Factories: Organizing Machines, Labor and Production

The house and the merchant did not vanish

Before the mill, a lot of cloth was made in the putting-out trade. A merchant owned the fiber. Households spun and wove it. He paid for the piece and sold the pile. The pace was the household’s, until the merchant wanted the goods. Quality wandered. So did the delivery date. That system was not stupid. It used labor that was already in the countryside, and it needed no wheelhouse.

Lombe’s silk mill at Derby, raised in the years around 1721, is one early English case of the other idea: many machines, water power, and a hired crew under one roof, throwing silk on frames copied from Italy. Call it an early factory if you need a word. Do not call it the invention of organized work. The Venetian arsenal had been a concentrated works for centuries. What Derby shows is that a powered room full of similar machines was thinkable before cotton.

Cotton is where the room became common. It did not become universal. Berg’s point, and it is the one to keep, is that industry in that century was a mix. A mill, a workshop, and a cottage could feed the same merchant. The story in which the factory simply replaces the home is a later simplification.

Why put them under one roof at all

A waterwheel large enough to matter is a lump of capital. So is a steam engine, once you get to that chapter. Either one wants to turn more than a single spindle if you are paying for the race or the coal. Frames that only work when the shaft turns are the same kind of lump. You get your money back by running them long and together. That is the practical push toward one site. An economist’s later paper, Thomas Geraghty’s, calls this complementarity: the machines and the shared power source were worth more in the same building than apart. It is an argument about why the roof paid. It is not a mill ledger.

The roof also let an owner see the hands. In a cottage, the merchant saw the finished piece. In a mill, a overlooker saw the hour. Sidney Pollard’s study of early management is blunt about how rough that seeing was. These men were inventing a way to run a room. They did not inherit a science of management. Rules, fines, and a bell were the tools they actually had.

The first cotton mills were water mills

Richard Arkwright’s mill at Cromford opened in 1771 on a stream, turning his water frame. The steam page already said this, and this page will not take it back. Steam widened the choice of site later, where coal and a canal could be had. It did not found the factory, and it did not lift the industry off the map. A wheel still tied you to a fall. An engine tied you to fuel. Both tied you to a road or a river that could carry cotton in and cloth out.

Inside, one prime mover drove a shaft, and belts came off the shaft to the frames. Stop the wheel, or throw a main belt, and a row of machines stopped with it. That coupling is the mechanical fact people miss when they talk about a factory as a collection of separate tools. The machines were geared to each other through the building. A later shop, with a motor on each machine, is a different building. Electrification took decades. Do not draw it back onto Cromford.

Spinning went into the mill. Weaving mostly did not, not yet

Dividing a job into small tasks is older than any of this. Adam Smith, in 1776, used a pin shop to make the point: ten men, each doing a slice, outran ten men each making a whole pin. Treat that as his illustration, not as a census I am willing to swear to. It is also a workshop argument. It is not a description of a powered cotton mill.

The cotton machines split. James Hargreaves’s spinning jenny, patented in 1770, was a hand machine. It could sit in a cottage or a small shop. Arkwright’s water frame, patented in 1769, wanted a power source and a building. Samuel Crompton’s mule, in 1779, drew on both and was not patented at the start. It became the spinning machine that mattered, and in time it was powered. Edmund Cartwright’s power-loom patent is 1785. The patent is not a mill full of looms. His own attempts and the early sheds did not stick. Handloom weavers remained a large workforce for decades. Roger Holden’s re-reading of the engineering is the sober one: getting a loom that could weave the range of Lancashire cloths, at a speed one person could tend, was a nineteenth-century job, not a solved problem in 1785.

So the mill changed spinning first. Weaving stayed a cottage trade, under pressure, for a long time after the frames were indoors. Anyone who says “the machines replaced the weavers” in one step has skipped a generation of people who were still at the loom in the house.

Interchangeable parts are not Eli Whitney’s gift

A mill wants the next piece to fit. Gauges, jigs, and a man who will scrap a bad part are how you creep toward that. The leap people tell in school — Eli Whitney invented interchangeable parts in 1798 and the American system followed — does not survive the record. Robert Woodbury took that legend apart in 1960. Whitney had a government musket contract. He did not deliver a system in which any lock fit any musket from the pile, and the demonstration that was supposed to prove it does not prove it.

The work that did move toward gauged, repeatable arms sat in armories, later, and it was hard. John H. Hall’s rifle shop at Harpers Ferry is the case Merritt Roe Smith studied: specialized machines, inspection, and a military buyer who could insist on fit. Even there, “interchangeable” was a goal fought for inside one product, not a property of every factory in the Atlantic world. Portsmouth dockyard’s block mills, set up in the first decade of the nineteenth century by Marc Brunel, Henry Maudslay, and Samuel Bentham, are a different real thing: a sequence of machines making wooden pulley blocks for the Navy. People still ran the machines. A line of special tools is not a robot, and it is not a musket.

The machine created a maintenance job

Frames break. Belts glaze. Spindles run hot. Somebody has to true them, oil them, and put them back in time. That somebody is not a leftover from the old craft. He is part of the new room. Mechanization took the twist of the thread off one set of hands and put setting, piecing, carrying, and repair onto another set. The steam page said the engine hired a crew. The mill did the same around the frames.

Children were in that crew. The 1802 act aimed at pauper apprentices in cotton mills, talked about a twelve-hour day, and had almost no way to make anyone obey it. It did not cover the children who were not apprentices. The 1833 Factory Act, for textile mills, barred work under age nine, limited ages nine through twelve to eight hours and ages thirteen through seventeen to twelve, required some schooling for the younger children, and appointed four inspectors for the country. A statute is not the floor of every mill the next morning. Four inspectors are not a net. The 1842 act that kept women and girls, and boys under ten, out of underground mine work is a related law, not proof that the mill problem was finished. I am telling you what Parliament wrote. I am not telling you the rooms became kind.

Inspection was a person with a gauge, when there was a gauge

More output makes bad output expensive. Some shops caught it by eye and by hand, the old craft way. Some, especially where the buyer was the state and the part had to fit a mate, built gauges and told a man to use them. Both happened. Neither one is machine vision, and neither one is a statistical chart on the wall. Those are twentieth-century tools. The urge to know whether the lot is good is older. The instrument is not.

The bell was a rule, not a new invention

Clocks had struck hours for centuries. The clock page already refused the claim that a tower clock suddenly put Europe on one schedule. A mill adds something narrower and harsher: the machine starts, and your wage depends on being there when it does. E. P. Thompson’s 1967 essay is the famous argument that industrial capitalism taught a new time discipline, against an older habit of working to the task. Later historians have pulled that contrast softer. Task time and clock time overlapped. Not every trade entered a mill. Not every mill was a model of punctuality rather than a fight about fines.

What I will say is smaller. Where the shaft started at a set hour, lateness was no longer only between you and a merchant who wanted a piece next week. It was between you and a room that had already begun. That is a change in power, as much as a change in clocks.

Where this sits in the history of automation

A plant now can have a motor on each machine, a sensor, a controller, and a line that stops itself when a guard opens. Some do. Many shops still run a person at the machine. I am describing equipment that exists, not a rule that every factory bought it.

The kinship with the early mill is the coordination problem, not the hardware. Power has to be there. Material has to be there. The next station has to be able to take the work. Somebody has to keep the machine in order and say whether the piece is good. The early mill solved those with a wheel, a shaft, a overlooker, and a wage. The break is the closed loop: a measurement that can change the machine without waiting for the overlooker to walk over. Cromford did not have that. Do not promote a belt-driven room into a lights-out plant because the frames stood in a row.

The long use, without the straight line

Later shops answered limits this room actually had. A motor on the machine answered the belt that stopped everybody. Gauges and then statistical checks answered a lot that was still judged by eye. Electric light, a factory act with enough inspectors, and a union answered conditions a preamble did not. Each of those arrived when somebody could build it or compel it, and somebody would pay. None of them was sitting inside Arkwright’s wheelhouse waiting to be noticed.

The mill earns its place because it made power, machines, materials, and a hired crew share one clock. It does not earn the claim that production became automatic, or that one design covered every trade. The shaft does not care what we call it. It only turns what the wheel will drive, and it stops when the belt comes off.