BEE-spoke-data/bees-v0 huggingface dataset:
We now go to the nucleus containing our best queen, take out the frame with the virgin comb, and replace it with an empty 'frame with its two starters, brushing back into the hive the bees from the comb taken out, and closing the hive. Looking at the comb taken out, you will see that instead of the oldest brood being in the center, it will be in the two places where the two starters were put. It was for this purpose the two starters at the sides were given rather than a central one. For by this means the waving contour will give opportunity for a larger number of queen-cells on the edge of the comb than would otherwise be the case.
### trimming the breeding-comb.
For a little distance at the edge, the comb contains eggs only. This part is trimmed away, leaving the youngest of the brood at the edge of the comb (Fig. 89). One reason for this is that, other things being equal, the bees show a decided preference for building on the edge of a comb. Another reason is that I decidedly prefer to have cells on the edge, thus making them easier to cut out when wanted. The part cut away would only be in the way of both of us.
## 8.5.2. **The \(\chi\)-function**
When a queue is taken away from a full colony, the bees start cells from young brood, and as I have already said, they continue to start fresh cells for several days, and until after there is no longer brood of the proper age, so that the last cells started will contain larvae too old to make good queens. But on these combs prepared as I have described, they do not do so. Rarely, if ever,will a cell be found elsewhere than on the edge of the comb, and I have never known the bees to start a cell after the larvae were too old. I do not know why there is this difference. I only know the fact. But it is a very convenient fact.
## 10.2 Age of larvae for queens.
Scientists tell us that a worker-larva is fed for three days the same as a queen-larva, and then it is weaned. Theoretically, then, up to the time a larva in a worker-cell is three days old, it ought to be all right to rear a queen from. Practically, I do not believe a larva three days old is as good as a younger one. The only reason I have for so believing is the expressed preference of the bees themselves. Give then larvae of all ages from which to select, and they always choose that which is two days old, or younger. Indeed, it will be seen that in the comb from which I have trimmed the edge (Fig. 89) the larvae on the edge of the comb have been out of the egg but a short time, for I merely trimmed away the eggs, and possibly not all of them.
The breeding-comb, thus properly trimmed, is taken to the queenless colony, and put in the vacancy that was left for it. On the top-bar of the frame is peeled the date on which the cells are to be cut out, allowing ten days from the time of putting in. Thus, if the frame be given June 27, the number \( ilde{\imath}\) is put on the top-bar, July 7 being ten days later than June 37. No need to put the month on. Beside giving the date, that figure marks the frame, so I can know at a glance which frame to take out. At the same time a memorandum of this date is put in the record book to remind me when to cut the cells.
Some one may ask, "But if you leave nearly all the old brood in the hive, will the bees not start cells on them, with only the smaller part on your breeding-comb?" So I thought at first, and took some pains to have no very young brood of the old stock left. But I found upon trial that when I left all the young brood of the old stock, the bees ignored this, at the most starting upon it one, two, possibly three cells, confining their attention to the prepared frame I had given. Probably the hardness of the old combs and the lack of convenient places in which to build cells convince the bees that it is better to use the soft comb where room is abundant. Of course a cell or two on the old combs can do no great harm, for they will not be used.
## more than one nucleus in hive.
The frames for nuclei are the regular full-sized frames, and a full hive may be used for each nucleus, but it is economy to have the hive divided up into two or three compartments for as many nuclei. Three
Figure 85: Queen-Cell Stapled on Comb.
nuclei in one live are mutually helpful in keeping up the heat, and thus it is possible to have the nuclei weaker than if each nucleus was by itself, while results are as good with the three weaker nuclei in the one live as with three stronger nuclei in three separate lives.
Nucleus-hive.
For many years I have had lives divided into two or more compartments, and have had much trouble from the bees finding a passage from one compartment to another, but my latest nucleus lives have not troubled in that way. They are made from ordinary 8-frame lives together with the 3-inch-deep bottom-board. First, two pieces are nailed on the inside of the bottom-board, each piece \(18
icefrac{{1}}{{4}}x13
icefrac{{4}}{{4}}x7\). One piece nailed \(4
icefrac{{1}}{{2}}\) inches from one side, the other \(1
icefrac{{1}}{{2}}\) inches from the other side. These pieces do not lie flat in the bottom, but stand on edge, with \(13\)% inches between them. Then the live is fastened on the bottom-board with the four usual staples. Two division-boards, each \(18
icefrac{{1}}{{4}}x93
icefrac{{4}}{{4}}x5\)-16, are now put in place and crowded down tight upon the two pieces in the bottom-board. These two division-boards are \(4
icefrac{{5}}{{4}}\) inches from each side. leaving \(3
icefrac{{1}}{{4}}\) inches between them. The four spaces at the top, at the ends of the division-boards, are closed by blocks \(3
icefrac{{1}}{{4}}x1
icefrac{{1}}{{2}}x5\)-16, whittled enough to allow them to be wedged into place. Light \(1
icefrac{{1}}{{4}}\)-inch wire-mails are driven through from the outside to hold the division-boards in place. \(\Lambda\) block \(10
icefrac{{2}}{{3}}x7\) is pushed into the entrance centrally, and held there by a nail lightly driven in front of it. 'That leaves an entrance at each end of the block for the two side compartments, but no entrance for the middle compartment. For this purpose an inch hole is bored in the back end of the live midway between the two corners, its center being about three inches from the upper surface of the live. Three boards of half-inch stuff cover the three compartments, and over this is an ordinary hive-cover.
At Fig. 90 will be seen a bottom-board for a nucleus hive. You will notice that the two pieces that run length-wise through the center of the bottom-board are a quarter of an inch shallower than the rim of the bottom-board. If they were 3 inches deep instead of 134, the bottom-bars of the frames would rest directly on them. Of course the division-boards are deep enough to cone clear down upon these two pieces.
_Fig. 86.--Starters in Breeding Frame._
Two nucleus-hives will be seen at Fig. 91. The one at the right faces us, showing the entrance at each side. The back of the left hive is toward us, showing the round hole near the top, which serves as an entrance to the middle compartment.
large space for middle frame.
In one of these side compartments there is abundant room for two frames and a dummy, and three frames without the dummy can with care be crowded in. The central compartment will of course take only one frame.
It seems as though \(2\%\) inches is quite too much space for one frame, but I use that space advisedly. Many years ago I made a nucleus hive with six compartments, and at that time not having had much experience I made each compartment \(2\%\) inches wide. Years afterward I made another nucleus hive, and smiling at my former ignorance and congratulating myself upon the superior knowledge I had gained with the passing years. I made the compartments more nearly in accord with the usual space occupied by each frame in a hive, making each compartment--I'm not sure whether it was \(1\%\) or \(1\%\). At any rate, the bees swarmed out of these limited quarters to such an extent that I could not use them, whereas they had not swarmed out of the \(2\%\) compartments. Neither have they swarmed out of these later ones. Having so much room in these central compartments, the bees sometimes build pieces of comb on the sides which I must clean away, but that is better than to have them swarm out.
## contents of nucleus-hive.
A nucleus hive is tenanted by a two-frame nucleus on each side and a one-frame nucleus in the middle. Care is taken to choose one of the best frames of brood for the middle nucleus, and perhaps a few extra bees are brushed in. A third comb may be put in each of the side compartments, or a dummy, the same as the dummies used in the regular hives.
Making the bees stay.
When populated, the entrances of the nuclei are plugged up with green leaves. These are generally taken away twenty-four hours later, after the hives are bounded to stir up the bees, but if they are neglected the leaves will dry and shrink so the bees can make their way out. It is better to form nuclei with queenless bees, for they are not so much inclined as others to go back to their old place.
There has been much interest in the matter of having queens fertilized in small nuclei containing only 200 bees or so. About the year 1863 I had seen miniature nuclei in the apiaries of Adam Grimm, but they had not so few bees as the so-called baby nuclei of to-day. Of course, I had a number of queens fertilized in baby nuclei, but I did not go to the trouble of having hives specially built for them. I merely used an 8-frame dove-tailed five, putting in it sometimes a 1-pound section nearly filled with honey, and sometimes two such sections side by side. A frame of brood with its adhering bees was taken from some colony, the bees shaken or brushed into the nucleus-hive quickly, a virgin not more than a day or two old dropped into the hive among the bees and all hastily closed, the entrance having been closed in advance. Of course, the frame of beesel brood was returned to its old place. Three days later the entrance was opened, and in due time the queen was laying.
However it may be for the commercial queen-rerer, for the honey-producer there seems no great advantage in baby nuclei. He generally needs to make some increase, and it is more convenient for him to use 2 or 3-frame nuclei for queen-rearing, and then build them up into full colonies.
## Regular hives for nuclei
One year I tried rearing queens on a commercial scale, producing them for Editor G. W. York of the American Bee Journal. I may say, parenthetically, that one season was enough to convince me that it was best to stick to honey-production, rearing queens only for my own use. But I had 50 three-compartment hives left on hand, and in spite of that, truth compels me to say that latterly they generally lie idle, and I use a full hive for each nucleus, merely putting 3 or 4 frames in one side of the hive, with a dummy beside them. To be sure, it takes more bees than to have three nuclei in one hive, but it is a good bit more convenient to build up into a full colony a nucleus that has the whole hive to itself.
_Fig. 87: Putting Foundation in Sections._
When we go to give queen-cells to the nuclei, we are provided with introducing queen-cages. The first introducing-cage I devised was the Miller introducing-cage, listed in the catalogs of supply-dealers. Then I got up one I liked better, three of which are shown in Fig. 92, the blocks containing the candy being separate from the cages. This may be called Miller cage No. 2. Twoblocks 3 inches by \(
icefrac{{1}}{{2}}\) by \(
icefrac{{1}}{{4}}\) and a piece of wire-cloth \(6
icefrac{{1}}{{2}}\)x\(1\%\), form the material for the cage. Lay the two blocks parallel on their edges, and nail on these one end of the wire-cloth, the end of the wire-cloth corresponding with the ends of the blocks. Fold the wire-cloth around the ends of the blocks and nail it on the other side, and you have a cage 3x1%x1%, outside measure. The plug to close the cage is not so simple, for the cage is to be provisioned, and the plug holds the candy. Two blocks \(1
icefrac{{1}}{{4}}\)x\(1
icefrac{{1}}{{2}}\)x\(1
icefrac{{1}}{{4}}\), a piece of tin and a piece of section stuff each \(1
icefrac{{1}}{{4}}\) inches square form the material for the plug. Lay the two blocks parallel on their sides, with \(
icefrac{{1}}{{4}}\) inch space between them. On these nail the piece of tin, turn over, and nail on the section stuff. Near one end drive a tack partly in to prevent the plug going too far into the cage. That makes all complete.
After using these for some years, I got up another that in some respects I like still better. This is shown in Fig. 87%, and may be called Miller cage No. 3. Make a block \(3
icefrac{{3}}{{4}}\)x\(1
icefrac{{1}}{{8}}\)x\(5\)-16. From one side of the block, at one end, cut out a piece 1%x11-23. Cut a piece of tin 1x2 inches. Stand the block on edge with the cut-out place uppermost, and in this cut-out place lay a lead pencil or similar object 5-16 in diameter. Over this bend the tin, letting it come out flush with the end of the block. Then laying the block on its side, still keeping the pencil in place, drive two \(
icefrac{{1}}{{2}}\)-inch wire nails through tin and wood, clinching on the opposite side. When the pencil is withdrawn there is left a tube to be filled with candy. So much for the plug. The cage itself is made of a piece of wire-cloth + inches square, if one edge is a selveleg. If there is no selveleg, it must be 1x4%x1% and \(
icefrac{{1}}{{2}}\) inch folded over as a selveleg to prevent raveling. A block must be made, not to be part of the cage, but to be used to form the wire-cloth over. It must be a little larger than the first block, say 5x1 3-16x3%. If the block were the same size as the first, there would be too tight a fit, and if the fit be loose it is easy to wedge in a thin
the wire above the top-bars, and when I want to take out the cage I take hold of the wire, draw the frames apart, and lift out the cage. The wire serves also to mark the spot where the cage is.
When the tube is filled with candy, it may be pushed so far into the cage that the bees can not get at the candy. Then when it is desired that the bees shall get at the candy, the plug is drawn out until the candy is exposed. This is more reliable as to time than to have the usual cage with the candy covered with card-board. With the card-board there is no certainty as to whether the queen will be released in 24 hours or much longer. Sometimes it may be several days. With the No. 3 cage you know just how long the bees have the cage before they get to the candy, and after the candy is exposed you may count on the bees clearing out the candy in about 24 hours.
It may be objected that it is troublesome to open up the hive to change the position of the plug in the cage. That is true, and often, if not generally, the cage is not put between the combs, but thrust in the entrance, making sure that it is where it will be protected by the bees. After being there about two days, it is only the work of a minute to take out the cage, expose the candy, and put the cage back in the entrance.
Sometimes, if I want to have the work done automatically, I use a device that delays the work about as much as the card-board, but is more uniform in the time it takes. I thrust into the center of the tube of candy its whole length a wooden splint about 1-16 of an inch square, and that delays the bees at gnawing out the candy.
When a queen-cell is to be caged, the No. 2 cage allows more room for the cell.
For making queen-cages, instead of the common painted wire-cloth that is used for screen doors, I like better extra heavy bright wire-cloth. It is more substantial. But E. R. Root says queens have been poisonedin such cages, so have a care, although I have had hundreds of queens in them without noting any harm. Perhaps all tinned wire-cloth is not alike.
## distributing queen-cells.
When the queen-cells are to be distributed, the first thing is to provision a number of queen-cages of the No. 2 style, with the usual queen-candy, tacking a piece of pasteboard on the end of the plug. Then we go to the nucleus where the cells are stored, cut out the cells. rejecting any that do not appear satisfactory, and put the cells in the cages. Some cells, however, are left uncaged. When we come to a nucleus that has had no queen for a day or more, there is no need of caging the cell. It is put against the comb in a good place, and fastened there with a hive-staple (Fig. 85). Coming to a nucleus with a queen which we wish to remove, we put the queen in a cage, and give the nucleus a caged cell, laying the cage against the comb and nailing it there with a 1% or 1% "wire-nail (Fig. 93). This nail is slender so as to push easily through the meshes of the wire-cloth. Then the young queens that we have removed are used wherever needed.
Before cutting cells from the comb the bees must be removed, and it would mean the ruin of the cells to shake the bees off. Brushing with a Coggshall brush, although it might do with extreme care, would be likely to result in torn cells. Even something no stiffer than goldenrod or sweet clover needs much care. I like best a bunch of long and soft June grass--a very flinsy affair to use as a brush, but it is safe.
## advantage of caging cells.
Of course the object of caging the cells is to prevent the bees from tearing them down. At the time of taking a queen out of a nucleus, if a cell were merely stapled on, the bees would be pretty sure to destroy it, for not yet realizing that their young laying queen has been taken from them, they feel no need of anything like a queen-cell. So the cage saves the time and trouble of waiting and making a second visit another day.
_Fig. 88.--Comb for Queen-Cells._
There is, however, another advantage in using the cage, making it somewhat desirable to use it in all cases. We often want to know what has been the fate of a cell, and can generally tell pretty well by its appearance. If it has the appearance of most of those in Fig. 94, we know that a young queen has emerged and must be in the nucleus. If it is torn open in the side, like the one at the extreme right, we are sure that the young queen in it was destroyed by the bees.
If the cells have merely been stapled on, the bees are so prompt about removing them as soon as they are no longer of any use that scarce a vestige of them is left, so we have nothing to judge by. But when a cell is en closed in a cage, the bees are very slow about removing it, so the cage gives us a better chance for judging.
## 9.2. A simple example
In Fig. 94 the first three cells at the left have the cap still adhering by a neck, showing that it has been only a short time since the queen emerged, providing the cell has not been caged; if it has been caged the queen may have been out some time. The fourth cell looks entire, as if it yet contained a young queen. But it is deceptive. The bees have a trick of fastening the cap back again as if it were a great joke, sometimes thus imprisoning one of their own number. \(\Lambda\) very close look will generally show a little crack, and a very little force will be needed to pick the cap loose. The next six cells show plainly that a young queen has emerged from each, and finding a cell of that kind is just as good evidence as a sight of the queen; only I would a little rather see the queen for the bare chance that she may not have perfect wings. As already mentioned, the cell at the extreme right shows by the hole in its side that no queen ever came out of it alive.
Whatever the advantages of using queen-cells instead of virgin queens, there are also advantages in having the young queens hatch out in a queen nursery. So I have made considerable use of a nursery of my own devising, Fig. 88%. It may take the place of a brood frame in any hive, in the lower story or in an upper story, and it does not matter whether a laying queen is in the hive or not.
For this nursery I use a regular Miller frame, which lends itself to the purpose admirably, top-bar, bottom-bar and end-bar being all of the same width, 1% inches. If you haven't a Miller frame, you can easily make a frame having all parts the same width, 1% inches; only be sure the end-bars are at least 3% thick, and have the outer dimensions of the frame the same as the framesyou have regularly in use. I'll give instructions for making a nursery with a frame of the Langstroth size, and if your frames are of different size you must act accordingly.
Make \(\hat{\imath}\) pieces, each long enough to reach from top-bar to bottom-bar (with top-bar \(\hat{\jmath}\)s and bottom-bar \(\hat{\imath}\)s,
_Fig. 88%--Miller Queen Nursery._
that makes the length 8 inches), 1% wide, and 3% thick. Saw-kerfs must be made on each side of these \(\hat{\imath}\) pieces. Beginning 1% inches from one end, on one side of the piece, with a very fine saw, make a saw-kerf by sawing about half-way through. Make a similar kerf 1% inches from the first, and then, each time measuring off 1% inches, make 3 more kerfs, making 5 in all. (Your last kerf will be more than 1% inches from the end, but that's all right.) Do the same thing on the opposite side, beginning at the opposite end. Make similar kerfs in each end-bar, measuring from the top-bar for one end, and from the bottom-bar for the other end. Of course these kerfs are to be made on the inside of the end-bar, and none on the outside. Now distribute these 7 pieces at equal distances from one end of the frame to the other, and if you are exact about it the distance between each two will be 1 35-32 inches. Fasten these 7 sticks in by driving one nail down through the top-bar into each, and two nails through the bottom-bar. Before nailing, make sure that each stick faces right, as mentioned further on. Nail upon one side of your frame a piece of wire-cloth to cover it (17%x9%). Have the nails not more than 3 inches apart all around and on each stick. I use bright wire-cloth, extra heavy, with meshes of the usual size in screen-doors.
You now need \(40\) pieces of tin, 2x1% inches to go into all the saw-kerfs. Each piece of tin serves as a shelf, thus dividing up the whole into 48 compartments. You will now see the necessity of having the sticks face each other so as to have the kerfs correspond, as mentioned a minute ago. Look out for this before you nail the sticks in place.
To close these compartments, you need 8 pieces of tin, each 10x3 inches. That's % inch longer than the depth of the frame, allowing the % to be bent over at right angles on the top-bar. To hold these covers in place I use heavy pins bent over. Small screw-hooks of straight pattern might do better. Three are needed in each end-bar, and \(6\) in each upright. Of course these tin covers are put in at the top and slide down.
You will see that each of the compartments furnishes a large amount of room, \(40\) of them being 1 25-32x1%x 1%, and the remaining 8 being larger. That gives abundance of room to put in the largest kind of a queen-cell. With each cell is given a ball of candy the size of a pea.
If a ripe queen-cell is given to a nucleus or colony, there is no way to be sure that a queen that is all right will issue from it. She may be imperfect as to her legs, and, what is still worse, her wings may be so deficient that she never can fly. If she can not fly she can never be fertilized, and so is worthless. Indeed she is worse than worthless, for she is wasting the time of the nucleus. Sometimes, indeed, it happens that the occupant of the queen-cell is dead. All of this is avoided by having the virgins hatch out in a nursery. If a cell is cut into, and is given to a nucleus, the bees will at once destroy it, but in the nursery it will hatch out all right.
One may have a lot of queen-cells on hand with no immediate use for them. It will not do to leave them without cutting out beyond a certain time, for the hatching out of the first one means the death of all the rest. But if they are put in a nursery they are safe, and may be left stored in the nursery for some days after hatching out.