A machine for strong thread
Before the water frame, spun cotton was usually soft or weak, and weavers often used linen for the warp, the lengthwise threads that have to bear tension on the loom. A machine that could produce strong, evenly twisted cotton yarn would allow cloth made entirely from cotton. That is the water frame’s main place in textile history.
The machine used a series of pairs of rollers turning at different speeds. The roving, a loosely twisted strand of fiber, was pulled between the first pair of rollers and then through a second pair that turned faster, which stretched it out into a thinner strand. A spindle with a flyer, a U-shaped arm, then twisted the thread and wound it onto a bobbin. The whole process was continuous and mechanical, so the machine needed little skill from the operator beyond tending breaks and replacing bobbins.
Who invented it?
The machine is associated with Richard Arkwright, a barber and wigmaker turned businessman from Preston and later Nottingham. He took out a patent in 1769 on a roller-spinning machine, which is the usual date given for the water frame, and it was named for its water power.
Credit is disputed. Roller drafting had been tried earlier, notably by Lewis Paul and John Wyatt in the late 1730s. Others, such as the Lancashire clockmaker Thomas Highs, said they had devised the machine first, and Arkwright worked with a clockmaker named John Kay (not the inventor of the flying shuttle), who is said to have helped build the first models. Arkwright’s success lay more in organizing capital, workers and marketing than in sole invention. In 1785, courts ruled his patent invalid, which opened the technology to other manufacturers.
From horses to water
Arkwright’s first small mill in Nottingham, around 1769, is reported to have used horses for power. This was costly and limited, so he and his partners, including Jedediah Strutt, moved to the Derwent valley in Derbyshire. In 1771 they began a mill at Cromford, powered by a waterwheel using a stream and water from a nearby lead mine drainage channel. It was the first of several, and Cromford is often described as the model for the early factory.
Powering spinning machines with water was an extension of long-established technology. Medieval mills had ground grain and fulled cloth with waterwheels for centuries. What changed was that a wheel now drove dozens of spinning machines in a multi-story building, and the work went on for long shifts. Cromford ran day and night in some periods, with workers in shifts.
The mill village
Mills needed fast water, and the best sites were often in remote valleys with few people. Mill owners therefore had to bring in workers and house them. This led to mill villages, where the owner built cottages, sometimes a church, a school and a shop, to hold a workforce near the mill.
- Cromford, Derbyshire, had rows of stone cottages and a market built by Arkwright. Its mills and village are now part of a UNESCO World Heritage Site covering the Derwent Valley.
- Quarry Bank Mill at Styal, Cheshire, was founded in 1784 by Samuel Greg and is now a museum, with an apprentice house and a village.
- New Lanark, Scotland, was established in 1786 by David Dale and Richard Arkwright, then run by Robert Owen from 1800. It is known for Owen’s educational and welfare experiments, and it is also a World Heritage Site.
These villages are sometimes presented as caring communities and sometimes as ways to control workers, and the truth varied from place to place.
Who worked in the mills
Early water-frame mills were designed for a workforce of women and children as well as men, since the machines were considered easy to tend. Arkwright’s advertisements sought families with many children. Some mills relied on pauper apprentices, orphans or poor children sent from parish workhouses and bound to a master until adulthood. Hours were long, often twelve or more a day, and conditions could be harsh, with dust, noise, moving machinery and risk of accidents. Some owners were comparatively considerate, while others were not. The treatment of child workers led to reform laws, beginning with the Health and Morals of Apprentices Act of 1802, though early laws were weakly enforced.
Why it mattered
The water frame helped set several features of the modern factory: power from a central source, a building designed for the machinery, discipline of time, and a workforce hired for wages. It also created a bridge between small-scale craft and heavy industry. Raw cotton arrived by road, river or canal locks and left as yarn for weavers, and mills drew in the engineering skill to keep the machinery running.
The restrictions of the water frame also reveal why more development followed. It made strong but coarse yarn, and it needed water power, which meant a fixed location. The spinning mule then allowed finer yarn, and the rising use of steam engines released mills from the river. Even so, the early water-powered cotton mills remain a major landmark, since they show the point at which spinning ceased to be a household craft and became a factory trade.