Category Archives: spinning

Bad cotton.

Over the last few weeks several people have asked a FB spinning group about spinning cotton wool/cotton balls – the things sold for makeup removal – as a cheap, easy to find version of cotton. I said cotton balls aren’t like REAL cotton; they’re made of heavily-processed waste fibres so they won’t make a lovely even yarn but I do enjoy spinning them. I discovered I didn’t have any when I looked for the bag in the stash to take a picture. My local supermarket (this is the UK) also didn’t have any so I added a bag of 100% cotton balls to the Amazon basket.

Can you read the label? It looks like the label on the Amazon website but there are different words: ‘Vacuum packed to reduce packaging size’. Cotton isn’t elastic, it doesn’t rebound to its original shape in the way that wool does. The label claims the cotton balls will expand after the pack is opened, but that seems extremely unlikely.
What to do? I can’t send the stuff back, I’ve opened the pack.

Was this decent cotton before it was abused?

No, and I didn’t expect that it would be. Cotton balls are a way of making money from waste fibre. In the photo below the top fibre is cotton sliver (technical term for the cotton version of what spinners know as wool top) opened to show fibre alignment and nepps. Fibre below it is one of the cotton balls.

At this point spinners are wondering why anyone would bother. Keep reading :-)

Rehabilitating bad cotton
First thing is to encourage the cotton to rebound and expand as much as it can. Heat and moisture help, so I put the balls in a colander over a bowl of steaming water and left it overnight, mixing top to bottom a few times before I went to bed.

That helped but not much. I tried Extreme Steam at the spout of a boiling kettle; do this with real cotton sliver and you can actually see it expand; this, not so much.

Oh well.

How can I prep this for spinning?
The three obvious options are shown in the photo below.
Centre, one of the cotton balls and above it, a couple of the balls unfolded to show the firmly set creases, a truly awful thing to see in cotton, each compacted area will be a difficult or undraftable slub in the yarn. But I can spin this.
To the right, next to the ruler, one of the balls unfolded and then carefully passed through steam from the kettle, allowed to rest, then steamed and rested again. The creases are still visible but it’s an improvement.
At left, five punis. Each is 2 1/2 (3 was too much, 2 seemed ungenerous) cotton balls unrolled and carded on my small Clemes & Clemes handcards. I don’t doff all the fibre onto one card at the end; instead I use a fine knitting needle to roll the fibre off each card, then slide the rolled fibre off. Moisten the needle with just the right amount of spit to catch the fibres at the start of the roll.

There wasn’t a lot of difference between spinning the unfolded fibre and the steamed unfolded fibre. Spinning with the tahkli (a support spindle with high speed good for spinning fine fibres) yielded a finer yarn but dealing with the slubs was more fiddly than spinning on the Majacraft Rose; both methods yielded a good somewhat slubby singles that plied up nicely.

Spinning a singles from the unfolded cotton ball on the Majacraft Rose lace flyer.

Carding the cotton for the punis opens and rearranges the fibres, so I’d hoped they would draft more easily even if the yarn was still slubby. They did, but not in a good way. The cotton drafted easily into a succession of long slubs that, when double-drafted for a competent yarn tended to snap in the thin sections between the slubs. My theory is that the additional carding, even if only 2 brushes of the cards to spread the fibre evenly, did too much damage: too many of the fibres had been weakened or shortened.

Spinning a singles from a puni made from cotton balls. Note the long, large slubs.

Verdict
I’d spin this from unfolded balls, steamed once or twice and allowed to rest before I spin them. Why bother? Because the end result is a good and interesting yarn.
On the left, tahkli-spun; on the right, wheel-spun. Both are competent. The really fluffy bits of the wheel-spun are the puni slubs; these will probably shed fibre and pill even if a weave structure locks the fibres into place, and they might fail under warp tension. So if I was spinning this for use in knitting or weaving I’d avoid slubs this large and loose.
Best way to do that is buy nicer cotton balls, avoiding ones that have been vacuum-packed. The ones I bought from Superdrug in Canada were lovely.

Adjusting a spinning wheel to spin fine(r) yarns

This is complicated and far easier to explain in person when I’m pointing at the bits of your wheel in front of you, but I’ll try to cover the main topics, and I’ll suggest some tweaks that I find useful.
If you find this an intimidatingly technical read, I assure you it was just as intimidating to write. It requires precision in the descriptions that makes me feel as though I’m pretending to be an engineer.

‘how do I stop my wheel pulling!’ is the most frequent question when I teach this in person, so I’ll start by discussing take-up (the speed/force with which your wheel pulls the yarn through the orifice and onto the bobbin).

‘how do I add more twist faster?’ Once your wheel isn’t snatching the yarn from your hands you have time to consider another important issue: the thinner your yarn, the more twist is needed to make it competent. So, once you’re happy drafting your fine yarn it’s worth setting up your wheel to add lots of twist fast if that’s possible.

Here’s an example of what is possible with a wheel set up to spin fine thread. At Fibre East in 2014 someone asked if I could spin cotton thread for lacemaking. I said I wasn’t sure, never having seen any. I went home, ordered some 185/2, and experimented. The answer is yes, I can (the thread on my bobbin is 2-ply), but I cannot mercerize the thread so it’s too fuzzy and not shiny enough.

Definitions referred to in the text

Fat-core bobbin: a bobbin that is made with a fatter-than-usual central tube connecting the two ends. You can make a fat-core bobbin by half-filling any bobbin evenly with random yarn, then wrapping a piece of paper around the yarn to give a smooth starting surface. Or just hold a strip of card onto the yarn for a couple of rotations. Or buy some foam pipe insulation with a central hole that roughly fits the tube of your bobbin. I like to have a different (smooth) surface in case my fine yarn starts to sink into the previous yarn, plus I can admire the new fine yarn more easily.

Left: standard Majacraft bobbin and delta flyer on left. Right: fat-core lace bobbin and lace flyer.

Lacing or cross-lacing a flyer: taking the yarn (or the leader, to start with) from the bobbin to a hook on one arm of the flyer, then back to a hook on the other arm [repeat as desired] before taking it to the orifice and out into the world. Each additional hook creates friction that reduces the take-up slightly. You can lace any flyer with hooks. If the one set of hooks is on the other side of the flyer arm I have been told you can put the yarn through a hook, take it under the flyer to a hook on the other side, then back again, but I have not tried this myself. Note that lacing will reduce the amount of yarn you can put on the bobbin: don’t fill to the point that the bobbin is rubbing against the laced yarn.

The ratio of a wheel is the number of times the flyer rotates for each rotation of the drive wheel. The higher the ratio, the more rotations of the flyer. The current Ashford Traditional set up as ‘single drive’ (I think that’s scotch tension) has a maximum ratio of 17:1, which means the flyer rotates 17 times for each rotation of the drive wheel. This is faster than the maximum possible for a normal Lendrum with a top ratio of 10:1. If that is far too slow, then just swap the standard Lendrum flyer for the Lendrum Very Fast Flyer with tiny flyer whorls for a maximum ratio of 44:1 (44 rotations of the flyer for each rotation of the drive wheel).

Take-up: the force with which yarn is pulled onto the bobbin. The flyer of a spinning wheel winds yarn onto the bobbin because the flyer and the bobbin rotate at different speeds. The greater the difference between the bobbin speed of rotation and the flyer speed of rotation, the harder/stronger/faster the take-up will be. The harder/faster the take-up, the faster the yarn is pulled onto the bobbin. Which means less time for you to draft a fine, even yarn, and less time for twist to be added to it before it goes onto the bobbin (the finer the yarn, the more twist is needed to make it competent). All of which means that if you are trying to spin finer yarns, especially weaving yarns or threads, you need to understand how to make sure you can keep the yarn off the bobbin long enough to add enough twist to make that yarn competent.

‘How do I stop my wheel pulling so hard!’

Spinning wheels may be classified according to the way they transfer rotation from the drive wheel to the flyer and the bobbin (in other words, which bits are connected by the drive band). The different ways of transferring rotation mean different ways to control take-up (see the definition above). Here are some suggestions for ways to reduce take-up on different wheels.

On a double drive wheel (not shown in the diagram, I ran out of time!) the drive band forms a figure-of-eight folded back on itself to become two loops. One of those loops goes around the flyer whorl to drive the flyer, the other goes around the bobbin, and then both loops go around the drive wheel. The main control of speed and take-up (the power with which the yarn is pulled onto the bobbin) is slippage, the loss of power caused by the drive band sliding around the whorls instead of making the whorls spin. Thus you can reduce take-up by loosening the drive band (usually by tilting or sliding the mother-of-all toward the drive wheel) to increase slippage. If you want super-fine control consider using a thin, hard-spun drive band such as fine crochet cotton. It is sometimes said that there is a relationship between drive band thickness and the thickness of the yarn you are spinning: thinner and/or harder drive bands have a smaller surface area in contact with the flyer whorl, so finer adjustments may be possible.

Scotch tension wheels
the drive band connects the drive wheel to the flyer
The flyer begins to rotate and the rotating shaft of the flyer drags the bobbin with it, meaning a more gentle start. As the bobbin fills it gets heavier, which means it isn’t slowed so much by the brake band. You might need to tighten the brake band a tiny bit to maintain take-up as the bobbin fills.
To reduce take-up start by loosening the brake band (turn the appropriate knob). You can also lace the flyer and/or use a fat-core bobbin, but Scotch tension offers yet another option: you can change your brake band.
A finer/thinner brake band offers finer control because it has a smaller surface applying friction. I use a fine crochet or tatting cotton for my brake bands. I recommend trying this particularly if you are currently using a monofilament (clear plastic fishing line) brake band. You don’t have to cut or otherwise destroy your existing band, just untie it (even if it’s fiddly) and try something thinner. You can always put the old one back.
Another issue I’ve seen on some wheels is that the spring fitted on the brake band can be too stiff to ‘even out’ tiny differences in take-up. If you’re having no trouble drafting a fine competent yarn but it sometimes breaks for no obvious reason, consider this possibility. I have made improvements by swapping out both Ashford and Majacraft factory springs for softer springs; rubber bands work very well but don’t last long, hair elastics last longer (you can cut and knot long ones to make them fit). I’m currently trialling the spring from a cheap pen on the Majacraft and so far I like it.

My Majacraft Rose showing brake band of fine crochet cotton with a spring from ballpoint pen.

Irish tension or bobbin-led wheels
the drive band connects the drive wheel to the bobbin
Wheels such as the Louet S10 transfer rotation directly from the drive wheel to the bobbin. This means the bobbin is the first thing that rotates (hence the name ‘bobbin-led’) before friction between the bobbin and the shaft of the flyer basically drags the flyer into rotating. So on these wheels the bobbin moves first and it moves fastest, which means it starts with a strong ‘tug’ on the yarn you are spinning. They were designed to spin flax which has a long, strong fibre; wools and cottons have shorter, weaker fibres so fine yarns spun from these are more easily broken by that initial tug.
To reduce take-up and the strength of that initial tug, after loosening the brake with the screw (you can have it so loose that the brake is just sitting loose on the orifice) try any or all of the following: make sure everything is lubricated so the flyer starts moving as quickly as possible; lace the flyer; use a fat-core bobbin.

‘how do I add more twist faster?’

Not all wheels allow you to do this. On some wheels you will have to sit and hold the yarn and treadle until the yarn has enough twist for your needs and you can allow it flow onto the bobbin.

Note: ALWAYS check the amount of twist by examining the yarn on the bobbin. Frictional contact with everything on the route from your hands to the bobbin – the edge of the orifice, the hooks – holds twist back, so there’s more twist in the make between your hands and the orifice than there is in the yarn on the bobbin. You can and should check this for yourself: pull a loop off the bobbin and allow it to ply back on itself, then allow the yarn outside the orifice to do the same thing. The loop outside the orifice will have a slightly tighter twist. So you need to treadle until you like the yarn coming from your hands, then treadle a little bit more to ensure the yarn on the bobbin has the same twist.

Some wheels allow you to alter the speed at which the bobbin and flyer rotate in relation to the drive wheel (the wheel’s ratio), and this allows you to add more twist faster with the same treadling speed*. For example, if the whorl on your flyer has more than one groove, putting the drive band around the largest whorl means the flyer will rotate fewer times per rotation of the drive wheel than if you put the drive band around the smallest whorl. I can’t think of a better way to say that in words. But if it doesn’t make sense, mark a distance on your (flat) floor; 18″ will suffice. Make a mark on a can of tomatoes, then count the number of times that mark comes around as you roll the can the 18″. Now mark and roll something smaller (a pill bottle, or a pencil) the same distance and count in the same way. The smaller thing rotated more times over the same distance because it has a smaller circumference (my primary school teacher would be so proud…). Which is why using a smaller whorl means your flyer and bobbin rotate more times (inserting more twist) per rotation of the drive wheel. ‘Large drives small’ for maximum rotation.

Some wheels also have whorls on the drive wheel, which allows more variation in the ratio. Using the largest whorl on the drive wheel to drive the smallest whorl on the flyer means the flyer is rotating as many times as possible for each rotation of the drive wheel. On Majacraft wheels where the flyer whorl is easily accessible, sticking out above the drive wheel, it is easy to use different flyer whorls to insert more or less twist, or even to add a third whorl between drive wheel and flyer to further accelerate rotation.

*Note ‘same treadling speed’, not same effort. Nothing is free: the extra rotation/twist requires a little more treadling effort to do the work (of rotating the flyer and bobbin faster).

The photo below shows the back of my Majacraft Rose, with the drive band coming from the largest whorl on the drive wheel to the smallest whorl of the high-speed flyer whorl. This is the ‘accelerator’ or ‘high speed’ head for the Rose; the large whorl to the right can be used to further increase the rotational speed of the flyer and bobbin: run the drive band to the small whorl of the accelerator bobbin to make it rotate as fast as possible, then run the accelerator band (not shown in this photo) from the large whorl of the accelerator to the small flyer (you might notice that to do this I have to reverse the position of the flyer whorl). The grease pencil notations are for calculation of ratios in various configurations.

Here’s a reward for reading all the way to the end. Scotland! looking north from ‘The Devil’s Staircase’ (not as bad as it sounds, Conic Hill was far worse) on the West Highland Way.

White felt disc hand-embroidered with flowers in brightly-coloured handspun silk

Spinning thread for handstitching, Part II. Spinning silk.

This is what started it all. Spin Off Autumn Retreat 2010. A pile of dyed mulberry silk top and some felt discs on a table in Robin Russo’s class, and the comment that spinning your own silk embroidery thread and stitching a needle case is good fun. So I spun the silk using a top-whorl spindle to insert quite a lot of twist, used an Andean plying bracelet for the short lengths I spun, and used the embroidery stitches I could remember from my childhood. It was good fun. And that was my first gentle reminder that stitching could indeed be fun.

I’ve used this needle case gently for the last 11 years and the silk threads are still in reasonably good shape. 

250x view of blue handspun silk embroidered flower petals showing relative lack of wear.
250X view of some stitches from the needle case to show wear of areas with less twist.

You may be able to see some slight ‘fuzziness’ indicating wear on the areas with very little twist.

Twist is good!
Twist locks the fibres in the yarn together to make a competent yarn: too little twist allows the fibres to slide within the yarn, which will then stretch under tension or even drift apart entirely (don’t ask me how I know this, it’s not a pleasant memory). But tight twist also means the fibres tightly spiralling on the thread are less exposed to wear in any one location on that thread. Tight twist locks the ends of fibres more tightly into the spun yarn. 

But not always!
Uncountered twist makes a yarn — or in this case a thread — that is lively. Most stitchers either add twist or untwist their thread ever-so-slightly with every stitch; if you add twist, you’ll know it because your thread starts tying itself in knots. A lot of twist results in a thread that may not flatten and spread to cover the underlying fabric. It might even stay entirely round, which is good if you’re couching it down, not so good for satin stitch. Like cotton, silk can take a lot of twist before it becomes wire: on average, when in doubt, always add a little more twist to silk.

Choose a yarn structure: sample silk threads
I learn a lot by looking at and handling examples of things to understand how they behave. 
In the image below silk threads are shown at 250x; they’re all from the same shot, split to allow me to name them. The white line indicates a 45° angle. [I’ve spelt ‘Gutermann’ incorrectly: it should be Gütermann. Sorry.]

6 different silk threads photographed at 250x to show twist angle and structure.

Using a needle to unpick the thread and a jeweller’s loupe to see the result I can say the first three (1,2, and 3 in case of doubt) are all 3-ply threads. 4, the embroidery floss, is 2-ply. Why? 3-ply yarns are almost circular in cross-section, so they look much the same diameter regardless of how they lie on the fabric, whereas 2-ply yarn is roughly oval in cross-section: it has a flatter, wider side and a narrower side.
So a 3-ply sewing thread will make a more uniform line of stitches, and being circular and tightly-spun might even move more smoothly through the fabric. The 3-ply Sajou and Soie Perlée stand cylindrical, high and glossy above a ground fabric or other stitches to catch the light and provide structure to a design.
By contrast the 2-ply embroidery floss will lie relatively flat on its flat side and because it is relatively loosely plied (compare the twist angle) it will spread even flatter to cover more of the ground fabric.

5, the 2-ply handspun silk top, is almost as tightly spun as the commercial threads, it’s just a bit thicker. It’s relatively ‘fuzzy’ with a halo of ends around the thread by comparison with the spun reeled silks above it,  but that is not proof that they are reeled and the handspun is spun from silk top: heat is used to burn that fuzzy halo off yarns mill-spun from silk top.

6  I will explain a little later. 

Other factors to consider
Sewing thread and most embroidery threads (leaving aside those attached to the fabric by other threads) have to pass through a fabric multiple times. Fabric is hard on thread. Every slub will catch on the fabric, the leading edge of the slub will abrade more and fray and eventually fail. The slub will enlarge the hole made by the needle, damaging the fabric and leaving the rest of the thread a bit loose in that large hole.
So unless you want texture and are happy to live with the consequences, spin consistent singles and ply consistently. You don’t need a lot of silk to make a lot of thread, so buy the best quality silk you can find. Avoid clumps of short fibres, neps, noils and other annoyances if you can, otherwise pick them out of the fibre as you spin. Or accept the consequences: it’s unlikely to be fatal or even a disaster! Uneven silk thread works well in rustic textiles sewn in the boro tradition, even in relatively precise geometric figures.    
Detail of sashiko stitched with uneven handspun silk.
There is significant variation in thread thickness and the amount of twist. Not my best spinning, but mottanai applies here: use what you have, waste nothing.back of waistcoat showing that uneven spun silk is appropriate to boro repairs.
And it looks perfect appropriate, at least to me.

I have an example of silk embroidery in my historic textiles collection.
undyed linen card case c. 1720 with yellow silk embroidery in back stitch and some satin stitch

This is probably an envelope case to hold visiting cards c. 1720 (dated by the style of embroidery). Undyed linen (note that there are two layers, the outer being a much finer weave) hand-sewn and embroidered with yellow silk. 

photo to show detail of flower and stitches worked in yellow silk on undyed linen card case with insert at 250x to show that the silk is floss, 2-ply.

A slightly closer view of the embroidery including a view of the back because embroiderers always like to see the reverse. The flowers and other details are back stitch, with a simple wrap binding the edges of the envelope. The insert detail shows more clearly the sheen of the silk – after 300 years! – and the structure of the yarn, which is a 2-ply twisted floss. 
And that’s why I tried Number 6 in the photo above, quickly twisting together a couple of strands of silk floss from Pipers Silks in the UK. It works, would work better if I used more strands for a thicker thread. But I’m not going to do that: I want to use that silk as it comes because it is so very beautiful and so very, very challenging.
pack of reeled silk floss for embroidery in various shades of blue with label from Pipers Silks.

I hope that’s enough to get you started. Use the best silk you have, spin evenly, spin reasonably tightly if not very tightly, it’s good fun!

Spinning thread for hand stitching, part 1. What do you want it for?

Talking to someone on FB the other day (an exchange of comments is what passes for conversation these days), I suggested they spin their own embroidery thread. And was asked if I’d done so, and what tips I might have. So I thought I’d start with a brief introduction to be followed by at least three posts about specific fibres and uses.

I’ve used quite a lot of handspun thread for stitching, not just boro textiles but also new garments. Just like any other yarn, when I’m spinning thread for stitching I start by thinking about how I’m going to use what I spin. It is useful to think about these factors even when considering which commercial thread and needle to use for garment repairs.
For example, if I want to stitch seams in a fine, densely woven fabric I need fine thread: a thick needle and a thick thread will break threads in the fabric each time the needle passes through the fabric. If the stitches are small and close together, over time these broken threads will weaken the fabric. If that fine thread is spun from short cotton fibres, it will require quite a lot of twist — be hardspun — to stand up to abrasion.
That fine, hardspun thread will eventually wear through softer spun threads. Traditional sashiko threads are spun softly to avoid damage to soft handspun fabrics.

Will the thread be exposed to wear, for example in boro-style repairs to clothing?
I loved my tabi so much that I wanted the repaired soles to be BEAUTIFUL.
I used embroidery floss and decorative stitching that I could admire while sitting cross-legged on the couch.

embroidery floss used for decorative repair to soles of tabi socks.

Embroidery floss is relatively soft-spun from long-staple cotton. It’s intended for surface decoration, it doesn’t wear well. So the repairs didn’t last long. I should have thought before I stitched.That’s what floorboards do to embroidery floss. But fabric also abrades thread: each time your needle and thread pass through the fabric, the fabric damages the surface, lifting fibres along the full length of thread used. That’s why embroiderers work with short lengths, because over time that abrasion from the fabric changes the character of the thread. If you want to reduce vulnerability to wear, spin a more tightly-twisted thread. Although too much twist will make a stiffer thread that might not lie as flat as you wish. Sample! 

Spring Cleaning

That’s the best way to describe what I’m working on at the moment. Or maybe it’s a cross between Spring Cleaning and Swedish Death Cleaning, because mortality has been on my mind as it has been on many people’s minds for the last year. I’m very aware that I have enough fibre and yarn to last me for several years even if I did nothing but spin and weave, and that doesn’t include the teaching stash. It isn’t overwhelming, I’m not unhappy about it, but at some point in the last couple of months my subconscious resolved that we should do something about it. So I am doing.

The fibre and weaving yarn shelves. Filed by fibre type.
Fabric and purchased knitting yarns (there aren’t many) live in the closet.
There are a couple of stray boxes living behind the loom.

I know broadly what is in every box, whether it is silk scraps for boro classes, commercial cotton yarn, handspun 2-ply wool, dyed braids of luxury fibres, bulk commercial top from UK breeds, washed fleece (no raw fleece), or bast fibre. I am pulling out odd knitting UFOs and unravelling them to send the yarns to people who want to knit things other than lace. More importantly I’m pulling out half-spun projects, finishing the spinning, finishing the yarns, and planning what I will do with them.

For example, as a baby weaver I decided I wanted to make an amazing textile version of a sunset. I bought sunset-coloured hand-dyed mulberry silk tops from any source that had them ( you know where this is going, right?). I didn’t realise that there were people who would sell silk lap as top, or that the quality varies dramatically. I spun silk lap, I spun silk top with clumps of fibre as short as short-staple cotton until I grew disheartened and stopped spinning it. Now I’m finishing it.

Some of the skeins of silk singles that have been sitting in a plastic bag for at least 7 years.

I put the skeins on the big swift, wedged storage bobbins onto the flyer shaft of the Majacraft Rose (one of the reasons I love that wheel), wound on and started treadling. Skein after skein went back onto bobbins and then onto the motor spinner. My ankles ache on good days now: I’m not going to ask them to treadle for plying.

Yarn looks a bit rough on the bobbin.

The plied yarn looks rough (‘a pig’s breakfast’ is more apt) on the bobbin because the singles twist is hibernating: the plying twist is not countered by the twist in the singles, and I have to admit that I am putting in a lot of plying twist. I don’t aim to spin yarns that are balanced (hang in a perfect catenary when they come off the plying bobbin), and this yarn would be even more strongly plied than usual because the singles are duff. But it all comes right-ish in the finishing, when gentle steam revives the singles twist, followed by harder steaming under tension (I pass the skein stretched between my hands over a pot of boiling water) to set the twist of the plied yarn. The first image below looks a bit like pink broccoli, but is in fact a part-steamed skein. Twisted mess before steaming, straight and smooth after. Silk can take a lot of twist without arguing, it just gains lustre.

Far from perfect, but it will do. The weave structure will lock the looser slubs down and reduce the pilling.

I have roughly 1500m of this silk plied, and probably another 1000-1500m-worth of similar low-end silk to spin and ply. And then I have to dig out the dark grey silk/wool blend I have in the stash and decide whether it can be the rest of whatever this will be.

But I am distracted by Teh Shiny. If my eye happens to light on something that I remember desperately wanting to spin, I can spin it. That’s how 1100m of Redfish Dyeworks yak/silk happened a week or two ago. It’s very soft. If it were >1300m it would be a complex lace shawl, but it isn’t so it will be something else. And that is fine. Because life is short and we have to take our fun where we find it.

50/50 yak/silk from Redfish Dyeworks, spun and plied on my Alden Amos motor-spinner.

Reconstructing fabric from Norse Greenland: Tiny Wadmal!

Or, in Old Norse, vaðmál. 
From vað (stuff/cloth) mál, (a measure), because this fabric was a household standard and trade staple in Scandinavia, Iceland and Greenland where wool from local sheep was the primary textile fibre. Know to have been in production from at least the 11th century to the 17th century, pieces of vaðmál meeting strict standards for length, width and quality were legal currency in Iceland and sometimes elsewhere. The definition of the Icelandic ell, the unit of measure, changed over time, possibly as a result of increasing trade with England where vaðmál imports supplied coarse cloths. Elsewhere in northern Europe the definition of ‘watmal‘ or ‘wadmal‘ was broader: a coarse cloth worn only by those who could not afford better. Textiles found in the graves of 14th-century Herjolfsnaes in southern Greenland by Poul Norlund’s 1921 expedition provide a wealth of information about local production of vaðmál and how the garments of that time were constructed.

The finds from Herjolfsnaes and other sites in Greenland are beautifully documented in two modern volumes, Else Østergård’s Woven into the Earth, which includes a detailed description of the vaðmál fabrics, and Medieval Garments Reconstructed with even more information about how to spin the yarn to weave vaðmál fabric to make copies of the garments. I’ve had vaðmál on my mind for a long time so, when Kate Larson of Long Thread Media asked me to write an article for Piecework magazine about stitches from Norse Greenland (published in the Summer 2020 issue of Piecework) and how I’d adapted one of them to solve a problem I created for myself, I spent only one evening playing with wool and modern fabric before concluding that I needed to know how these stitches worked on the original vaðmál. 

Oveja_islandesa,_Grábrók,_Vesturland,_Islandia,_2014-08-15,_DD_097

Icelandic sheep in Iceland, Diego Delso on Wikimedia Commons

Vaðmál is the best example I know of people making the best use of the fibre produced by their local sheep, which from raw wool found in Greenland resembled the modern Icelandic breed. These hardy sheep are double-coated, with an outer coat (the tog) of long hair protecting the inner wool (the thel) from harsh weather. The hairs were removed from the fleece with wool combs, then further processed by combing to be spun for warp. The softer wool was opened up loosely into a cloud of fibre and spun for weft. The Norse women would probably have plucked the wool from sheep rooing (shedding their fleece naturally) as primitive breeds do; few modern shepherds can do that, so my fleece was shorn. Many shepherds in North American shear twice a year and discard the winter fleece, full of straw and hay, but I was lucky enough to find a ram fleece with a full year’s growth.

IcelandicLock

Washed Icelandic fleece, 12 months growth. The long outer hair is darker than the softer wool.

I pulled the long hairs out of each lock (I find this easier) and lashed them onto my wool combs.

hairlashedon

One of the pair of combs with locks lashed on, ready for combing, plus a handful of the wool remaining once the hair has been removed. Note the difference in colour.

Two transfers removed most of the unwanted short fibres, skin flakes and vegetation.

combed

The combed hair ready to be pulled off the combs. The comb is held down; the loose end of the ‘pony tail’ is pulled gently through a small hole in a diz. Done carefully, friction ensures that all the fibres flow through the hole to become a long loose rope of fibre ready for spinning.

The end result was a lovely length of top, but rather coarse and stiff by comparison with the Wensleydale and Cotswold long wools I usually comb.

top+waste

Bottom: the long combed hair ready for spinning. Above: the short waste fibre and other material removed by the combing process.

I decided to lightly card the thel and spin from rolags because time was short. This wasn’t the focus of the article, after all!

Vadmal Weff

The warp yarn was a z-twist singles (unplied yarn), hardspun (twist angle of 40°–50°), roughly 1mm thick. The Norse settlers would have spun it on spindles; wheels are faster by the hour, I have wheels and I know how to use them. The coarse fibres created a characterful yarn, somewhat prickly and reluctant to flex. The weft included both down (very short soft fibres from the base of the fleece) and slightly longer wool; spun long draw this blend of lengths tends to create a textured yarn as the longer wool fibres can twist-lock either side of a slub that as a result has to be persuaded to draft down to the desired grist. 

I used a strong gelatine size on the warp but the gelatine did not stick as tightly to the coarse, shiny hairs as I had hoped. It did little to lock the stiff ends of the hairs into the yarn, which meant more friction between the yarn and the heddles and reed. Which in turn emphasized any unevenness in the yarn. The cassimere merino yarn was much easier to weave, 

onloom

As I wove I was able to feel the fabric developing, understand how the softer weft beats down to almost cover the coarse, hairy warp. The fleece from THIS sheep would never have been dress fabric — it is too coarse — but it could easily have been outerwear, still a garment, when I’d thought that warp would have been best made into rope.

fabricdetailembarrass

Not my best weaving, but proof of principle is all I really needed.

I cut the fabric off the loom and began to test seam and edge finishes sewn with reserved warp thread. Woven into the Earth suggests that the longest and, finest tog was reserved to be spun into thread, and I now understand why: stiff thread with many protruding stiff fibre ends DOES NOT lend itself to easy tidy sewing. Nonetheless I persevered. I singled some cut edges, stabilizing them by binding the weft threads with thread running into and out of the fabric (see the article for more information about this technique). I wanted to demonstrate the way tablet-weaving was used to bind and protect hems and other ‘edges’ subject to heavy wear, so I ran a short warp of the warp threads on my small tablet-weaving loom (with thanks to John Mullarkey for this lovely little loom).

Tablet-woven edge treatment on the loom, showing how the weft is used to sew the band to the fabric as part of the band weaving process.

If you are familiar with tablet-weaving you may be able to understand how this works from the photograph. In short, the tablet warp is held close to what will be the outer/visible surface of the fabric. Shorter lengths of weft are threaded into a needle; after passing through the shed the needle-with-weft is taken to the back of the fabric then — the point where this photo was taken — brought back through the fabric ready for another pass after the tablets are rotated to change the shed. The band is sewn to the surface of the fabric as part of the weaving process. It’s a bit tricky to work out the spacing of the weft passes to make the band lie flat on the fabric, but practice makes perfect.

The finished tiny piece of wadmal demonstrating various sewing techniques from the garments found in 14th-century Norse graves.

The end result! Tiny vaðmál!
With Norse seams. The Norse women alive 600 years ago live again as my hands learn from the work of their hands.
Women’s work.

The vaðmál itself is a fascinating fabric and I am slowly processing a much nicer, much softer double-coated Shetland lamb fleece to make a larger sample that might, if I’m lucky, be large enough to be a waistcoat.

A truly lovely double-coated dark brown ‘black’ Shetland lamb fleece from Mctavish Farm Shetlands in Oregon.

Processing local Shetland fleece and an apology

Hullo, it’s been a while and I’m genuinely sorry about that. It’s been a really busy year: last winter my slowly-developing hobby of mending stuff and stitching stuff turned into preparing for and then teaching several workshops on ‘Boro and Visible Mending’, all while prepping for and then teaching two spinning workshops at ANWG 2019 (the Association of NorthWest Guilds Conference) in Prince George. And last month we had a wonderful, WONDERFUL holiday in the southwest US; I will try to put some photos up on the travel blog but fibre takes priority and it has been a very long time …

Knowing I’m looking for good double-coated fleece to investigate the spinning and weaving of medieval Greenland (I am still looking), someone (Pat M.) gave me a local Shetland fleece. The tog, the long outer coat, is not long enough for my purpose, but it’s not a bad primitive breed fleece. There’s some scurf, which is normal for primitive breeds: their fleece stops growing in late summer, so over the winter any dead skin just sits there whereas on a modern sheep breed with fleece that grows continually the fleece continually lifts the dead skin out and away. This is what that looks like on the shorn side of the raw fleece.rawscurf

Primitive breed fleece also has a break point, a weakness where the new spring wool fibres continue on from the fibres that grew the previous year. This is the point where, if the sheep are allowed to roo (shed their fleece naturally), the old fleece breaks away and falls off the animal. The shearer has to wait for the rise, the growth of the new fleece, because the oils that accompany the new growth lubricate the shears. This means a clean sheep is shorn under the break point of the fleece, which means there’s a little bit of new wool that will break away naturally from the fleece to become nepps and other undesirable things in your yarn if you don’t get rid of it before you spin. It’s often a slightly different colour; in the photo below you can see some darker wool to the right, on the cut surface; that’s the short dark new wool I don’t want. washednewgrowth

So how can I get rid of it without hunting over the shorn side of the fleece to pick or pull off every bit of offending wool?

Comb it.

This is what combs excel at, sorting good from bad. When you comb all manner of undesirable stuff is trapped in the combing waste, from short proto-nepps to vegetation. Spin your combed wool worsted style, reasonably thin, and the tightly-packed aligned fibres doesn’t leave much room for vegetation: a constant rain of rubbish falls as you spin hand-combed top, all stuff you don’t want in your yarn.

But you do have to wash your fleece for this to work otherwise the lanolin and suint will hold all the rubbish in the wool. Grease fleece also tends to be sticky (the older the stash, the stickier it gets as light fractions in the lanolin evaporate away) which is not good for combs.

Here’s one of my Valkyrie Fine combs loaded with some washed Shetland, butt/shorn ends nearest my hand.
lashedon

And here are the results of the first pass of rough combing. I’m not doing the classic English woolcomb comb and plank to evenly distribute fibre lengths, this project doesn’t require it. I just want parallel fibres and less rubbish. Note the bushy clump of short dark wool – combing waste – left in the top comb, the one that was first loaded. The comb below that (I only have two hands and one is holding the phone!) has the longer wool transferred by the combing process.

1stpass

I do four passes, four transfers from comb to comb. In terms of fibre alignment I start with butt|tip, that becomes tip|butt, which becomes butt|tip, and finishes tip|butt, which means when I take the fibre off the combs and coil it into a little nest, the tips are the last thing to come off the comb – and this is the end that I start spinning. So this prep will be spun tip to butt. That means I’m spinning against the lie of the scales on the fibres, but with the taper (finer to thicker) of the fibres.

End result of the process is below, fibre ready to be removed from the comb with an array of combing waste below.
results

I saved all the waste. In earlier times very little wool was wasted. Combing ‘waste’ was further processed to be spun as weft in fabrics to be fulled, or even plied for use as warp in sturdy coarse fabrics.

waste

I lashed handfuls of the waste, which contains many fine and short fibres, onto my Valkyrie Extra-Fine (three row) combs. Some of the scurf you can see below will be lost in the combing process, some will be left behind in the waste from this process, and some will end up in my yarn. Over time movement of the fabric and washing will break it down.

wastelashedon

The result after two or three passes is shown below. I just pull this off the combs and put it in a bag to be spun from handfuls, semi-woollen.

wastecombed

And the end result of the process. Yarn! Mini-skeins of single. Incipient weft and warp straight off the bobbin reveals its fibre content and spinning style.

spunyarn

Nests of combed, aligned fibre, a bag of combed, sort-of-aligned fibre, and the yarn shown above after steaming to set the twist (can you see that the warp is now on the left?). Next stage will be to needle-weave a tiny sample on a piece of card or other tiny loom to see if I like the way it looks as fabric. I had hoped the weft would be slightly darker than the warp… I’ll keep you posted.

yarnset

The Cassimere Insanity Part II

The Cassimere Insanity Part II
(Part I is here)

Just a warning that this turned out to be a very long post. I could have said more, though, so it could be worse.

I need to know more!

This is how my everyday insanity progresses. I find something interesting, I ask myself questions about it, I look for answers, I find fascinating nuggets of information that give rise to more questions … and before I realise it I’ve dug myself into a hole so deep that if myth were correct I’d see stars in the sky at midday.

Yerbury’s Patent contains very general information. As a hand spinner I have specific questions that it doesn’t answer.

What was that ‘Spanish wool’ really like?

“soft, good wool, all Spanish or a mix of Spanish and English”
By 1800 Great Britain was importing 5 million pounds weight of fine merino wool each year from Spain. In Sheep and Man Ryder states that the name ‘merino’ was first applied to the sheep in the 15th century, but the breed type can be traced to at least the 13th century. There is evidence of fine-wooled sheep in Roman times, including textiles from 1st-century Italy containing fibres of 16-24 microns. So it’s not unreasonable to assume that by the 18th century ‘soft’ Spanish wool was similar to modern Merino, which is roughly the same range. At some point during all this research I found two manufacturers selling cassimere fabric for re-enactors. I ordered samples from both, but only that from Kochan & Phillips resembled my memories of the fulled cassimeres in the V&A. Sean Phillips kindly advised the use of fine merino, so I used 16 micron merino for this project, which on reflection was almost certainly finer than necessary.

fibre preparation

How were the wools prepared for spinning? Warp for traditional broadcloth (Yerbury’s ‘Common Cloth’) was combed, and probably spun with some type of short forward (worsted) draw for strength, while the weft was carded and probably spun softly woollen to encourage fulling. Yerbury’s ‘New Invention’ has warp and weft spun in similar fashion, and worsted yarns don’t full well, so they were probably woollen or semi-woollen spun. But from hand-carded wool or drum-carded wool?  Lewis Paul’s spinning machine invented in 1738 drove rapid development of carding technology, and in 1775 Richard Arkwright was able to patent a carding machine fundamentally similar to modern drum carders that produced continuous lengths of roving.  Only 10 years later Arkwright was unable to prove his invention had been unique – which suggests there were other carding machines in use at the time – and his carding machine became common property. Yerbury seems the type of man who might well have taken advantage of new technology, so I felt it was reasonable to spin from drum-carded fibre. As I was not spinning a soft and lofty yarn – this had to be strong enough for a singles warp as well as weft – I eventually found it more convenient and faster simply to spin my modern merino ‘top’ (traditional top is produced by combing, but most commercial top we buy today is pin-drafted from carded fibre) from the fold.

spinning and preparing the yarn for weaving

One fundamental assumption based on my general research into historic textiles is that cassimere, like most fine historic textiles, was woven from singles rather than plied yarns; the samples I’ve seen do seem to be singles.

What grist was the yarn for this ‘superfine’ cloth? Superfine by contrast with earlier cloths, so what were they? Textiles and Clothing 1150–1450 speaks of coarse as fewer than 10 ends/cm, good middle quality 12-13 ends per cm, and fine as >18 ends per cm. The authors are writing of archaeological finds, so that’s in the finished cloth. What did it look like before fulling? Crumbs. There’s an entire research program for me right there if I have time. Fulled broadcloth was roughly half its woven width (hence the name: it was broad on the loom) so roughly half that epi?  Sean Phillips discussed cassimere specifications with me, and his suggested grist of 9,000- 10,000 yards per lb (ypp) was similar to what I’d found mentioned elsewhere.

I looked at twist angle in the Kochan & Phillips sample – which was thoroughly fulled – and concluded that I couldn’t conclude anything useful from it, even with a microscope and Mabel Ross to hand.

So I sat down at my Majacraft Rose and started spinning fine singles in the standard clockwise direction. Skeined a sample  – a known length – off the bobbin, weighed it, calculated yards per lb. Fail. Try again.  This was not an easy grist for me to maintain: the fibre was so fine it was easier to spin a finer yarn. If I stopped paying attention the yarn would become too fine; when I then tried for thicker it would be too thick.

FindingGrist

But I persevered, wound a decent sample on a control card to sit by the wheel for quick comparisons while spinning and, more importantly, wound off samples and checked the ypp regularly throughout the spinning process. I spun and I spun and I spun and I looked at the yarn I was spinning – so much finer than any handspun wool I’d woven before – and wondered whether it would weave. I am not an experienced weaver. I didn’t want to spend weeks spinning something I couldn’t make into cloth! I stopped spinning, wound off into skeins, steamed them to set the twist and sized them with gelatine to further hold the twist. I don’t have my notes for this to hand so I can’t remember the exact strength of the size, for example, but I have found a picture of one of the cassimere warps drying after sizing in what I call The Sizing Room (everyone else calls it the bathroom).

sized warp

The skein is spread evenly on the chopsticks so as few threads overlap as possible. If necessary I will cut tight skein ties to spread it more widely, as fewer ties are needed once a sized skein dries. I do not mess about with it any further: too much handling will increase the fuzziness despite the size. The milk bottle supplies enough weight to eliminate pig-tails and straighten the yarn, but not so much as to risk stretching it. The plastic separator increases airflow around the two sides of the skein. I try to remember to rotate the skein once or twice to minimize pooling of the size at the bottom of the skein, as this glues some of the threads together; it’s not a fatal flaw but pulling them apart is unnecessary stress and can create fuzz. I am all about preventing fuzz.

weaving

I remember thinking it was a good sign that the warp beamed on my Ashford table loom with no trouble at all.

Cassimreweavesquare

The 45° angle shows I tried hard to beat square!

It wove like a dream. On reflection I should have sett it slightly tighter for a slightly denser cloth “well struck in the loom” as Yerbury phrased it but at this point I had no idea how fulling would affect it.

I wove to the end of the short sample warp, cut it into six pieces, blanket-stitched the cut edges with more of the singles as thread (in case cotton sewing thread interfered with the wet finishing of such small samples). A soak in hot water followed by hand washing removed the size and allowed the fabric to find its shape, which was lovely. Light and warm. But nothing like Yerbury’s cassimere: fabric isn’t finished until it is finished. Wet finished.

finishing

Yerbury’s cassimere was to be “smartly grounded at the fulling mill by a quick motion”. Fulling has two purposes, the first being to remove any fats and oils used in processing the fibre for spinning. We’re talking serious oils here, such as rancid butter and fish oils used to grease wool for combing, but fortunately these combine with the ammonia compounds in stale urine to become soap that not only scours the cloth but lubricates it. This aids the second purpose, which is to work the fibres together, starting the process of interlocking wool scales that leads to felting. The fabric thickens, becomes denser and less flexible, also more resistant to wear, and for centuries it was a normal part of the finishing of wool fabrics, converting wide bolts of relatively thin plainweave broadcloth into narrow bolts of water-resistant warm hardwearing fabric. The picturesque ‘waulking’ of cloth in Scotland is fulling by hand, suitable only for relatively small scale fabric production. The Romans relied on slave labour walking in place, trampling the fabric in tubs of ankle-deep urine. Water-powered fulling mills had been in use since the 12th century in medieval England: a stock mill imitated the action of walking feet with wooden stocks driven by a waterwheel working either horizontally or vertically. Modern fulling mills are rotary, uniformly processing immense lengths of fabric. I knew without even asking that no commercial fulling operation could do anything with my tiny samples!

I first tried fulling my sample as I’d fulled wools before, working it by hand on a flat surface. Always in the warp and weft directions, never on the angle as that will deform the fabric. The result was nice to the touch, but far from even and both thicker and less dense than seemed right.

From left: cloth off the loom; washed; fulled by rubbing

loom,washed,firstfull

So I imitated a vertical fulling mill with a wooden mallet wrapped in plastic. The remaining three samples were wetted, lightly soaped and then fulled by incessant (or so it felt) tapping with the mallet on our kitchen counter. It worked. It more than worked, it made a lovely fabric, dense and light and very different from the hand-fulled sample. If you’re at all interested in fulling, you should try this technique.

So that will suffice. What next? Raise the nap: brush to raise fibres from the surface of the fulled fabric. In times past teasels mounted in wooden frames might be used for this, and it was skilled work. I used a nailbrush and would not call myself skilled, but the fabric developed a lovely soft halo of fibres.

After the nap was raised it was sheared or cropped. Shearsmen were probably the most highly skilled of all the craftsmen involved in this process, able to crop a uniform finish by eye on yards of fabric using huge steel shears. Fabrics were often napped and sheared repeatedly to obtain the smoothest possible finish.shearman

Fortunately I had tiny shears (my embroidery snips) to match my tiny piece of fabric.

shearing

I love this piece of fabric. It’s delightful. Not as densely woven as the 18th-century swatch I saw in the V&A, but still cassimere. It’s light, warm and the singles woven in twill structure make it remarkably stretchy. But each time I handled the swatches I ended up admiring the second one, the plain washed fabric. Still flexible, but soft and smooth with a lovely drape. I wondered what it would feel like as a larger piece. I had more fibre, I could find out. For speed I spun the singles for this fabric from the fold and thinner, which I found easier. Roughly 11,000ypp, roughly 13 yards spun per 5 minutes while watching tv, so could have been faster.

The full set of samples from the first cassimere warp: from right, loom state; washed; fulled by rubbing; fulled with a mallet, no further finishing; mallet-fulled, nap raised; mallet-fulled, nap-raised and sheared. Plus my control card and a sample skein spun for the second cassimere warp.

FirstCassimereResults

I spun, I skeined, I sized as before. I wound a shorter but much wider warp and wove it off sett at 48epi (it wrapped at 72). Soaked in hot water, washed and ironed, it had a subtle sheen and draped beautifully.

Cassimer2

By the twentieth century it seems from catalogue descriptions of fabrics and garments that almost any wool twill could be described as a cassimere so, while this isn’t Yerbury’s patented cassimere, it’s still a cassimere.  And once I’ve spun the current big bag of silk, I’ll be spinning to make more of it.

The Cassimere Insanity Part I

If you’re visiting because you’ve heard about my article A Brief History of an 18th-Century Woven Cloth: Cassimere in the Winter 2019 Spin Off, welcome.

Honestly, that’s what it is, insanity. I just didn’t realise it until I’d dug the hole too deep to climb out:
I had to keep going all the way to the other side.

I am deeply curious about how yarns were spun in England before the Industrial Revolution. In the Middle Ages England was the leading producer of woollen textiles in Europe: across a wide swathe of the country you can still see the ‘wool churches‘, magnificent structures paid for by the profits of the medieval wool trade, which is to say people buying and selling wool fibre, yarn and fabrics. ‘The medieval wool trade’ … four words that encompass centuries of skill needed to breed sheep producing different types of wool, to develop the hand spinning, dying, weaving and finishing skills to spin the different types of yarn needed to create different cloths that could then be finished to create some of the most beautiful and desirable fabrics known in Europe at that time. In England at that time skilled hand spinning was so fundamental that we have little information about how fibre was spun except in illustrations: everyone knew how to spin, so there was no need to document it. Nonetheless surviving fabrics can tell us something about the fibres and skills used in their construction.

the beginning

In 2014 I was invited to be one of the spinners demonstrating techniques at John Styles’ ‘Spinning in the era of the spinning wheel’ workshop at the Victoria and Albert Museum Clothworkers’ Centre in London. Historians and fibre arts handworkers met to discuss the making of an array of fabrics from the V&A’s immense collection. One of the items on display was a book of fabric samples, ‘T.350-1989: Bound sample book containing different types, qualities and colours of cassimere or kerseymere cloth.’ I’d first seen cassimere (also known as kerseymere) mentioned in Kerridge’s Textile Manufactures in Early Modern England as a cloth invented by Francis Yerbury and patented by him in 1766; I remembered it because of the name, which I had read somewhere is thought to have been derived from ‘cashmere’ to reflect its softness, and because it had never occurred to me that a fabric could be patented. And now here it was in front of me, or at least examples of what were known as cassimere in 1795.

25.Cassimerebook27.CassimereSample

Note that my finger is NOT TOUCHING anything.
It’s hovering about 1cm above the fabric to give some idea of scale.

I was entranced. Moths and time had removed some patches of the surface fibre from one swatch (the one I photographed), revealing the twill structure and the beautifully-spun yarn. There were many other wonders spread out on the tables, but I left the workshop determined to find out more about this thing called cassimere. Kerridge focuses on the history of textile manufacturing, not the textiles themselves, and mentions cassimere again only as being responsible for bringing weavers into employment in large workshops, which was “possible because the looms were narrow and necessary because the weaves were new and intricate [compared with earlier standard weaves].”

The search for information

The internet rapidly made clear that cassimere/kerseymere continued in production until the 20th century and beyond, but also that these were very different fabrics from that patented by Yerbury… Aha! The patent! We were now living in Canada, so I couldn’t just pop down to the British Library in London. I emailed the Business & IP Centre asking if there was any way I could find a copy online, and will be eternally grateful to the  staff member who noticed I was writing from Canada and sent me a PDF.

Yerbury’s patent YerburyPatent1766-1

Page One of Yerbury’s patent.

Greetings from the 21st century, Francis. But I wish you’d given me more information! The meat of the patent is on pages 2 and 3, where Yerbury’s ‘New Invention’ is contrasted with the ‘common method of making cloth’. In short:

Common cloth warp is spun with a lot of twist, the weft with as little twist as possible and about 2/3 thicker than the warp, and the two should have different twist directions in order that they interlace tightly when woven. The fabric is a plain weave and the final fulled cloth is thick, water-resistant and durable.

Yerbury’s new Invention warp and weft are spun in the same manner “nearly about the same degree of smallness, weight and twist”. There is no specific weight or thickness of yarn but it should be spun from soft, good wool, all Spanish (i.e. merino) or a mix of Spanish and English. He describes two kinds of cloth distinguished in the weaving; one is clearly a straight twill, right or left; the other “quilled in the weaving with a flat whale [wale]” defeats my current understanding. According to the Google Books preview of The Dictionary of Fashion History, Beckinsale’s The Trowbridge Woollen Industry mentions only twill weave for cassimere.

Yerbury developed his new ‘cassimers’ fabrics to fill a niche in the market, which at that time was virtually crying out for lighter wools suitable for wear in warmer climates. But on the third page of his patent he mentions another reason for devising an innovative fabric: not only was the common cloth “hot, inconvenient and heavy for the summer wear at home and warmer climates abroad”, but it “hath also been introduction of many slight and whimsical things from our great rivals in trade the French”. In other words, the French were saying rude things about heavy, traditional English broadcloth.

So this is how I discovered cassimere. In Part II I’ll tell you how I found more information and began spinning.

 

 

CMYK blending: how to find and make the colours you need.

I had intended to post this as part of a “I can’t believe it’s April” post, but it’s better that this stand alone for people who might be interested in the class I’m offering on the Cowichan Hand to Hand Fibre Arts Workshops Weekend. I posted a brief teaser on the event website; here are more of the samples I’m preparing for the workshop.

I’ll show you how to use hand cards and/or combs and 5 shades of Ashford Corriedale to begin produce a range of colours, talking about combing and carding technique as we work. I’ll also show you how to use the Andean plying method to quickly produce short lengths of sample 2-ply.

img_4944.jpg IMG_4950

I’ll then talk about a quick and easy way to find a range of colours that work well together, and how to start creating those colours using only the wool we have to hand.
img_4960.jpg

I hope to have some samples to show you how some of these colours work together when I see you at the workshop.