Spinning and weaving are the two steps that turn fibre into cloth. Spinning draws fibres out and twists them into a continuous thread, the yarn; weaving interlaces two sets of those yarns, the warp and the weft, at right angles to make fabric. That is the whole difference between spinning and weaving: spinning makes the thread and holds it together with twist, weaving makes the cloth and holds it together by interlacing, and spinning always comes first. Before machines, early textile production ran in three stages. The fibre was prepared (flax retted and hackled, wool plucked and combed, cotton ginned), spun by hand on a spindle and, in Europe from about AD 1250, on a spinning wheel, and then woven on a hand loom. Spinning was the slow stage: in experiments at the Centre for Textile Research in Copenhagen a spinner with a drop spindle made about 40 metres of wool thread an hour, so the thread for one square metre of plain cloth took more than 50 hours.
Last verified: 11 October 2026. Every date and figure below comes from the museum record, peer-reviewed paper or experiment report linked beside it; the full list is at the end.
Spinning and weaving at a glance: the difference
| Spinning | Weaving | |
|---|---|---|
| What it does | Draws out fibres and twists them into one continuous thread | Interlaces two sets of threads at right angles |
| Goes in | Prepared fibre: hackled flax, combed or carded wool, ginned cotton | Spun yarn: the warp, set up first under tension, and the weft |
| Comes out | Yarn (thread) | Woven cloth |
| What holds it together | Twist, in an S or a Z direction | Interlacing: each weft passes over and under the warp |
| Hand tools | Spindle and whorl, distaff; later the great wheel, the flyer wheel and the charkha | The loom: ground, warp-weighted and backstrap looms, then treadle looms |
| Oldest direct evidence | A three-ply cord of twisted inner-bark fibre, 41,000 to 52,000 years old, from Abri du Maras, France (Hardy et al. 2020) | Impressions of interlaced, woven material in clay, about 26,000 years old, from Pavlov I, Czech Republic (Adovasio, Soffer and Klíma 1996) |
| Speed by hand | About 30 to 53 metres of wool thread an hour on a drop spindle, depending on the whorl (CTR experiments) | About 30 wefts an hour for one weaver on a 30 cm warp-weighted sample, 45 for two working together (CTR 2006, p. 17) |
| Share of the work | 332 of the 529 hours that one reconstructed 3 × 2 m cloth took (below) | The other 197 hours, weaving and every remaining step |
| First machines | Spinning jenny, about 1766; water frame; mule, 1772 to 1779 (below) | The power loom and its successors: see the history of looms |
What spinning and weaving mean
Spinning inserts twist so that, in the words of the Natural History Museum Vienna’s handbook of prehistoric textile making, “relatively short fibres are connected into a thread of any length” (Grömer 2016, p. 75); yarn is simply fibre that has been spun. Weaving interlaces two thread systems at right angles to make a textile (p. 460). The two words go together because one feeds the other: there is no weaving without spun yarn. A “spinning and weaving” mill does both with machines; that side is covered in yarn spinning.
Handspun means spun on a hand spindle or on a wheel turned by hand or foot, not on a powered machine. Hand weaving means weaving on a loom worked by hand and foot; India’s Handlooms (Reservation of Articles for Production) Act, 1985 defines a handloom as “any loom, other than power loom” (section 2(b)). In Hindi, to spin is कातना (kātnā) and spinning is कताई (katāī); to weave is बुनना (bunnā, which Platts prints बुन्ना) (Platts, A Dictionary of Urdu, Classical Hindi, and English, pp. 798, 812, 172).
The steps of early textile production, from fibre to cloth
- Get the fibre. Flax was pulled up by hand at harvest; wool was plucked when early sheep moulted in spring; cotton bolls were picked.
- Prepare it. Flax was retted, broken, scutched and hackled; wool was sorted, washed, teased and combed or carded; cotton was ginned to take out the seed.
- Spin it. The prepared fibre, held in the hand or on a distaff, was drawn out and twisted on a spindle, and much later on a wheel.
- Ply it, if needed. Two or more single yarns were twisted together in the opposite direction to make a stronger thread.
- Store it and set the twist. The yarn was wound into a ball, kept on a stick or left on the spindle (Grömer 2016, pp. 84 to 85); in the Copenhagen experiments, wetting and drying it on a reel set the twist (Technical Report 1, p. 8).
- Weave it. The warp was laid and tensioned on the loom, and the weft passed through it one pick at a time.
- Finish and sew. The cloth was finished and, if it was not used straight from the loom, cut and sewn.
Most of the time went into steps 2 and 3: preparing fibre takes “between days and weeks”, spinning “takes weeks or months”, and weaving “proceeds more quickly”, though it too takes days to weeks (Grömer 2016, p. 275). So once the fibre is gathered and cleaned, the next step is to comb or card it, then spin it.
Fibre preparation: flax, wool and cotton
Flax: retting, breaking, scutching and hackling
Flax stalks were pulled by hand so the fibres kept their full length, and the seed heads were combed off. The stems were then retted: soaked in water for about two weeks, or spread on a meadow for three to five weeks of rain and dew, until bacteria loosened the fibre bundles from the woody core and the outer skin. Pits used for retting have been found at Frydenlund on Funen, Denmark, with flax capsules dated to the Nordic Late Bronze Age and Pre-Roman Iron Age (Grömer 2016, p. 64). Once dry, the stems were broken (with a wooden mallet in rural Europe well into the 20th century; in prehistory probably with stones or clubs), scutched (struck over a narrow edge to knock out the woody splinters) and hackled: drawn through a board set with spikes, which splits the fibre lengthwise and separates the long, fine fibre from the short tow. A Neolithic hackling board set with blackthorn thorns is known from Lattringen in Switzerland (pp. 65, 72). More on the fibre: flax and linen.
How much flax made how much cloth? Eva Andersson Strand’s figures from twentieth-century rural Denmark, quoted by Grömer, are that a 100 m² plot took one working day to pull by hand and gave about 25 kg of yarn of various qualities plus 14 kg of lower-quality tow; 25 kg of yarn is 287,500 m of thread, enough for about 130 m² of cloth at 11 threads per centimetre in warp and weft (Grömer 2016, p. 65).
Wool: plucking, combing and carding
A fleece mixes coarse kemp hairs, about 50 to 100 µm across, with a finer undercoat; medium wool fibres are about 30 to 60 µm. Early sheep moulted each spring, and the staples could be plucked as they came loose. Shears, made of iron, appear in Central Europe only in the second half of the 4th century BC (Grömer 2016, pp. 65 to 68). Preparation began with sorting, teasing by hand and washing; ethnographic records add beating the fleece with a bow and carding it between two boards set with hooks (p. 67). The two methods give two yarns. Combing lays the fibres parallel and removes the short ones, and the combed band spins into a smooth, firm, shiny thread (the worsted type); carding breaks the fleece into a fluffy mass that spins into a looser, warmer, more elastic thread (the woollen type) (p. 70).
Preparation alone was slow. In the Centre for Textile Research’s first spinning experiment, a 2.7 kg Shetland fleece was sorted down to 1.1 kg of usable wool; preparing it by hand with one wooden comb discarded 22% more, and it took the two spinners about six hours to prepare 170 g (Mårtensson, Andersson, Nosch and Batzer 2006, pp. 4 to 5).
Cotton: ginning
Cotton fibre grows attached to the seed, so it has to be ginned before it can be spun. The roller gin, or churka, pinches the fibre between two rollers turned together: the Science Museum’s description of a hand churka (a Manchester-made version of 1859, object 1880-98) explains that the fluted roller “pulls the cotton fibres off but cannot grip the seeds”, which drop away (Science Museum Group). The V&A holds an 1872 drawing by Lockwood Kipling, Ginning cotton, Berar, of two women at a gin, one turning the handle (V&A 0930:18/(IS)). Eli Whitney’s gin, patented on 14 March 1794, was the first to clean short-staple cotton, and one machine could produce up to fifty pounds of cleaned cotton a day (US National Archives). Ginning today is covered in cotton ginning.
Hand spinning with a drop spindle
A hand spindle is a wooden rod of about 20 to 30 cm with a weight, the whorl, on its lower third. The spinner sets it turning on a starting thread while the other hand draws fibre out evenly; the twist runs up into the drawn-out fibres and makes them thread. Each spun length, about 1 to 1.5 m in the Copenhagen tests below, is wound onto the shaft and the cycle repeats (Grömer 2016, pp. 75 to 76; CTR 2006, p. 7). A drop spindle hangs from the thread it is making; a supported spindle turns in a bowl or on the ground, as recorded in North Africa, Tibet and among some North American peoples (p. 78). A drop spindle can be used sitting, standing or even walking (p. 79), though the Copenhagen spinners found the 8 g whorl needed “immense concentration” (CTR 2006, p. 9).
The spindle is old. In Central Europe the first spindle whorls come with the first farmers, the Linear Pottery Culture of about 5,600 to 4,900 BC, some of them cut from broken pots and ground smooth (Grömer 2016, pp. 75, 83). A complete spindle with its thread still wound on it was found at Arbon Bleiche 3 in Switzerland, about 3,370 BC: a 21 g whorl carrying lime-bast thread 0.7 mm thick (pp. 81, 88). Learning to spin is easy; reaching the skill of prehistoric spinners, Grömer notes, “takes years” (p. 86).
What the whorl’s weight and diameter do to the yarn
The whorl is a flywheel: it keeps the spindle turning and pulls the thread down. The Danish National Research Foundation’s Centre for Textile Research (CTR) at the University of Copenhagen measured what that does to yarn. In 2005 and 2006 two skilled textile technicians spun the same Shetland wool on suspended spindles with reconstructions of Bronze Age whorls of 4, 8 and 18 g from Nichoria in Greece, recording the length, weight and time of every spindleful (Technical Report 1; Technical Report 2:2). With the same fibre, “the lighter the spindle whorl, the thinner thread will be”, and the tool rather than the spinner decided how much wool went into each metre (Andersson Strand and Nosch, general introduction, p. 6; Technical Report 1, p. 14).
| Whorl | Yarn from 100 g of wool (the two spinners) | Metres spun per hour (the two spinners) | Count from all spindlefuls | In tex (site calculator) |
|---|---|---|---|---|
| 4 g | 1,696 m and 1,609 m | 38 and 30 | 515.3 m from 31.1 g: Nm 16.6 | 60.24 tex |
| 8 g | 960 m and 1,102 m | 40.6 and 41.1 | 786.1 m from 76.5 g: Nm 10.3 | 97.09 tex |
| 18 g | 582 m and 665 m | 53.1 and 45.5 | 350.6 m from 56.5 g: Nm 6.2 | 161.29 tex |
Lighter whorls gave finer yarn but were slower, and fussier. The 4 g whorl would spin the fleece only after it had been washed and combed, and its thread failed as warp at about 14 threads per centimetre: the threads stuck together at each change of shed and broke, and weaving stopped after about 7 cm, which the team put down to too dense a warp and too little twist (Technical Report 2:2, pp. 5 to 10). The 8 g yarn wove well as warp at 10 to 12 threads per centimetre (Technical Report 1, p. 17).
Diameter matters too. A light whorl with a large diameter turns longer than one with a small diameter, so it puts in more twist and gives a harder-twisted yarn (Andersson Strand and Nosch, p. 7, after Holm 1996). Grömer’s tests with original whorls agree. A heavy whorl can tear a wool thread of about 0.4 mm; light whorls of 8 to 12 g from the Hallstatt cemetery suit the finest wool yarns but not thick ones; and flax, whose long fibres hold, spins better even when thin on a heavier whorl of about 30 g, because a light one slows down before it can twist the fast-emerging thread (Grömer 2016, pp. 86 to 88).
So whorl weights are a record of yarn. Late Neolithic whorls from Arbon Bleiche usually weigh 16 to 40 g, Hallstatt-period whorls 5 to 20 g, and the roughly 2,200 found at the hillfort of Smolenice-Molpír in Slovakia average 15.8 g. Wool yarn of 1 to 2 mm was common in the Middle Bronze Age, 0.3 to 0.5 mm in the Hallstatt period, and the finest Hallstatt yarns are down to 0.1 mm (Grömer 2016, pp. 85 to 86, 91). Twist itself, in turns per inch or per metre, is worked through in our spinning formulas and measured by the method of ISO 2061.
The distaff
Wool can be spun straight from the hand, but flax and other long plant fibres need a distaff: a rod long enough for the fibre, about 90 cm for flax, on which the combed fibre is tied and from which it is drawn down as the spindle turns, held under the arm or standing on its own base. A short distaff held in the hand carries a prepared roving or combed band of wool for fine spinning (Grömer 2016, p. 79). Short metal distaffs are known from one Iron Age grave at Frög in Austria, whose reading Grömer questions, and from Late Antique graves at Unterradlberg and Mautern, and Greek vase paintings often show short distaffs (p. 80). English still calls the female line of a family the “distaff side” (p. 75).
Splicing: how flax thread was made before it was spun
Not all early thread was spun. Plant fibre can be spliced instead: bundles of flax fibre 60 to 90 cm long are stripped from the stalk, and their ends are overlapped for a few centimetres and twisted, the flax’s own pectin cementing the join (Grömer 2016, p. 74). Margarita Gleba and Susanna Harris, examining textiles from Europe, Egypt and the Near East, describe a Neolithic European tradition of splicing rather than draft spinning plant fibres, and conclude that the switch to spinning them “occurred much later than previously thought” (Gleba and Harris 2019, Archaeological and Anthropological Sciences 11, 2329 to 2346).
S twist and Z twist
A spindle can be turned either way, so a yarn has a direction of twist. Hold the yarn upright: if the fibres slope like the middle bar of a letter S, it is S-twisted; if they slope like the middle bar of a Z, it is Z-twisted. Industry designates twist this way under ISO 2:1973; archaeologists add a refinement, writing single yarns in lower case (s, z) and plied yarns in capitals (S, Z) (Grömer 2016, glossary, p. 459). Plying is done in the opposite direction to the spinning, which balances the yarn, so z-spun singles make an S-plied thread (pp. 80 to 81). The Abri du Maras cord, the oldest known, already follows the rule: three bundles of S-twisted fibre plied together with a Z twist (Hardy et al. 2020).
Twist direction is a regional habit as well as a technical choice. The Copenhagen spinners spun Z because that “is considered to be the usual method in the eastern Mediterranean area, with the exception of Egypt” (CTR 2006, p. 7). Iron Age weavers, especially in the eastern Hallstatt area, used it for decoration: S and Z yarns reflect light differently, so groups of each laid side by side make a tone-on-tone stripe, the spin pattern (Grömer 2016, p. 70). The amount of twist mattered too. Tightly twisted, stable yarn of combed wool was often used for warp, and loosely twisted yarn made a soft, warm weft (p. 91).
Spinning tools and dates
| Tool or technique | What it added | Dated evidence | Source |
|---|---|---|---|
| Twisting by hand | Fibres twisted and plied into cord | 41,000 to 52,000 years ago: a three-ply cord of inner-bark fibre on a Neanderthal stone tool, Abri du Maras, France | Hardy et al. 2020, Scientific Reports 10, 4889 |
| Twisted plant fibres | Fibres reported as spun, dyed and knotted wild flax | Layers dated 32,000 to 26,000 years ago and later, Dzudzuana Cave, Georgia; the identification as flax was challenged in 2010 | Kvavadze et al. 2009, Science 325, 1359; Bergfjord et al. 2010 |
| Splicing | Flax thread made by joining fibre bundles end to end | Neolithic Europe | Gleba and Harris 2019 |
| Hand spindle with a whorl | A flywheel that keeps the twist going: thread of any length | Central Europe from about 5,600 BC; complete spindle with its thread, Arbon Bleiche 3, Switzerland, about 3,370 BC | Grömer 2016, pp. 75, 81, 83 |
| Distaff | Holds long fibre while the hands draft | Short metal distaffs in Late Antique graves (an Iron Age one at Frög is disputed); a tall rod on a stand on a Greek red-figure cup of the 5th to 3rd century BC, read by Grömer as a flax distaff | Grömer 2016, pp. 79 to 80 |
| Spinning wheel, China | A hand-turned wheel drives the spindle | Northern Song dynasty (960 to 1127): The Spinning Wheel, a handscroll by Wang Juzheng | Palace Museum, Beijing, 新00087180 |
| Great wheel | A large hand-turned wheel drives a horizontal spindle; spinning and winding are still separate | Europe, about AD 1250 to 1300; a great wheel of about 1750 in the Science Museum, a type used extensively in Lancashire for spinning cotton | Grömer 2016, p. 77; Science Museum Group Y1969.12 |
| Flyer wheel, then the treadle (Saxony wheel) | Twists and winds on at the same time; the treadle frees both hands | Flyer known by 1480; treadle drive added in the 16th century | Science Museum Group 1903-82 |
| Charkha | India’s spinning wheel, in single-spindle, multi-spindle and portable forms | A stainless-steel Hind Pocket Charkha made in Pune between 1923 and 1947 | V&A IS.83-2016; charkha types |
| Spinning jenny | One wheel turns many spindles; still hand-powered | James Hargreaves’s original of about 1766 | Science Museum Group 1970-174 |
| Water frame | Pairs of rollers turning progressively faster draw out the cotton before it is twisted; water power | Arkwright’s machine of 1775, run by water power at Cromford, spinning eight threads | Science Museum Group 1860-5 |
| Mule | Rollers plus the jenny’s moving carriage: fine yarn for weft | Samuel Crompton, 1772 to 1779 | Science Museum Group 1912-317 |
How the spinning wheel works
On the great wheel (the Science Museum also calls it a Jersey wheel), the spindle lies horizontally and a band from a large wheel turns it, so the wheel does the whorl’s job. One hand turns the wheel and the other draws the fibre out against the spindle; twisting and then winding the new length on are still two separate steps (Grömer 2016, p. 77). The flyer wheel joined them. The thread enters a hole at the end of the spindle, comes out through a hole in the side and passes over a hook on one of two curved arms, the flyer, to a bobbin; because the bobbin and the flyer turn at different speeds, the yarn is twisted and wound on at once and spinning never stops (Science Museum Group 1903-82; Grömer 2016, p. 77). With a treadle turning the wheel, both hands were free to draft; the Science Museum notes that this Saxony wheel was used mainly for long fibres such as flax and wool. The single-spindle charkha is still used for khadi beside multi-spindle frames, as our khadi page explains.
Have spinning tools changed much since they were invented? The spindle hardly has. A whorl’s work as a flywheel leaves little room for its shape to change, and Grömer sets the hand spindle at more than 7,000 years old against 600 to 800 years for the spinning wheel and about 500 for the treadle wheel (Grömer 2016, pp. 76, 82 to 83). But the way yarn was made changed several times: the wheel took over the whorl’s job, the flyer joined twisting to winding, the treadle freed the hands, and from the 1760s machines began to take over.
What hand spinning produced, and how long it took
The Copenhagen tests give the rate: on the 8 g whorl the two spinners filled 30 spindles with 786.1 m of wool thread in 19.3 hours, about 41 m an hour, each spindleful averaging 26 m in 38 minutes (Technical Report 1, pp. 8 to 12). Not every gram of wool reached the thread: from sorted wool to spun yarn they discarded 26 to 40%, which could still serve for coarser thread, felting or filling (p. 11).
A whole cloth shows the proportion. The weaving team of the Düppel Museum near Berlin, with decades of experience, made a 3 × 2 m twill cloth on a warp-weighted loom in 529 hours of work, and spinning the warp and weft on hand spindles took 332 of those hours, close to two thirds (Grömer 2016, p. 134).
Worked example: the thread in one square metre of cloth
Take a plain-weave wool cloth with 11 threads per centimetre in both warp and weft. That is the density in Andersson Strand’s flax figures, and close to the 10 to 12 warp threads per centimetre that the Copenhagen team wove with its 8 g whorl yarn.
- Thread needed. 100 cm × 11 threads × 2 systems = 2,200 m of thread per square metre (Grömer 2016, p. 65), before take-up in the weave and waste on the loom.
- The yarn’s count. The 8 g whorl gave 786.1 m from 76.5 g, or 10.3 m per gram: a metric count of Nm 10.3. The count converter with Nm 10.3 entered gives 97.09 tex, or Ne 6.08.
- Weight of yarn. 2,200 m × 97.09 g per 1,000 m = about 214 g of spun wool. With 39 to 40% of the sorted wool discarded on the 8 g whorl (Technical Report 1, p. 11), that is about 350 to 360 g of sorted fleece.
- Spinning time. 2,200 m ÷ 40.7 m an hour = 54 hours of spinning, before the hours spent preparing the wool.
- Check against a real cloth. The Düppel cloth took 332 hours of spinning for 6 m², or 55 hours a square metre.
Two independent measures land about an hour apart, at 54 and 55 hours: hand spinning cost about 55 hours for every square metre of cloth, which is why spinning, not weaving, set the pace of early textile production.
Weaving: the second step
Weaving takes the spun yarn and interlaces it. The warp is set up first and held under tension on a loom; part of it is lifted to open a shed, the weft is passed through and beaten in, and the shed is changed for the next pick. Clay impressions of interlaced, woven material from Pavlov I in Moravia, possibly basketry rather than cloth, are about 26,000 years old (Adovasio, Soffer and Klíma 1996). The looms themselves have two pages of their own: the history of looms, a dated timeline from the ground loom to the air-jet machine that also answers when the loom was invented, and traditional weaving methods around the world, which shows how a shed is made by hand.
The two steps depend on each other, because the yarn decides how the loom is set. In the Copenhagen tests the 8 g yarn needed about 18.5 g of loom weight per thread (11 g was too little) and the finer 4 g yarn about 13 g; on the 8 g warp one weaver passed about 30 wefts an hour across a 30 cm sample, two working together about 45 (Technical Report 1, pp. 16 to 17; Technical Report 2:2, p. 9).
From hand to machine: mechanised textile production
Machines came to spinning before weaving, and mostly to cotton. Hargreaves’s spinning jenny of about 1766 was, in the Science Museum’s words, “the first machine to improve upon the spinning wheel”: still turned by hand, but driving many spindles at once (1970-174). Arkwright’s water frame drew the cotton out between pairs of rollers turning progressively faster before twisting it, and ran on water power at Cromford (1860-5). Crompton’s mule, built between 1772 and 1779, combined Arkwright’s rollers with the jenny’s moving carriage to spin fine yarn for weft (1912-317). Cartwright patented his power loom only in 1785; its story is in the history of looms, and how yarn is spun in a mill today is in yarn spinning.
Questions
What is the difference between spinning and weaving?
Spinning turns fibre into yarn by drawing it out and twisting it; weaving turns yarn into cloth by interlacing two sets of threads, the warp and the weft, at right angles. Spinning uses a spindle or a spinning wheel, weaving uses a loom. Spinning comes first, and by hand it took far longer than the weaving.
Which step comes first in making cloth, spinning or weaving?
Spinning. The fibre is prepared, then spun into yarn, and only then woven. Twisting fibre is also far older than weaving: the oldest known cord is 41,000 to 52,000 years old, and the oldest impressions of woven material are about 26,000 years old.
When was yarn first made, and who invented it?
No one person invented it. The oldest direct evidence is a three-ply cord of twisted inner-bark fibre on a stone tool from Abri du Maras in France, dated to 41,000 to 52,000 years ago and made by Neanderthals (Hardy et al. 2020). The spindle with a whorl, the first true spinning tool, appears in Central Europe with the first farmers, from about 5,600 BC.
Where was spinning traditionally done, and by whom?
Mostly in the home, by women. Grömer describes textile work in prehistoric Central Europe as household production, still widespread in rural areas through the Middle Ages and the modern era, and finds that, unlike the other steps of textile work (shearing, flax preparation, dyeing, sewing), spinning and weaving can be attributed fairly clearly to women: spindle whorls and loom weights are usually found in women’s graves (Grömer 2016, pp. 247 to 248, 273 to 274). A drop spindle is portable, so spinning also filled the gaps in other work.
What is hand weaving?
Weaving on a loom worked by the weaver’s hands and feet, with no motor: the weaver opens each shed, passes the weft and beats it in. Indian law defines a handloom as “any loom, other than power loom” (Handlooms Act, 1985, section 2(b)). Hand-woven cloth may be woven from hand-spun or mill-spun yarn; khadi is India’s term for cloth that is both hand-spun and hand-woven.
How does a spinning wheel work?
A large wheel, turned by hand or by a treadle, drives the spindle by a band and does the whorl’s work. On the older great wheel the spinner twists a length and then winds it on; on the flyer wheel a flyer of two curved arms and a bobbin turning at different speeds twist and wind at the same time, so spinning is continuous (more above).
Sources
- Karina Grömer, The Art of Prehistoric Textile Making: The development of craft traditions and clothing in Central Europe, Natural History Museum Vienna, 2016 (open access). Fibre preparation pp. 62 to 74, spinning pp. 74 to 91, production pp. 247 to 275, glossary pp. 459 to 460.
- Centre for Textile Research, University of Copenhagen, Tools and Textiles: Texts and Contexts: L. Mårtensson, E. Andersson, M.-L. Nosch and A. Batzer, Technical Report, Experimental Archaeology, Part 1, 2005 to 2006 and Part 2:2, Whorl or bead?, 2006; E. Andersson Strand and M.-L. Nosch, Technical Textile Tools Report: General Introduction.
- B. L. Hardy and others, Direct evidence of Neanderthal fibre technology and its cognitive and behavioral implications, Scientific Reports 10, 4889 (2020).
- E. Kvavadze and others, 30,000-year-old wild flax fibers, Science 325, 1359 (2009); C. Bergfjord and others, Comment on “30,000-year-old wild flax fibers”, Science 328, 1634 (2010).
- J. M. Adovasio, O. Soffer and B. Klíma, Upper Palaeolithic fibre technology: interlaced woven finds from Pavlov I, Czech Republic, c. 26,000 years ago, Antiquity 70, 526 to 534 (1996).
- M. Gleba and S. Harris, The first plant bast fibre technology: identifying splicing in archaeological textiles, Archaeological and Anthropological Sciences 11, 2329 to 2346 (2019).
- Museum records: Science Museum Group Y1969.12 (great wheel), 1903-82 (Saxony wheel), 1880-98 (hand churka), 1970-174 (spinning jenny), 1860-5 (water frame), 1912-317 (mule); Victoria and Albert Museum IS.83-2016 (pocket charkha) and 0930:18/(IS) (Ginning cotton, Berar); Palace Museum, Beijing, The Spinning Wheel, Wang Juzheng.
- US National Archives, Patent for Cotton Gin (1794); Government of India, Handlooms (Reservation of Articles for Production) Act, 1985; J. T. Platts, A Dictionary of Urdu, Classical Hindi, and English (1884, Digital Dictionaries of South Asia, University of Chicago).
How this page is kept
Last verified: 11 October 2026. Every date and figure above was read on that day in the source linked beside it: the Centre for Textile Research’s experiment reports, the Natural History Museum Vienna’s handbook of prehistoric textile making, peer-reviewed papers, and object records of the Science Museum Group, the V&A and the Palace Museum. The tex counts come from the site’s count converter as it stood on that date; the rates and the worked example are arithmetic on the reports’ own totals. Where a popular date could not be traced to such a source, such as the year the spinning wheel reached India, it has been left out rather than guessed. The page was rewritten in full on 11 October 2026, replacing an earlier text that dated the start of spinning and weaving together to “30,000 years ago”, put Cartwright’s power loom in the 19th century and counted the draw frame among the inventions of early hand spinning. Found an error? Tell us through the contact page, naming the section and the source that disagrees.
