Our printing plant is in the final stages of work on “Carving the Acanthus Leaf” by Mary May. And, as always, our books are a creative struggle to the end.
This week we’ve been working on the “diestamp,” the debossed image on the inside of the dust jacket. We take great pains with our diestamps because they will live on longer than our dustjackets. (If you want to see my favorite diestamp, check out the one for “Calvin Cobb – Radio Woodworker!” and see if you can figure out the Easter egg.)
Diestamps are old technology. And though many printing plants can produce amazing covers with holograms, laser cutouts and unusual leather finishes, getting a diestamp with fine detail is a struggle. Almost every time I send our diestamp to the nice people at our prepress service, I am sure they smack their collective foreheads.
Their response is usually: I don’t think we can hold that level of detail without the image blurring.
To their credit, they are willing to try different approaches. Lately, we’ve been using a stamp made from magnesium and some different foils to see if we can achieve the fine lines shown in the samples above. In this case, we found the correct combination of a magnesium die and a cream foil that gave us the effect we’re looking for.
With the diestamp complete, our job is over. It’s up to the printing plant to bring all the different parts – the book block, boards, endsheets, cover cloth and dustjacket – together to complete the book. We haven’t been told when the book will ship, but history suggests it will be in within the next three weeks.
Brass-bound campaign chests that can be split into two parts are likely the most iconic pieces of the style – like the Morris chair of the Arts & Crafts movement. The archetypal British-made chest is mahogany with four rows of drawers, brass corner guards and flush brass pulls. Most chests would fit nicely into a box that is 40″ H x 40″ W x 22″ D.
However, there are lots of variants of campaign chests and details about their construction that you should consider as a maker when you plan to build your own. The following details apply to British-made chests. Campaign chests made in China or India are outside the scope of this book.
As far as dating the chests, a good rule of thumb is that earlier chests had fewer brass corner guards and used pulls that are “skeletonized.” That is, the early pulls look more like the classic swan’s neck type. In addition to the skeletonized pulls, there are also some early pulls that have pointed ends and other shapes. Early chests are also more likely to have moulding than a later chest, though the ornament is usually is more subdued than that on a high-style chest for domestic use.
Because early chests were more likely made as one-off pieces (and not in a manufactory), you are apt to see more variation in their design and construction. So you can encounter (or use) almost any joinery variant of the dovetail family.
Later chests in the mid-19th century became more standardized. More brass was added. The pulls became rectangular and fairly uniform among the manufacturers. From a builder’s perspective, these later chests are well built and are worth studying and reproducing.
Here are some other construction details of the chests, both early and late.
Backs of Campaign Chests The backs of campaign chests can run the full gamut of techniques. I’ve seen frame-and-panel backs all the way down to backs that were simply nailed into a rabbet in the rear of the carcase.
A frame-and-panel back is by far the lightest in weight (because of the thin panels) and adds the most rigidity to the carcase, which is a frameless cabinet that benefits from the rigidity. You’ll also see backs that were paneled (usually via tongue-and-groove) and simple full panels that are inset into a rabbet or a groove. These options are preferred to a simple nailed- or screwed-on back.
Corner Joinery When it comes to the joinery, most of these chests were dovetailed at the corners. Except for the very top board of the cases (which were joined with full-blind dovetails), the remaining tops and bottoms were typically joined to the ends with half-blind (also called lap) dovetails.
On all the examples I’ve examined so far, the tail boards have been on the tops and bottoms, and the pin boards are on the ends of the carcases. This violates the typical practice of putting the tails on the end boards, which makes the joints stronger for lifting.
My guess is that this is for simplicity’s sake. With the tails on the tops and bottoms, these joints are laid out and executed exactly like cutting the joints for a drawer. If you put the tails on the end boards, removing the waste in the blind tails would be a little more difficult. But most of all, it would be a less-common way of cutting the joint.
The tops of campaign chests were typically joined to the ends with rabbeted full-blind dovetails. Details of this joint are covered in the chapter on building campaign chests. After pulling the drawers out of a number of these chests and poking around with a flashlight, I’ve found that for this joint, it was typical to put the tails on the end boards and the pins on the top. (You can easily discern this in a glued-up joint by paying attention to the overcuts from the dovetail saw and if they are angled or vertical.)
Sometimes the corners of the carcases will be joined with through-dovetails, though I haven’t seen many of these in the wild or in auction catalogs. There are also a few chests where all the joints are half-blind dovetails and you can see the tails on the top.
Interior Joinery Because these chests have to be strong, the interiors are usually mortise-and-tenon web frames with dust panels – again, first-class joinery. I’ve seen a few chests where the interior dividers are solid slab panels. These are simpler to build, but the slabs add weight.
The web frames are usually attached to the end boards with dados or, in some cases, sliding dovetails. You can tell which joint the maker used by removing the brass corner guards covering them.
As far as attaching the top case to the bottom case, it is typically done with two to four dowels that stick up on one of the cases and slide into matching holes in the other case. There are other methods of registering the top case on the bottom, including brass hardware that is incorporated into the corner guards, but I haven’t seen enough of these to know which other methods are typical and which are not.
In this excerpt from our book, “From Truths to Tools,” we show how the carpenter/geometers of antiquity used the simplest of tools – those mentioned with almost annoying alliteration in the title – to solve for an unknown distance.
Note that the solution does not necessarily require a number as it physically reveals the length of rope or timber needed to reach the span point. Here’s the excerpt:
A few weeks ago I ran across an old tool chest at an antique store and it managed to follow me home. It is not particularly unique in its construction; I was mostly taken by the old red paint job on the inside.
When I got home with my find, I took the tills out and had a close look at the inside to see what kind of tool marks there were. Also, looking for the almost-always nonexistent signature or possible date. It is not signed anywhere other than red paint fingerprints on the undersides of the tills.
One thing I did notice when I was looking it over in the store is that the lid had an extra hinge on the outside of the chest. I assumed it was a repair, that maybe the center hinge on the inside had pulled loose at some point and it would have been easier to add another hinge on the outside.
On closer inspection the outside hinge was the same size and type as the inside three. It looked to be original. The outside hinge also has two carefully made spacers so the barrel of the outside hinge and the inside hinges align. After thinking about it and wondering why the maker did not just space the four hinges on the inside I happened to open the lid up while standing behind the chest. Ah ha! The outside hinge is the stop for the lid.
Most box hinges the leaves of the hinge will close completely on one another in one direction and won’t in the other direction. When I realized how it worked I felt like a total dumb-ass (a regular occurrence) for not figuring it out sooner.
We took a break from our chairmaking class this morning to visit Jennie Alexander in Baltimore, Md., and hear a bit about her progress on the third edition of “Make a Chair From a Tree.”
During Jennie’s presentation she showed us a curious mallet made from a local oak branch. It was turned like a froe club with the pith running through the dead center. This kind of mallet is, according to the normal rules of wood movement, not a good idea. Because wood moves more along the annular rings than across them, the mallet should split.
But this mallet was dry and perfect. No splits.
Jennie explained that she did this by turning the mallet while it was green, then she coated both ends of the mallet with a heavy layer of tallow. This, she said, forced the moisture to leave the mallet through the face grain of the mallet. (Usually the moisture prefers to leave through the end grain.) This, she said, is what prevented it from cracking.
This sort of conundrum has always fascinated me. And it’s a topic that I and a few other woodworkers will be covering in an upcoming podcast. (Yes, we’re starting a podcast, but it won’t be about the things we’re building in our shops, or tool reviews, or listener mail. Details to come.)