The Inspiring of WoodCraft

Making The Ten-Drawer Chest

Ten-Drawer Chest
After the material has been dimensioned, glue-up the top panel and set it aside.
Then cut joints for the face frame. When these have been fit, glue the frame.
Build the end panels next. Because of the seasonal expansion and contraction that will take place across their width, they are built as framed panels with the tongues on the perimeter of the central panel floating in grooves cut into the inside edges of the frame components, which are held together with mortise-and-tenon joinery.
After the end panels have been glued-up, cut dadoes across their width for the tongues on the ends of the dust panels. Then, glue the front edges of the end panels to the back of the face frame.
Assemble the interior of the case in layers beginning at the bottom. First slide the tongues on the bottom dust panel into the dadoes cut on the inside faces of the end panels. Glue and clamp the front edge of the dust panel to the back side of the face frame. After removing the clamps, install the drawer guides and stops for the bottom tier of drawers.
Then, slide the next dust panel into position, glue and clamp it, and install its drawer guides and stops. Continue up the chest until each layer of interior work is completed.
After installing the filler strip at the bottom back of the cabinet, fasten the four mitered sides of the bottom frame in place with screws passing up into the bottom of the end panels and face frame.
Assemble the top frame, with kicker strips, as a separate unit. Before installing it in the cabinet, fasten the top to the frame with screws passing up through slotted screw holes. These holes allow the top to expand and contract across its width in response to seasonal changes in humidity.
Set the top frame, with the top attached, into place. Hold it there with screws passing through the top of the face frame and the tops of the end panels. Nail on the upper moulding, concealing these screws. Nail the lower moulding into place. Drawer construction is straightforward, with through dovetails at the back of the drawers and half-blind dovetails at the front.
Materials List :
Case
A.
Top
1
pc
11/16  x  15 13/16  x  21 5/8
B.
Short bottom frame
2
pcs
11/16  x  1 11/16  x  15 13/16
C.
Long bottom frame
2
pcs
11/16  x  1 11/16  x  21 5/8
D.
Central end panel
2
pcs
5/8  x  10 1/8  x  14 7/8 ¹
E.
Top of end panel frame
2
pcs
7/8  x  3 5/8  x  10 5/8 ²
F.
Bottom of end panel frame
2
pcs
7/8  x  5 3/16  x  10 5/8 ²
G.
Back of end panel frame
2
pcs
7/8  x  2 15/16  x  22 11/16
H.
Front of end panel frame
2
pcs
7/8  x  2 1/8  x  22 11/16
I.
Back planking
various
 
1/2  x  various  x  22 11/16
J.
Short upper moulding
2
pcs
5/16  x  13/16  x  15 7/16
K.
Long upper moulding
1
pc
5/16  x  13/16  x  20 3/4
L.
Shor lower moulding
2
pcs
3/8  x  1 1/16  x  15 9/16
M.
Long lower moulding
1
pc
3/8  x  8 7/8  x  12 5/8
N.
Outside vertical facing
2
pcs
1/2  x  1 1/4  x  22 11/16
O.
Central vertical facing
1
pc
7/8  x  1 1/4  x  20
P.
Top horizontal facing
1
pc
7/8  x  1 3/4  x  18 7/8
Q.
Bottom horizontal facing
1
pc
7/8  x  2 3/16  x  18 7/8
R.
Shor facing
8
pcs
7/8  x  15/16  x  9 3/16
S.
Dust panel
5
pcs
3/4  x  13 3/4  x  18 3/4 ³
T.
Drawer stop
10
pcs
3/16  x  7/8  x  7
U.
Central drawer guide
5
pcs
3/4  x  1 7/16  x  13 3/4
V.
Outside drawer guide
10
pcs
7/16  x  7/8  x  13 3/4
W.
Kicker strip
2
pcs
13/16  x  1 5/8  x  12 7/8
X.
Short top frame
3
pcs
13/16  x  1 1/8  x  11 1/4
Y.
Long top frame
2
pcs
13/16  x  1 1/8  x  18 1/4
Z.
Cleat
1
pc
13/16  x  1 5/8  x  18 1/4
AA.
Bottom filler strip
1
pc
3/4  x  1 7/16  x  18 1/4
Drawers
BB.
Front
10
pcs
1/4  x  2 15/16  x  8 1/16
CC.
Sides
20
pcs
3/8  x  2 15/16  x  14 1/8
DD.
Back
10
pcs
3/8  x  2 3/8  x  7 15/16
EE.
Bottom
10
pcs
5/16  x  7 9/16  x  14 1/8
FF.
Pull
10
pcs
1  x  1 1/2
-----------------
¹ Includes ¼" x ½" tongue on all four edges.
² Includes ¾" tenon on each end.
³ Includes ¼" tenon on each end.
* These are net measurements. Surplus should be added to all dovetailed parts to allow them to be sanded flush.
Ten-Drawer Chest, shop-drawing
Ten-Drawer Chest, shop-drawing

Making The Trestle Table

Trestle Table
After the material has been dimensioned, lay out, joint and glue the stock for the top. Construct the leg assemblies next.
After laying out the feet but before profiling them on the band saw, cut the 2"-deep mortises that will receive the leg tenons. This can be done on the drill press, clamping the work to a tall fence custom-made for this operation. You can also cut the mortises by hand, securing the work in a vise, then removing the bulk of the waste with a drill bit, and cleaning up the mortise walls with a chisel. Similarly, cut the through mortises in the two cross braces. Profile the feet and cross braces on the band saw.
Then, fashion the leg tenons. You can do this on a table saw fit with a stack of dado cutters or by hand using a tenon saw. After fitting the tenons into their mortises, glueup the two leg assemblies.
Shape the stretcher and fasten it to the top of the cross braces with half-notch joints. The top is held in place with wood screws passing through oversized holes in the braces. These oversized holes allow for expansion and contraction of the top in response to seasonal changes in humidity.
The original table was built of cherry with pine used for the drawer back, sides and bottom. The exception was the drawer front, which was made of maple. Because of this, Kassay suggests the possibility that the drawer might have been added at some time after the completion of the original table, a notion further supported by the drawer's extremely (and impractically) short front-to-back depth, a feature that suggests that the drawer wasn't fully integrated into the table's design.
With the exception of the grooves that must be ploughed on the outside faces of the drawer sides, drawer construction is conventional, with through dovetails at the rear and halfblind dovetails at the front.
After fitting the drawer, sand and finish the table and drawer.
the underside of the table
the underside of the table
1 These photos show the underside of the table. Note the washers under the heads of the screws holding on the top. These are necessary because of the oversized holes drilled through the cross braces. Note also the drawer runner affixed to the inside face of the cross brace.
Materials List :
Table
A.
Top
1
pc
1/2  x  17 1/2  x  30 5/8
B.
Leg
2
pcs
7/8  x  3 5/8  x  20 7/8
C.
Foot
2
pcs
7/8  x  7 1/2  x  16 1/8
D.
Cross brace
2
pcs
7/8  x  1 5/8  x  16 1/2
E.
Strecher
1
pc
1  x  1 5/8  x  28 3/4
F.
Drawer runner
2
pcs
1/4  x  3/8  x  7
G.
Screws
various
Drawer
H.
Front
1
pc
1/2  x  2 5/16  x  21 3/4
I.
Side
2
pcs
3/8  x  2 3/16  x  7 1/8
J.
Back
1
pc
3/8  x  2 3/16  x  7 1/8
K.
Bottom
1
pc
1/4  x  7  x  21 3/8
L.
Pull
1
pc
1/2  x  1/2
-----------------
* These are net measurements. A surplus should be added to all dovetailed parts to allow them to be sanded flush.
* Pull was ordered from Constantine's Hardware.
Making The Trestle Table, shop drawing

Making The Footstool

Footstool
Construction begins with the legs since they are the most time-consuming components. Rip out 2X2 stock, cut to length, and center on the lathe. First, turn the 1/2 X 7/8" tenon on the top of the leg. Care must be taken in sizing the tenon so that a tight fit can be achieved. In my shop, 1 begin tenon sizing with a gouge, reducing the stock to 1/16" over its finished diameter. Then, with a flat (paring) chisel laid bevel side down on the tool rest, I bring the tenon to its final size, checking frequently with calipers. (Charles Harvey, a chairmaker in Berea, Kentucky, uses an open-end wrench to check tenon diameter.)
After sizing the tenon, give the leg its rough shape. Then form the coves and beads.
The frame is next. After dimensioning the stock, cut miters on each end of the frame components. Then, on a table saw fit with stack of dado cutters tilted to a 45° angle, cut the dado for the spline on each end of every mitered piece.
the structural parts of the stool
This photo shows the structural parts of the stool.
Then rip out spline stock to a width of 2 1/16". Thickness to 1/4". When you have achieved a tight fit in the dadoes, crosscut the individual splines from the length of spline stock. Remember that the grain of the finished spline must run perpendicular to the mitered faces of the pieces being joined.
Assemble the splined and mitered frame. When the glue has dried, glue the triangular glue blocks in each corner and screw them into place. Take exact measurements for the screw strips and cut and install the strips.
The top of the footstool is a piece of 5/8" wood stock on which a piece of 1/2" foam padding has been placed. This is held in place by upholstery cloth wrapped around the top and stapled underneath.
Turn four screws up through the screw strips into the bottom side of the top to hold it in place.
Footstool, shop-drawing
Materials List :
A.
Side
2
pcs
13/16  x  2 1/16  x  12 3/8
B.
End
2
pcs
13/16  x  2 1/16  x  8 7/8
C.
Leg
4
pcs
2  x  2  x  5/8
D.
Glue block
4
pcs
1 1/4  x  2 1/16  x  2 5/8
E.
Screw strip
2
pcs
13/16 x 7/8 x 8 7/8,  length to fit
F.
Spline
4
pcs
1/4  x  2 1/16  x  1/2
G.
Top
1
pcs
5/8  x  8 7/8  x  12 5/8
H.
Foam
1
pcs
1/2  x  8 7/8  x  12 5/8
I.
Fabric
1
pc
14  x  18
J.
Screw
various
AIR-DRYING LUMBER
Lumber is expensive.
Beautiful lumber is very expensive.
One way to avoid these high prices is to switch from the expensive kiln-dried lumber available at retail outlets to the much less expensive green lumber available at sawmills. Preparing green lumber for use does require labor and time, but the cash savings can be enormous.
Before the green lumber can be air-dried, a solid foundation for the drying pile must be built.
First, you must choose an acceptable location. Drying piles are not beautiful things. For that reason a backyard might be a better choice than a front yard. Air movement is also important. The site should also be open enough so that wind can blow through the pile to aid in reducing the moisture content. Finally, it should be situated on a slight grade so that water can run off whatever roofing material is placed atop the pile.
Begin the foundation with six concrete blocks set in two parallel rows of three. Set these so that the length of each row (measured from outside to outside of the end blocks) is about 8'. Again, measured from outside to outside, place the rows about 4' apart. Make some effort to get the tops of these blocks into the same plane. Later, you can use shimming to correct minor inaccuracies.
Next, lay a row of railroad ties along each row of three blocks. Set these so that their top surfaces are in the same plane. You can check this by sighting across the ties from the side, shimming where necessary.
Then, set five 4' lengths of 4X4 across the ties at 20"-24" intervals. Again, these must be in the same plane because any twist in the foundation will be transferred to the drying lumber, in some cases making it unusable. Sight along the length of the pile from either end to reveal any twist in the alignment of the top surfaces of the 4 X 4s.
Air-drying lumber requires a large quantity of stickers, sometimes called sticks. These are nothing more than 1" X 1" X 48" dry hardwood rips which separate the layers of drying lumber so that air can pass freely through the pile.
Once you have ripped out the stickers, the actual lumber pile can be constructed. First, place a single 1" X 1" X 48" sticker along the center line of each 4x4 support. Then, place a layer of green lumber perpendicular to and atop that first layer of stickers. As you are laying out these boards, take care so that an air space (approximately 1") is left between the edges of the boards.
When that first layer of lumber has been positioned, place a second set of stickers across that layer directly above the first row of stickers. Then add a second layer of lumber, followed by another set of stickers and another layer of boards and so on until you have stickered all the green lumber.
Professional driers often build these piles to a height of 12'-14', but I find that if the top of the pile is more than five or six feet above the ground, it becomes too difficult to get the lumber up and down.
Complete the pile with a water-shedding top. It doesn't need to be fancy. A couple of sheets of roofing metal will do, as will a tarp, or even a layer of knotted and checked lumber—anything that will keep water from percolating down through the pile.
Now, wait. The traditional rule-of-thumb states that material should air-dry outdoors one year for each inch of its thickness. I usually exceed that time allotment, although on a couple of occasions, in a pinch, I brought lumber inside after only six months. However, those six-months did include the prime drying seasons of summer and fall.
After air-drying outdoors, you can take the lumber to a commercial kiln for finish drying or bring it inside and sticker it again in a warm, dry room for a few additional months It's then ready to use.
Much has been written about the importance of using kiln-dried material, and retail outlets often brag about the fact that the moisture content of their stock has been reduced to 7 percent.
I think this is misleading. Yes, the lumber might have had a moisture content of 7 percent on the day it was taken from the kiln. But wood is not an inert medium. After leaving the kiln, its moisture content immediately begins the process of moving toward a point of equilibrium with the relative humidity of the surrounding air.
That means that if a craftsman took that 7 percent board to his shop in Death Valley, California, that 7 percent would soon become 4 percent or 3 percent. And if I took that same 7 percent board to my shop in central Ohio during the steamy month of July, that 7 percent moisture content would quickly become 11 percent or 12 percent, which is the same as the moisture content of the material I've prepared for use by air-drying.
Footstool, the layers of drying boards
The 1" X 1" stickers are arranged perpendicular to the layers of drying boards. These stickers provide a space through which air can move to hasten the drying process.

Making The Side Table With Curly Maple Drawer

Making The Side Table With Curly Maple Drawer
Joint, glue and clamp the boards selected for the top and set aside. Next, fashion the legs.
Rip and joint the leg stock to 1" X 1", and draw the tapers on the front and side of each leg. At the base of the apron, these two faces measure the full 1" X 1". At the floor, the legs measure 9/16"X 9/16". Then cut the tapers on the band saw, keeping the blade well to the waste sides of the taper lines. Finish the taper with a hand plane, while holding the stock in a vise.
The table's dainty turned foot is blended into the flat, tapered sides
The table's dainty turned foot is blended into the flat, tapered sides.
Next, center the leg stock so that it can be loaded into the lathe prior to turning the feet. On the narrow end of each leg, this is simply a matter of drawing diagonals across the end grain. On the other end of the leg, however, finding the center is a bit more complicated because you don't want the actual center of the 1"X 1" end grain square. What you do want is the center of the 9/16" X 9/16" end grain square directly in line with the square on the opposite end of the leg. To find this, draw a square measuring 9/16" X 9/16" on the end grain with two sides of that square directly on top of what will become the outside edges of that leg. Draw diagonals on this square to find the center.
Then mount the leg in the lathe. In order to eliminate the fraying of corners that can occur when a round shape is turned immediately adjacent to a square shape along the length of a turned part, relieve the four corners of the leg with a knife just above the turned foot. Blend this cut into the round tip of the leg with a lathe tool. Finally, clean up with a chisel, knife and sandpaper.
The thin contrasting band inlay adds the perfect touch to this tabletop
The thin contrasting band inlay adds the perfect touch to this tabletop.
Next, cut the mortises that will receive the tenons on the ends of the apron parts and drawer rails. Set these so that the outside faces of the apron parts are recessed 1/8" from the outside faces of the legs. Set the drawer rails, however, so that their outside faces are flush with the outside faces of the legs. When the mortises are fit, assemble the table frame. Next, install drawer runners and kicker strips. Fit the kicker strips with oversized holes, through which screws will pass into the top. The oversized holes allow for expansion and contraction across the width of the top in response to seasonal changes in humidity.
Next, make the drawer. Construction is standard, with through dovetails at the back and half-blind dovetails at the front.
After leveling and smoothing the top (see Making The TV Riser), the top and drawer front are inlaid. This process, which is covered in chapter seventeen, is built around the capabilities of the hollow-ground planer blade.
Affix the top to the table frame, turn a pull from a bit of cherry scrap, and sand and finish the table.
Making The Side Table With Curly Maple Drawer, shop drawing
A strip of cherry is inlaid across the width of the drawer's curly maple front
A strip of cherry is inlaid across the width of the drawer's curly maple front. Similarly, a strip of curly maple is inlaid across the width of the table's cherry top. Note the peg driven into the tenon of the drawer rail below the drawer front.
Materials List :
Table
A.
Top
1
pc
11/16  x  14 5/8  x  24 1/2
B.
Apron side
2
pcs
13/16  x  14 11/16  x  11 3/8
C.
Apron back
1
pc
13/16  x  14 11/16  x  18
D.
Drawer rail
2
pcs
13/16  x  1  x  18 *
E.
Leg
4
pcs
1  x  1  x  22
F.
Drawer runner
2
pcs
13/16  x  1  x  9 7/8
G.
Kicker strip
2
pcs
13/16  x  1  x  9 7/8
H.
Inlay
2
pcs
3/32  x  3/32  x  14 5/8
I.
Screw
various
Drawer
J.
Front
1
pc
15/16  x  3  x  16 7/16
K.
Side
2
pcs
1/2  x  3  x  10
L.
Back
1
pc
1/2  x  2 1/2  x  16 7/16
M.
Bottom
1
pc
1/2  x  9 5/8  x  15 15/16
N.
Pull
1
pc
5/8  x  1 1/4
O.
Inlay
2
pc
3/32  x  3/32  x  3
----------------------------------------------
* Includes ¾" tenons on either end.
* These are net measurements. Surplus should be added to dovetailed parts to allow them to be sanded flush.

Making The Shaker-Style Mirror

Shaker-Style Mirrorr
Begin construction with the mirror itself. After thicknessing the frame stock, cut the 1/2" X 3/8" rabbet on what will become the back, inside edge of the frame. (This rabbet will ultimately receive the glass and the glass backing). Form a radius on the two front edges of the frame stock.
Then miter the frame parts. You can do this on a miter box or a table saw or radial arm saw using a very finetoothed blade. At this point, cut the slots for the feathers that will later join the frame parts. You can cut these by hand with a tenon saw or on a table saw fit with a hollowground planer blade, using a Universal Jig to control the stock as it is passed over the blade. Precision is important in the cutting of both the miters and the feather slots as these joints comprise the entire inventory of joinery in the mirror frame. Any error in these processes is very difficult to hide.
The feather stock is then thicknessed and slid into the slots, marked, and cut. The frame is assembled with glue.
The hanger consists of only three parts: the blade, the shelf and the shelf front.
Making the Shaker-Style Mirror
The walnut wedges in the mirror frame corners are not only beautiful, they also add structural support.
Fashion the blade first. After cutting its shape on the band saw, facet the top edges. Do this by hand, guided by a marking system similar to that used in the hand manufacture of the raised panel in chapter one. First, draw a line down the center of each edge to be faceted. Then draw lines on the front and back faces of the blade adjacent to these edges. These lines should be placed about 3/16" from the corners. Then, by using a wood file to create planes, join the lines down the center of the edges and the lines on the blade's faces. You could create these planes freehand, but the reference lines make it much easier to produce regular shapes.
Cut a dado on the back edge of the shelf, and position the blade in that dado, holding it there with a bit of glue and two 1½" no. 12 wood screws.
Then profile the shelf front on the band saw and facet all except the top edges in the same manner as that used for the top edges of the blade. Glue this to the front edge of the shelf.
After sanding and finishing the wood parts, place the mirror glass and a matt board backing inside the rabbet cut in the back side of the mirror frame. Hold both in place with the protruding heads of a half-dozen wood screws turned into the sides of the frame rabbet.
Making the Shaker-Style Mirror
1.
Clamp a piece of mitered frame stock in the Universal Jig prior to passing it over the hollow-ground planer blade. Notice that the frame stock rests on its mitered tip and is clamped in the jig at a 45° angle.
Making the Shaker-Style Mirror
2.
The faceting at the top of the blade can be seen in this shot. The same faceting is used on all but the top edges of the shelf front.
Shaker-Style Mirror - Shop Drawing
Materials List :
Mirror
A.
Sides
2
pcs
3/4 x 1 1/4 x 19 7/8
B.
Top and bottom
2
pcs
3/4 x 1 1/4 x 13 5/16
C.
Feather
4
pcs
3/32 x 1 1/8 x 2 1/8
D.
Mirror glass
1
pc
1/8 x 11 11/16 x 18 1/4
E.
Mirror backing
1
pc
1/8 x 11 11/16 x 18 1/4
Rack
F.
Blade
1
pc
5/16 x 3 x 24 7/16
G.
Shelf
1
pc
7/8   x 1 3/8 x 13 3/4
H.
Front
1
pcs
5/16 x 3 1/8 x 14
Hardware
I.
Brass eye hook
1
pc
¾ x 15 x 19 ¾
J.
Brass chain
K.
Screws
various
Adhesives
Several of those—for example, hot melt glues—are available in different formulas for different applications. These different formulas increase the actual number of choices to sixteen.
Sixteen kinds of glue?
Without devoting significant time to study and experimentation, no woodworker is likely to make the perfect adhesive choice for any particular application. And who wants to spend hours studying adhesives?
In my shop, except for specialized applications (for example bonding Formica-like products to wood), I've reduced the adhesive inventory to three choices: white glue (plain old Elmer's), yellow glue, and hide glue, all of which are more or less appropriate for any wood-towood joint.
Each of these three types forms a bond that is stronger than necessary for wood furniture. The primary differences are the amount of working time they allow, the ease with which joints they've bonded can be disassembled, and the convenience of their application.
Hide glue allows for relatively easy disassembly when making repairs and also offers the woodworker the longest working time. It's available in two forms, each of which, unfortunately, has its own set of drawbacks. Traditional hide glue, which comes in flakes or pearls, must be mixed with water and kept heated to a temperature of 140-150° F. Then, after a few days, it must be thrown out and a new batch mixed because, once mixed and heated, it quickly loses its strength. All of this is a significant inconvenience for the owner of a small shop.
The other form comes premixed in squeeze bottles just like white and yellow glues. Unfortunately, however, its shelf life is shorter than white or yellow glue and much shorter than the dry form of hide glue.
In terms of convenience, both white and yellow glue are clearly superior to hide glue. They come premixed in easy-to-use squeeze bottles. They have long shelf life if kept from freezing, and they form an all-but-unbreakable bond between two pieces of joined wood.
There are, however, drawbacks to their use. First, because the bond they form is all-but-unbreakable, a piece assembled with these glues is very difficult to repair. If a yellow- or white-glue-assembled chair comes into my shop needing a new rung, I have to explain to the customer that I can't predict the cost of the repair.
Whereas a chair assembled with hide glue can be disassembled by applying warm water to a tight joint, thus allowing a fairly predictable repair time, the same chair assembled with white or yellow glue may resist my best efforts at disassembly. On more than one occasion, I've broken the slab seat on an old Windsor trying to break loose parts that have been joined with white or yellow glue.
The second problem associated with the use of white and yellow glues is short assembly time. When using these products, a woodworker may have only ten or fifteen minutes to get parts aligned and clamped before the glue grabs and adjustments become all but impossible to make. The time constraints applied to the assembly process by white and yellow glues add stress to an already stressful procedure.
In my shop, I follow these guidelines when choosing an adhesive:
  1. For large, complex pieces with a high dollar value (pieces for which one could justify the cost of making repairs). I use hide glue.
  2. For pieces requiring lenghty assembly time, I use hide glue.
  3. For all other applications, I turn to the ease and convenience of white and yellow glues. For example, all the pieces in this book were assembled with one of those two varieties, the choice being determined by the proximity of the glue bottle to my hand when it was time to glue something up.

Assessing And Dealing With Movement In Wood, Starting With Drying

Coping with stress
Wood is not inert - it moves! This fact should be uppermost when designing or making anything in wood.
coping with stress
End-grain, split and unpainted.
I do not intend to go into great technical detail concerning the physiological reasons for such movement, but rather to concentrate on the practical steps to take to avoid furniture-making disasters.
I am assuming that the timber purchased has been air - and kiln - dried, and that the finished piece is intended for use in a centrally heated house.
The movement I am addressing here is not that caused by bad making or unsuitable design, but by the inherent nature of the wood itself.
It's of two types - movement caused by the release of stresses in the fibres by machining and dimensioning, and that caused by changes in moisture content.
Air-drying
Timber in the round may contain half its weight in water, so the felled tree must first be cut into boards and left to dry out.
Once cut to thickness the boards are separated by sticks about 25mm (1in) thick which are stacked outside to dry.
The ends are painted or have a stick nailed to them to slow down the more rapid loss from the end-grain, so reducing splitting or checking.
During the drying the stresses released by cutting the fibres of wood, and those caused by the drying process itself, balance out. This takes about one year per inch thickness of the board.
The wood can then be said to be seasoned, air-dried and suitable for outside use. Very little general shrinkage takes place during air-drying.
I had been in the old workshop - a modern double garage, warm and dry but lacking adequate natural light - for ten years. Of course it wasn't big enough, but no workshop ever is.
I started my business there and the layout 'growed like Topsy' with me, and was due for a face lift.I wanted a nicer, safer, healthier, more efficient working environment, with more light, heat, ventilation, storage and working area and less dust, moisture and clutter, with pleasing decoration and proper fire, security, health and medical precautions.
Not much to ask.
Kiln-drying
The timber must now be dried further for inside use. It is placed in a sealed cabinet or kiln, and the humidity level artificially reduced to the required level. The wood loses more water until it is suitable for internal cabinet work.
end-grain, split and nailed
End-grain, split and nailed.
The majority of the shrinkage occurs during this process.
I have given no figures, percentages of water by weight or relative humidity levels because these are difficult, expensive to measure and not constant.
Air-drying is to the average humidity level in that place at that time. Kiln-drying depends on the operator, and the level to which the wood is taken.
How long the wood has been out of the kiln, how it was stored before purchase, and how it is treated afterwards can also have a significant effect on the moisture content.
" Don't keep it in a damp garage with wet cars coming in and out, or even a dedicated timber store if it is not heated and damp-proofed "
Buying timber
A reputable timber merchant with whom a good relationship can be established is worth his weight in gold. Explain your requirements, ask when it was cut and how long it was air-dried, to what level it was kilned, and buy the best quality material you can afford.
quarter-sawn oak end-grain table
Quarter-sawn oak end-grain table.
Observe the storage conditions, feel the weight and touch the surface.
I long ago realised that the selection, felling, conservation, drying and storage of timber is a very highly skilled task, one that is best left to experts. What I want to do is make furniture well out of materials I can trust. It is important, however, to take responsibility for the material when it comes into the maker's care, to understand the principles and apply them, and to put the final touches to the process.
Storing timber
Once timber leaves the kiln it starts to adjust its moisture content to its surroundings, so it must be stored in conditions as close as possible to those in which it is to live as a piece of furniture.
end-grain, painted
End-grain, painted.
Don't keep it in a damp garage with wet cars coming in and out, or even a dedicated timber store if it is not heated and damp-proofed.
Keep shocks of timber in the warmest, driest conditions possible - in my case the area between the beams in my insulated workshop roof.
If the storage temperature and moisture conditions are close to those of the end use, the timber can be stored and conditioned with sticks between the boards, allowing free air flow.
Make sure the sticks are lined up directly over each other so that the weight is borne through the sticks and the boards are not deformed.
Sheets of newspaper can be placed between the boards instead to suck some of the moisture out.
If the storage conditions are not as dry as the end use conditions store the boards flat on top each other, with no air gap, and cover with a waterproof sheet to minimise the moisture intake.
Moisture movement
The main movement takes place not in the length but across the grain. Movement per inch along the circumference of the growth ring is about twice that per inch between the growth rings.
From this understanding it should be apparent why quarter-or radially-sawn wood is more stable than tangentially sawn, see diagrams.
The key to understanding moisture-related movement in wood is in being aware that the major amount of movement occurs when the moisture content is reduced from air-dried to a level suitable for interior furniture use and vice versa.
Wood will always move if its moisture content changes, and it will always try to equilise is moisture content to its surrounding environment, absorbing moisture from damp air and losing it to dry air.
tangentially-sawn elm end-grain table
Tangentially-sawn elm end-grain table.
As it absorbs moisture it will swell and as it loses moisture it will shrink-no matter how old the wood.
The level of moisture in the air varies from summer to winter, warm summer air holding more water than that of cold winter. When this winter air is brought inside and centrally heated it can hold more water, which it takes out of its suroundings.
" The desk shrank, took up all its allowance and cracked along the top. My client said that when they entered the room they had to hang out of the windows to breathe! "
Drying effect
drawer casings in stick with a weight on top
Drawer casings in stick with a weight on top.
This is the drying effect which cause shrinkage in wood. The change of moisture content in the air - relative humidity - together with temperature and weather conditions, causes most solid wood furniture in a centrally heated environment to be in a constant state of movement from summer to winter.
If tends to swell in summer and shrink in winter, but fortunately wood reacts slowly to changes of humidity so the movement is gradual.
Moisture content change varies according to the variety of timber. I usually allow for about 3 mm (1/8 in) movement per 300mm (12in)of width of board across the grain direction in normal conditions, but adjustments must be made in the light of experience, and the end use conditions.
labournum oysters showing growth ring circumference and spacing
Laburaum oysters showing growth ring circumference and spacing.
If follows, then, that establishing the likely conditions in which the piece will end up is important when judging the allowance for movement.
A desk I made recently in best quality, kiln-dried, quarter-sawn oak (Quercus robur) was left in a room unoccupied for some weeks in mid winter, with the radiators left inadvertently at full chat with no thermostats!
The desk shrank, took up all its allowance and cracked a full 3mm (1/8 in) along the top. My client said that when they entered the room they had to hang out of the windows to breathe!
Fortunatelly he accepted responsibility and a repair was made to everyone's satisfaction.
more shrinkage on the long outside rings causes checks and cracks
Laburaum oysters showing growth ring circumference and spacing.
After six weeks near a radiator in Bowes Museum the drawers of the Apothecary's Chest in burr elm (Ulmus procera), simply wouldn't open. I was puzzled until I discovered that the museum has humidifiers to protect all the artefacts that don't like central heating, and the wood had swollen, not shrunk as I had expected.
A few days in my warm, dry workshop with the drawers out to allow good air circulation, and some small adjustments, rectified the problem and it is now ready to live in a house again.
Secondary machining
board
Left: Small amount of growth ring circumference included, movement fairly even and at right-angles to the faces, minimising distortion.
Right: Little movement in the thickness of the board - between the growth rings - but a lot of movement along the circumference, causing the board not only to shrink but to distort or 'cup'.
Wood is constructed of fibres all pulling in slightly different directions but balancing each other out. When the wood is sawn or planed some of the fibres are cut, releasing the pull they were exerting, and allowing the remaining fibres to pull the wood into another shape.
The released of stresses is usually a relatively short-term effect in seasoned timber, and once complete should stabilise. If the wood is clamped in position, some of the stresses will be taken out by streching the remaining fibres, thus minimising the distortion.
home-conditioning cabinet or kiln
Home-conditioning cabinet or kiln.
Properly sessoned, kiln-dried timber is stable on starting a job, but dimensioning it on the planer or saw cuts other fibres, releasing other tensions.
To minimise the resultant distorsion, cut the pieces oversize and leave to settle overnight - or longer - on stickers, under a weight, in a warm dry place.
Finish to size and again store the pieces on stickers with a weight on the top until needed.
Workshop conditions
A warm dry workshop is a prerequisite to serious cabinet-making.
Look at the basic construction - aesthetics count for nothing if it is damp, or can't be heated.
HOME-KILNING
A KILN OR conditioning cabinet for home use for small amounts of timber can be made easily. Its box construction uses a home dehumidifier to remove the water from the air and from wood stacked inside.
Make the box as air-tight as possible and line it with polythene to prevent fresh damp air entering, or moisture permeating the walls.
The humidifier should be set to the manufacturer's recomended level for domestic interiors, and the water it removes from the inside air piped to the outside.
The wood should be stacked as for air-drying, with plenty of room to allow the air to circulate.
The wood must be air-dried and seasoned first to allow as much water as possible to be removed, the machining stresses to stabilise and the distribution of water in the wood to even out.
This secondary drying process in the home-made kiln should be gentle, with plenty of time allowed.
Assume thoroughly air-dried wood has a water content of 20% by weight. Weight a test piece and mark its weight on it. After about a month in hte 'kiln', re-weigh the test piece; when it has lost about 8% of its original weight it is about ready.
I would recommended that the dehumidifier is not left on all the time, but is switched off every fourth day or so to allow the water in the wood to distribute itself evenly.
I use it very successfully for burr elm (Ulmus sp), which I find difficult to get commercially kiln-dried.
The cabinet can also be used to condition klin-dried timber for a week or two as a precaution before making it up. Again, the timber is dimensioned slightly oversize and stacked on sticks in the cabinet for a few days.
The longer such timber has been out of the kiln, or in poor storage conditions, the more important this is.

Making The TV Riser

TV Riser
First, the material that will make up the riser is glued together.
Then, dress down the glued-up panel to a flat surface and a consistent thickness. In a shop with a big planer, this involves nothing more than feeding the stock into the machine; but in a small shop, like mine, this 15" panel must be flattened and smoothed with hand planes.
If the boards used to create the panel were all flat and all aligned correctly at glue-up, you may not need to do more than scrape away the glue squeeze-out and make a couple of token passes with a jack plane. However, boards are rarely flat, often undulating along their lengths like bacon. In such cases, more substantial plane work may be needed.
I begin by exchanging the regular iron in my jack plane for one that's been crowned across its width. This shape eliminates the sharp corners on either side of the iron's width, corners that can dig too deeply into the planed surface when the craftsman is attempting to remove material quickly. With this crowned iron, it's relatively easy to remove significant amounts of thickness. It does, however, leave a rippled, rather than smooth, surface, so it must be followed by a plane fit with a conventional iron.
Next, cut the grooves into which the scrollwork will be inset. You can cut the groove across the bottom face of the top panel in one pass over a table saw fit with a 3/8" stack of dado cutters. But the grooves in the two end panels must be handled differently. Because the scrollwork is only two inches high, stopped grooves are necessary.
You can cut these freehand with a mallet and chisel or start them on the table saw and finish them by hand.
The scroll is then thicknessed, ripped to width, and profiled on the band saw.
Following the procedure discussed in chapter twentyfive, cut the through dovetails joining the end and top panels. Then, glue-up the riser around the strip of scrollwork, and plug the holes in the ends of the grooves.
Cutting A Stopped Groove On The Table Saw
Cutting a stopped groove on the table saw
1.
To match the 2" height of the scrollwork, the groove must stop 23/8" from the top of the end panels. The extra 3/8" provides for the 3/4" top minus the 3/8" groove cut into that top. The arrow penciled on the fence marks a point 2 3/8" past the leading edge of the dado cutters.
Cutting a stopped groove on the table saw
2.
When the end panel is fed into the cutters as far as the penciled arrow, the cutters have advanced the groove 2 3/8". (Due to the circular shape of the dado cutters, a bit of material will remain in the end of the groove. This is removed with a chisel.)
TV Riser - Shop Drawing
Gluing-Up Panels
Gluing-Up Panels
1.
Matching figure and color is the first step. Here, two walnutboards with sapwood edges are being matched.
Gluing-Up Panels
2.
These two pieces of cherry were both cut from the same board, assuring a consistent color. Also, making the joint at the edges of the board where the lines of figure cluster close together helps to produce an invisible glue line.
Gluing-Up Panels
3.
A wash of mineral spirits reveals color, enabling you to achieve better matches.
Gluing-Up Panels
4.
Once you have matched (or, as in this case, contrasted) color and grain, form glue joints (the lowly butt joints) on the edges of each board. These joints consist of nothing more than flat, straight planes 90° from the board's adjacent surfaces.
You can create the joint by hand, using a jack or jointing plane. However, this is fussy work requiring experience and a steady hand. You can also create the joint on the jointer, a stationary power tool designed to perform this very task.
After cutting the joints, coat each edge with glue and align them in pipe or bar clamps. These are necessary in order to bring the joints tightly together.
Clamp arrangement should follow the pattern shown above. Position them no more than 12"-15" apart on alternate sides of the panel. After a couple of hours, you can remove them; within eight hours, you can work the panel.
Materials List :
A.
Top
1
pcs
¾ x 15 x 19 ¾
B.
End
2
pcs
¾ x 15 x 9 7/8
C.
Scroll
1
pcs
3/8 x 2 x 19
D.
Plug
2
pcs
3/8 x 3/8 x 3/8, shaved to fit
*These are net measurements. Surplus length should be added to all dovetaild parts to allow them to be sanded flush.

How To Get A Step Nearer To Furniture-Maker's Heaven With A New Workshop

Moving Experience
Get a divorce, leave your job, even change your bank, but don't move your workshop
Of course I can only offer whis advice after the event, and few people learn from the mistakes of others...
Having decided to move house, and finding another with a potentially much nicer workshop, I set about the project with a star in my eye. I even managed to persuade senior management that the first priority was to establish the new workshop properly before starting on the house improvements and new furniture.
"Saying goodbye to all those off-cuts which had been kept just in case"
Packing up
Packing up was full of emotion saying goodbye to all those off-cuts which had been kept just in case ...the awful piles of ageing dust, dirt and encrusted cobwebs... the happy reunions with long-lost small tools.
Cradles had to be constructed to enable cast-iron machines to be manouvered up the stairs to my new first floor workshop - in all several weeks of hard labour, with time to focus on the improvements to be incorporated at the new location.
out with the old after ten years, kevin ley is leaving all this
Out with the old-after ten years, Kevin Ley is leaving all this
I had been in the old workshop - a modern double garage, warm and dry but lacking adequate natural light - for ten years. Of course it wasn't big enough, but no workshop ever is.
I started my business there and the layout 'growed like Topsy' with me, and was due for a face lift.I wanted a nicer, safer, healthier, more efficient working environment, with more light, heat, ventilation, storage and working area and less dust, moisture and clutter, with pleasing decoration and proper fire, security, health and medical precautions.
Not much to ask.
Lighting
The new workshop is the upper floor of a modern, two storey 20ft by 20ft double garage. It is of block construction with a sound floor supported by an RSJ, and a good sized window at each end. Power and water were connected. The ceiling annoyingly slopes into the room, but a small loft is usable.
splendid new workshop
Splendid new workshop, outside...
The windows provide good natural light and ventilation but goood artificial light is also a must, so I installed a mix of general fluorescent tube lighting - with daylight tubes - and dedicated spot lights for specific areas.
I prefer a number of adjustable spot lights, fixed in the correct place, to portable lights moved around as required. They are safer and leave the bench and power points clear. Of course portable spots are still required occasionally.
Insulation
The solid walls needed insulation and vapour barrier. British Gypsum's technical department told me about a plasterboard which has insulation bonded to its back and an integral vapour barrier, which can be glued directly on to the existing wall with a special adhesive.
I discussed costs and insulation value with my builder's merchant.
Clear installation and finishing instructions are available and it was very simple to fit and finish the board to a high standard, providing heat, sound and moisture insulation plus a smooth finish all in one go - well worth it.
The ceilling was also insulated with rolls of 100mm fibreglass.
These forms of insulation are particularly good in intermittently-heated buildings, and for controlling condensation, because they are on the inside of the wall, closest to the heat source.
Draught-proofing was also installed.
"Triggering either alarm sets off both to give warning of impending doom at that location"
how long will it look like this
... and in. How long will it look like this!
Dehumifier, heat
I installed an Ebac domestic model dehumidifier to keep conditions suitablefor working in solid wood. I don't use it churing the day when I am in and out and the air is changing, but I do find that it makes a useful difference if left on while the Workshop is closed down overnight and at - some - weekends.
For heat I like to burn workshop waste; this is cheap and environmentally friendly provided a clean-burn system is used, but it must be done safely in properly designed, efficient stove.
The Relax stove is designed for the job, with all accessories available, and produces a phenomenal heat output.
The suppliers at The Hot Spot gave me a great deal of useful advice concerning size of stove required and flue arrangements, siting and precautions.
Good housekeepin, care and common-sense should be applied to the siting and use of such a stove, and of course, fire precautions, extinguishers and alarms are essential.
The house and workshop alarm system includes a workshop heat detector and a DIY-type of ionising smoke alarm; this tends to be less affected by dust than the optical type. One alarm head is linked in the workshop and another in the house.
Trigerring either sets off both to give warning of impending doom at that location. They are available at electrical suppliers, for about £10 per alarm head.
SAFETY AND SECURITY
I tried to imagine all the things which could happen - fire, electric shock, minor and major injury, break-in and so on, deciding what I would need to do, and what I would need to do it with in order to deal with the situation. Then I thought of what I could have done to prevent it happening in the first place!
Some areas I covered were :
Fire - precautions, extinguishers, alarms
Electrical - cut-off switches, notices, correct fusing, first aid and immediate action training for shock
Medical - first aid training, medical kit, immediate action required in case of serious injury
Security - locks and alarms
Dust - dust explosions in workshops are not unknown.
My wife was - willingly - included in all the training and planning, as she is most likely to be first on the scene if I am incapacitated.
I took advice from relevant experts, added a bit of common sense, made my plans and installed the necessary equipment.
Wood store
assembly area, incorporating the all important HiFi
Assembly area, incorporating the all-important HiFi
I converted the small loft over the workshop into a wood store by sealing the overlaps of the inside roofing felt with strong tape, available from builder's merchants, to vapour-seal and draught-proof it.
The floor was boarded over and racks made to store the wood. Sealing the wood store in this way means the dehumifier can be used to keep the wood conditioned ready for use.
Again, I installed a small Ebac dehumifier which is run for intermittent periods when the wood store is closed up for some time.
Dust and air
WV 2000 dust extractor with under floor trunking
WV 2000 dust extractor with under-floor trunking. Planning at the moving-in stage allows for efficient installation
I was determined to do all I could to reduce workshop dust. The technical department at Axminster Power Tools designed a dust extraction system to meet my requirements, based around their WV 2000 vacuum dust extractor which I was able to mount downstairs in the garage.
This type of dust extractor filters the fine dust out as well as collecting the chips and shavings.
I was connected to the static machines upstairs by an under-floor ducting system, mainly comprising standard 4in rigid plastic soil pipe. The system can be reduced down to small diameter hose for use on sanders, routers and the like.
By using the extractor points and blast gales for the fixed machines, along with a small portable hose and nozzle, I can even vacuum the floor with it.
All the various connection and fittings required to tailor - make a system are available from APTC, whose technical department are extremely helpful with design and advice.
Microclene air filter mops up ambient dust
Microclene air filter mops up ambient dust
The system works very well, providing a noticeable difference in environment.
The noice level from the WV 2000 extractor is quite high, so siting it out of the workshop is a great advantage. The downside is that in winter it will suck out my precious warmth, so I may duct the filtered warm air back into the workshop in due course.
I installed a Microclene air filter to complement the extractor by filtering, cleaning and recirculating the ambient air. Because of its noise, it is used spesifically to clean the air of dust not extracted by the main system - by hand-sanding and routing for instance.
It accomplishes this effectively in about 20 minutes - if only someone would combine this air filter with a dehumidifier at a sensible price...
"If only someone would combine this air filter with dehumidifier at a sensible price..."
Local advertising
Now that I am in my new area I have to set up the local business again. That involves letting people know I am here and what I do - after I have fitted the new security locks!
I will employ my tried and tested methods of local press, local shop windows, exhibitions and glossy national mags.
One idea came through my letter box as I was writing this article - a Pits business card with a photo of my work on one side and message and address on the other. They are produced at less than half the price I paid for my las set of ordinary printed business cards, and they are currently offering a further discount.
I was very impressed with their excellent offers and they seem bery accessible to the idea of offering discounts, so it is always worth asking their advice on the matter.
I put a lot of work into this new workshop, trying to learn from my experience in the last one. It won't be perfect I'm sure, but it will be better, and I'm happy that it is a lot healthier.

Making The Four-Board Bench

four-board bench
After the material has been dimensioned, profile the rounded ends of the top, the half round ends on the stretcher, and the circle cutouts on the legs. This can be done on the band saw, but because of the length of the top, it is probably easier to cut this, at least, with a handheld jigsaw.
Next, using a cutoff box on the table saw (or crowded against the fence of the radial arm saw), form the dadoes on the underside of the top. Cut the through mortises cut using the method described in chapter twelve.
Then, on the band saw, cut the through tenons at the tops of the legs. Because of the 1/4"-deep dado, these need only be 9/16" long (1/2" for the tenon and 1/16" to be sanded flush). Then, fit them into their mortises.
Next, cut the edge cross lap joints that will fasten the stretcher to the legs. Two notches are required at each leg. Cut one, 2 1/4" deep, in the leg panel midway between the through tenons. Cut the other, 1" deep, into the bottom edge of the stretcher. The extra 1/4" in the total depth of the two notches is necessary because of the 1/4" dado on the underside of the bench top.
Then cut the notches in the ends of the through tenons using a fine-toothed backsaw. Drill a 1/8" hole from end to end at the base of each notch. This will prevent the tenon from splitting when the wedge is driven into the notch.
After the parts have been dry-fit, glue the joints and assemble the bench.
making the four board bench, shop drawing
Materials List :
Table
A.
Top
1
pcs
¾ x 8 ¼ x 53 7/8
B.
Stretcher
1
pcs
¾ x 3 x 44 ¼
C.
Leg
2
pcs
¾ x 8 ¾ x 16 5/16
D.
Wedge
4
pcs
3/16 x 1 1/8 x ¾
*These are net measurements. A surplus should be added to lengths of through tenons so that they can be sanded flush.
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