.--Contributed by Armand F. Lamarre,
St. Remi, Can.
[Illustration]
How to Make a Monoplane Glider By William Grotzinger
A simple glider of the monoplane type can be easily constructed in a small
workshop; the cost of materials is not great and the building does not
require skilled workmen. Select the material with care and see that the
wood is straight-grained and free from knots. The following list of spruce
pieces is required:
4 main wing spars, 3/4 by 1-1/4 in. by 17 ft.
2 rudder spars, 3/4 by 1 in. by 8 ft.
8 wing crosspieces, 3/4 by 3/4 in. by 4 ft.
4 rudder crosspieces, 1/2 by 1/2 in. by 2 ft.
1 piece for main-frame crosspieces, 1/2 by 1 in. by 12 ft.
2 arm pieces, 1-1/2 by 2 in. by 3-1/2 ft.
The following list of poplar pieces is required in making the supports
for the cloth covering on the wings and rudders.
34 main-wing ribs, 1/4 by 3/4 by 64 in.
8 rudder ribs, 1/4 by 1/2 by 36 in.
5 rudder ribs, 1/4 by 3/4 by 48 in.
The following list of oak pieces is needed:
1 piece, 5/8 by 1-1/4 in. by 12 ft.
1 piece, 5/8 by 1-1/4 in. by 6 ft.
1 piece, 3/4 by 3/4 in. by 3-1/2 ft.
2 pieces, 5/8 by 1-1/2 in. by 5 ft.
4 pieces, 3/4 by 1 by 28 in.
In addition to the lists given, four pieces of bamboo, 16 ft. long,
tapering from 1 or 1-1/4 in. at the large end to 3/4 in. at the small end,
are used for the main frame.
[Illustration: Monoplane Glider in Flight]
Construction
The first part to make is the main frame A which is constructed of the
four bamboo poles. They are made into a rectangular frame with crossbars
marked B cut to the right length from the 12-ft. piece of spruce, 1/2 in.
by 1 in. The bars C and D are of oak cut from the 6-ft. piece, 5/8 in. by
1-1/4 in. All of these crossbars are fastened together in rectangular form
by means of stove bolts. The bamboo poles are then bolted to the inner
corners of the frames with 3/16-in. bolts. Place the bolts through the
bamboo close to a joint to prevent splitting. The frame is then rigidly
trussed by diagonal wires marked E crossing all rectangles. The wire used
for trussing all the parts throughout the glider is piano wire, 16 gauge.
The arm pieces are bolted to the sides of the rectangular frames beneath
the wings.
[Illustration: Plan View]
[Illustration: Side Elevation]
[Illustration: Front Elevation]
[Illustration: Wing Bar]
The framework of the main wings or planes should be put together by
bolting the cross struts F at regular intervals on the under side of the
main spars G. Brace the frame diagonally with the piano wire. The ribs
are nailed to the main spars by using 1-in. brads. The ribs are spaced
1 ft. apart, and curved so that the highest part will be 5 in. from the
horizontal. Each rib extends 15 in. back of the rear spar. The rudder is
made in the same manner.
The vertical rudder is made to fold. A small pocket arrangement H is made
from which the rigs of the vertical rudder diverge.
The covering of the wings and rudders should be a good quality of muslin
or some light aeronautical goods. The cloth should be tacked to the front
spar, to the ribs, and then sewn to a wire which connects the ends of the
ribs.
Construct the triangular arrangement marked J to which the wings are
braced. The wing bar supports are shown in the illustration. The bottom
wires are braced to the crossbar K shown in the front elevation.
The bracing wires are all fastened to a snaphook which can be snapped
into the rings at the places marked L. This method will allow one quickly
to assemble or take apart the plane and store it in a small place. The
vertical rudder should be braced from each rib to the front spar of the
horizontal rudder and then braced by the wires M to hold the rudder from
falling back. The rudder is then braced to the main frame and the main
frame is braced by the wires N to the wings. This will hold the plane
rigid. Use snaphooks and eyebolts wherever possible so that the plane can
be quickly assembled.
Assembling
The triangular arrangement J is bolted to the wings and the top wires put
in place. The wings are then put on the main frame and bolted to the bars
marked C and D, after which the bottom wires are fixed in place.
Gliding
Take the glider to the top of a hill, step into the center of the main
frame just a little back of the center of the wings. Put your arms around
the arm pieces, face the wind and run a few steps. You will be lifted off
the ground and carried down the slope. The balancing is done by shifting
the legs. The glides should be short at first, but by daily practice, and,
as the operator gains skill, glides can be made up to a length of several
hundred feet. Do not attempt to fly in a wind having a velocity of more
than 15 miles an hour.
Exerciser for a Chained Dog
The exerciser consists of a disk, 5 ft. in diameter, pivoted in the ground
near the kennel. The disk revolves on a 5/8-in. pin set in a post made of
a 4 by 4-in. piece of timber. The disk is made of common lumber fastened
together with battens on the under side. Our dog seems to enjoy this kind
of exercise.--Contributed by Hazel Duncan, Denver, Colo.
[Illustration: Revolving Disk Exerciser]
A Laboratory Gas Generator
The sketch illustrates a gas generator designed for laboratories where
gases are needed in large quantities and frequently. The shelf holding
the large inverted bottle is of thick wood, and to reinforce the whole
apparatus, a 1-in. copper strip is placed around the bottle tightly and
fastened with screws turned into the woodwork. The shelf above is attached
last, and upon it rests the bottle of commercial acid required in the gas
generation. The pump shown is for use in starting the siphon.
[Illustration: Gas Generator of Large Capacity That will Work
Automatically as the Gas is Removed]
The large bottle used as a generator may be either a 3 or 5-gal. size, and
after it is placed in the position shown, a sufficient amount of the solid
reagent needed in gas generating is placed in the mouth before the exit
tube, leading away below, is fixed in position. If sulphureted hydrogen
is required, ferrous sulphide is used; if hydrogen is required, zinc is
placed within; and to make a carbon dioxide, marble, or its equivalent,
is inserted. Whatever gas is required, a sufficient quantity of the solid
material is put in to last for some time in order not to disturb the
fastenings.
When all is ready, the pump is used gently to start the acid over the
siphon and into the generator from below. The gas generated by the action
of the acid on the solid soon fills the bottle. The screw clamp on the
exit tube is loosened and the gas passes into the bottle of water and
charges it, in the case when sulphureted hydrogen is required. In the
other cases, when sufficient gas has been generated, the screw clamp is
tightened, and the gas soon attains considerable pressure which forces the
acid back out of the generator and into the acid bottle above. The whole
apparatus now comes to an equilibrium, and the gas in the generator is
ready for another use.--Contributed by W. M. Mills, Bakersfield, Cal.
Holding Small Armatures for Winding
Procure a strip of sheet metal, 6 in. long, 1 in. wide, or as wide as
the armature core is long, and 3/32 in. thick. Bend this into a U-shape,
as shown, and file each end similar to the barb on a fishhook. Drill
two holes for a bolt to pass through the sheet-metal ends. Fasten a
screw or bolt in the center of the bend, to be used for gripping in a
chuck or polishing head. Core segments can be quickly wound with this
device.--Contributed by Geo. B. Schulz, Austin, Illinois.
[Illustration: Armature Cores are Easily Revolved to Fill the Core
Openings with Insulated Wire]
[Illustration]
Footstool for Cement Floors
A clerk finding the cement floor of the office uncomfortably cold to
the feet, devised a footstool in the following manner: A shallow box
was procured, and four small truck casters were fastened to the bottom.
A piece of carpet was laid on the inside of the bottom and some old
newspapers placed on top of it. When seated at the desk, he placed his
feet inside the box on the papers. The casters elevated the box from the
cement, just high enough to avoid dampness and cold, and permitted an easy
change of position.--Contributed by L. Alberta Norrell, Gainesville, Ga.
Homemade Telegraph Sounder
The material required to construct a telegraph sounder, like the one shown
in the sketch, consists of two binding posts, magnets, a piece of sheet
metal, and a rubber band. These are arranged as shown, on a wood base
or, better still, on a metal box. In using a metal-box base, be sure to
insulate the connections at the magnet coils and binding posts.
[Illustration: An Inexpensive and Homemade Sounder for Use in Learning
the Telegraph Codes]
This instrument will be found by those studying the telegraph codes to
give good results, equal to any of the expensive outfits sold for this
purpose.--Contributed by Chas. J. La Prille, Flushing, N. Y.
Laboratory Force Filter
The sketch represents a force filter which is well adapted for use in
small laboratories. The water is turned on at the faucet and draws the air
through the side tube by suction, which in turn draws the air in a steady
stream through the Wolff bottles. The tubes may be attached to a filter
inserted in a filter bottle and filtering thus greatly facilitated. The
connection to the faucet can be made, as shown in the detailed sketch,
out of a long cork, by boring a hole large enough to fit the faucet
through the cork and another slanting hole, joining the central hole, on
the side for a pipe or tube. At the lower end of the cork a tube is also
fitted, which may be drawn out to increase the suction. The inclined tube
should be slightly bent at the lower end.--Contributed by W. M. Mills,
Bakersfield, Cal.
[Illustration: A Slight Vacuum is Formed by the Water Flowing through the
Cork, Which Forces the Filter]
Beginner's Helper for Roller Skating
One of the most amusing as well as useful devices for a beginner on roller
skates is shown in the sketch. The device is made of 3/4-in. pipe and
pipe fittings, with a strip of sheet metal 1 in. wide fastened about half
way down on the legs. On the bottom of each leg is fastened an ordinary
furniture caster which allows the machine to roll easily on the floor.
The rear is left open to allow the beginner to enter, then by grasping
the top rail he is able to move about on the floor at ease, without fear
of falling.--Contributed by J. H. Harris, Berkeley, Cal.
[Illustration: Beginner Cannot Fall]
Atmospheric Thermo-Engine
The device illustrated has for its object the production of power in
small quantities with little attention and no expense. All that is
needed to produce the power is common ordinary water, and the device will
continue to operate until the amount of water placed in the receptacle
has evaporated.
[Illustration: Details of the Engine]
The device consists of a rectangular vessel provided with legs and a
cover. Each end of the vessel is provided with an opening, A, adapted to
receive and hold in place plaster-of-paris cups, B. The part extending
into the tank is provided with a wick, C, which reaches to the bottom
of the vessel. A glass tube, D, is provided with a bulb on each end and
partly filled with alcohol, the remaining space being exhausted of air.
The glass tube is secured to a hanger which is pivoted to the bottom of
the vessel.
After a quantity of water has been poured into the vessel and the device
allowed to stand undisturbed for a few minutes, the tube will begin to
move with an oscillating motion. Some of the water in the vessel has
been conducted by means of the wicks C to the bent plaster cups, from the
surface of which it evaporates, thus absorbing latent heat and producing
a lower temperature in the cups than that of the surrounding atmosphere.
The bulb in contact with the cup thus acquires a lower temperature than
the one at the end D, which will result in condensation of the alcohol
vapor within the former. The pressure of the vapor in the lower bulb will
then force the alcohol up the inclined tube into the higher bulb, the
evaporation in the lower bulb maintaining the pressure therein.
When a sufficient quantity of alcohol has been forced into the upper
bulb, it will descend, and thus elevate the other bulb into its cup.
The phenomena just described will be repeated in this bulb and the
oscillation will continue until the water in the vessel has been absorbed
and evaporated.--Contributed by E. W. Davis, Chicago.
A Mirror an Aid in Rowing a Boat
The young oarsman is apt to experience difficulty in keeping a straight
course until he has had some practice. Rowing a boat in a narrow channel
calls for considerable skill to hold a course in mid-stream. A variation
of force in pulling the oars almost instantly results in the rowboat
making a landfall on one or the other of the banks.
[Illustration: The Mirror Attached to a Boat]
The skilled oarsman does not need an appliance that the beginner might
welcome. With the aid of a mirror conveniently supported at a suitable
angle and height before the oarsman's face, the water, the shores and
approaching boats may be seen with distinctness. The mirror may be
set directly in front or a little distance to one side as shown in the
sketch.--Contributed by Thaleon Blake, Sidney, O.
Developing Tray Made of a Tin Can
Obtain a tomato or other can, 5 or 6 in. long and 4 in. in diameter, which
should be secured before it has been opened, says Camera Craft. Cut both
ends exactly half way around, keeping close to the edge, as shown in the
first sketch, and slit it lengthwise to open the side. Trim off the end
pieces to within 1 in. of the center and cut off the surplus tin of the
sides of the can, leaving enough to bend over and form the ends of the
tank as shown in the second sketch.
[Illustration: For Developing Roll Films]
The support, as shown in the last sketch, is made by screwing together
three pieces of wood, the base piece being 6-1/2 in. square and thick
enough to make the tank solid and heavy. Bend the sides of the can over
the edges of the two uprights and tack them firmly to the sides, bending
the tin so as to have a rounded surface that will not scratch the films.
The ends of the can are bent over sharply to form the sides of the tank.
Procure a round wood stick, the length of the tank, place in position,
and fasten with a screw through the tin at both ends. Give the whole tank
two coats of black asphaltum varnish to protect it from the action of the
developer.
White Rubber on Croquet Arches
[Illustration]
A white cloth is usually tied to croquet arches when the game is played
late in the evening. A much better plan is to slip a piece of white rubber
tubing about 1 ft. long on the arch. This tubing can be purchased at any
local drug store. This makes the top part of the arch conspicuous so that
it may be plainly seen in the dark, and, when the tubing becomes soiled
it can be cleaned off with a damp cloth.--Contributed by John Blake,
Franklyn, Mass.
Illuminating an Outside Thermometer
During the season of furnace fires the thermometer outside the north
window becomes of added interest and usefulness in helping one to judge
the proper draft adjustments of the furnace for the night. A pocket
electric flashlamp is convenient for examining the thermometer after dark,
but it is not always at hand, matches are dangerous when lace curtains
are at the window, and besides, the reflection from the glass of both
matches and flashlamp on the inside makes it very difficult to read the
thermometer.
[Illustration]
To avoid these difficulties I attached to my thermometer the device shown
herewith, which consists of a miniature battery lamp placed at the back
of the translucent-glass thermometer and operated by a battery within
the house, the light being turned on by an ordinary push button placed
conveniently inside of the window.
A strip of brass, A, 3/8 in. wide by 1/16 in. thick, was riveted
(soldering will do) to the lower support of the thermometer. The free end
of this brass strip was bent around a disk of hardwood, B, and fastened
to it by three or four small screws in such a manner that the disk made
a circular platform just behind the thermometer scale. This disk was
slightly larger than the mouth of a small, thin tumbler. On the upper
surface of this disk was fastened with shellac and small nails close to
the periphery, a disk of cork, 1/4 in. thick, this cork disk being a close
fit for the mouth of the tumbler. A miniature porcelain electric-lamp
socket was fastened with screws on the cork of the base. Wires were
then run from the lamp socket through the cork and wood disks and the
whole painted with melted paraffin to close all apertures and keep out
moisture. Good rubber-covered electric-light wire will do nicely for the
wiring outside the house, although, if it can be obtained, a piece of
lead-covered paired wire is preferable. These wires must be only long
enough to reach inside the house, where they may be joined to the ordinary
sort of wire used in electric-bell work for connecting with push button
and battery.
A 4-volt lamp of about 2 cp. will be sufficient to illuminate the
thermometer and allow the scale and mercury column to be distinctly seen.
It may be found necessary to make some adjustment by bending the brass
strip in order to bring the lamp centrally behind the scale and at the
proper height to give the best lighting on the range of from 10 to 40
deg. Over the lamp is placed the tumbler for protection from the weather,
and, if desired, half of the tumbler may be painted as a reflector on the
inside with white enamel paint, although, in practice, I have not found
this necessary.
Within the house the push button should be placed at the window where
it can be most conveniently reached when viewing the thermometer, and
connections may be made to the battery regularly used for ringing the
house bells, or to a separate battery of, say, 4 dry cells, placed in
some location, as a closet, near the thermometer.--Contributed by C. F.
A. Siedhof, Winchester, Mass.
How to Make an Automobile Robe
When driving an automobile in cold weather, it is impossible to have
a robe come down over the feet without being in the way so that it is
inconvenient in working the pedals. Procure a common heavy robe and cut
two holes in it about 5 in. from the bottom just large enough for the
toe of the shoes to slip through and bind the edges with cloth or fur.
The 5 in. of robe below the holes should come back under the feet so that
no wind can enter. Make the holes far enough apart so that both outside
pedals can be reached easily and you will have no trouble with your feet.
This robe, with the use of overshoes, will insure comfort in driving a
car.--Contributed by Earl R. Hastings, Corinth, Vt.
Locating a Droplight in the Dark
It is very hard to locate an electric-light globe in a dark room. Anyone
trying to find one by striking the air in its vicinity with one hand,
usually finds that the globe is not there, although the hand may have
passed within 1/2 in. of the globe.
[Illustration: Covering a Wide Range]
The best way to locate a globe is to approach the proximity of the drop
with thumbs touching and fingers extended as shown in the sketch, in which
manner the hands will cover a radius of about 14 in. and offer a better
chance of locating the light quickly than if one groped about with one
hand extended.--Contributed by Victor Labadie, Dallas, Tex.
Lighting a Room for Making Photographs
When it becomes too cold for the amateur photographer to take pictures
outdoors, he generally lays aside his camera and thinks no more about it
until the coming of another spring or summer. While some winter scenes
would make up an interesting part of anyone's collection, it is not always
pleasant to go out to take them.
Some derive pleasure from making groups and portraits, but this is very
difficult, if the room is not well lighted. Overhead light is the best
for this work and few residences are constructed to furnish this kind of
light.
[Illustration: Light Reflected on Ceiling]
I find a very good way to get a light overhead is to take a large
mirror--one from an ordinary dresser will do--and place it in the window
in such a position that the reflection will strike the ceiling just
above the subject. The result will be a soft but very strong light,
almost equal to a north skylight. Splendid portraits can be made in this
way.--Contributed by Chas. Piper, Kokomo, Ind.
Detachable Hinged Cover for Kettles
A kettle cover equipped with the hinge shown in Fig. 1 will not fall off
when in place, and can be raised or removed entirely when desired.
[Illustration: Wire Clasps on Hinge (Fig. 1, Fig. 2)]
One wing of an ordinary hinge is soldered or riveted to the cover and wire
clasps soldered to the other wing. It is slipped on the kettle as shown
in Fig. 2. The cover is interchangeable and can be placed on almost any
kettle.
A Use for Discarded Wafer Razor Blades
A paper trimmer and mat cutter can be made from a wafer razor blade. As a
paper trimmer, place the blade C over the part A of the razor, as shown,
with only two of the holes engaging in one post and the center screw.
Then place the part B in position and clamp with the handle. This will
allow about 1/2 in. of the blade to project at one end. If a part of the
extending blade is cut or broken off, it will be more easily handled. The
cutter is guided along the straightedge as shown in Fig. 1.
[Illustration: (Fig. 1)]
If it is desired to make a more permanent form of instrument, or if no
holder is at hand and only a castoff wafer blade, a handle, C, may be cut
from a piece of wood and fitted with two or three binding-posts, A, taken
from an old battery, to hold the blade B in place, as shown in Fig. 2.
[Illustration: Blade Attached to Handle (Fig. 2)]
Armatures for Small Motors
Without the proper tools and material, the amateur electrician will find
it quite difficult to construct a small armature for a battery motor that
will run true, without vibration and have a neat appearance. Ordinary
cast-iron gears or pinions, as shown in Fig. 1, make excellent cores for
armatures on small motors. A gear of any number of teeth can be used for
an armature with a smaller number of coils by cutting out a certain number
of teeth. For example, a gear with 12 teeth will take 12 coils, but if
every other tooth is cut out, it will take only 6 coils, etc. The teeth
can be easily chipped out with a cold chisel.
[Illustration: Gear Used as a Core (Fig. 1, Fig. 2)]
Larger armatures can be made from gears with spokes, the spokes being cut
out, if a ring armature is desired. The gear, when wound, can be mounted
on a hub made of empty thread spools. The spool can be turned at one end
to insert it in the armature, and if too long, one end will serve for the
core of the commutator, as shown in Fig. 2. This combination will make a
neat, efficient little armature, which will run quite free from vibration.
Only simple tools, such as a hammer, cold chisel, file, jackknife and a
vise, are required.--Contributed by R. J. Nault, Hartford, Conn.
Ice Creeper for Shoe Heels
Many persons, young and old, have falls every winter on the ice or snow
which can be avoided if their shoes are fitted with ice creepers. A very
efficient device of this kind, which any boy can make at home in a short
time, is shown in the sketch. These ice creepers need not be removed from
the shoes or boots until the winter is past, for they may be worn indoors
without injuring the finest floor.
The two plates A may be made from either iron or steel--preferably the
latter. An all-steel scraper, or a piece of a saw blade, makes good
creepers. Draw the temper by heating the steel to a cherry red and then
letting it cool slowly. It may then be sawn with a hacksaw, cut with a
cold chisel, or filed into plates of the proper shape, as shown. The teeth
are filed to points. The two L-shaped slots are made by drilling 3/16-in.
holes through the plates, and then sawing, filing or chiseling out the
metal between the holes. The projections at the ends are then bent out at
right angles with heavy pliers or the claws of a hammer, and finally the
plates bent to fit the curve of the heel.
[Illustration: Creeper Attached to Heel]
The creepers are attached by means of round-head wood screws turned into
the leather. In this operation place the teeth of the plates just below
the bottom of the heel and turn the screws into the ends of the upright
slots until the heads just bind. The plate as set when indoors or else not
needed is shown at B. To place the plate so it will grip the ice, slide
it to the right, which will bring the screws into the horizontal slots,
as shown at C.--Contributed by Chelsea C. Fraser, Saginaw, Mich.
Opening Screw-Top Fruit Jars
[Illustration]
Screw-top fruit jars may be easily opened in the following manner: Secure
a strap with a buckle and place it around the top as if it were to be
buckled, but instead draw the loose end back and hold it with the thumb
as shown. Turn cover and strap while held in this position and it will
easily turn from the jar.--Contributed by Chas. A. Bickert, Clinton, Iowa.
Lamp-Chimney Cleaner
Lamp chimneys of various makes are very difficult to clean quickly and
thoroughly. The simple device shown in the sketch makes the cleaning
process a simple matter. The cleaner is made of a round rubber ball with
slits cut in it as shown and then fastened to the end of a stick. When
a cloth is placed over the ball it presses evenly against the curved
surfaces of the glass. There is no danger of breaking a chimney with this
cleaner.