The Forgotten History of the Match: How a Phosphorus Disaster Turned Fire into a Commodity

Starting a fire is one of the oldest things humans do, and for almost all of human history it was hard. Even with practiced flint-and-steel technique you needed dry tinder, a steel striker, a piece of flint, and a minute or two of work to coax a spark into a flame. With a fire-piston or fire-drill it took longer. Coastal foragers and high-arctic peoples carried smoldering embers in clay pots between camps because re-igniting was harder than transporting fire.

For most of the 19th century, this changed completely. The friction match collapsed fire-starting from a multi-minute skilled activity to a single second and a flick of the thumb. It is one of the most economically transformative inventions of the period, and almost nobody knows the story.

The slow prehistory

The relevant chemistry was discovered in 1669 by the German alchemist Hennig Brand, who was attempting to make the philosopher's stone from boiled-down human urine. He instead isolated white phosphorus, which glowed in the dark and ignited spontaneously in air. For 150 years phosphorus was a chemical curiosity studied by Boyle, Lavoisier, and others, but the chemistry of controlled ignition was not yet good enough to make it useful for striking a fire.

The first match-like devices were the "promethean matches" of the 1820s: glass tubes containing sulfuric acid surrounded by potassium chlorate, which the user would crush to ignite. They were dangerous, expensive, and used by a small luxury market. Tinderboxes, flint-and-steel, and burning glasses remained the standard ignition tools for everyone else.

The friction match arrives

In 1826, an English pharmacist named John Walker stirred a stick of antimony sulfide, potassium chlorate, gum, and starch, then absent-mindedly scraped the dried tip against his hearth. It burst into flame. Walker sold them locally under the name "Friction Lights" from 1827 but did not patent the design, considering it too useful to enclose with intellectual property. The match required a folded piece of glass paper to drag along the tip for friction, and the smell was famously awful: a Scottish chemist later described it as "sulphurous fumes of an extremely fetid character."

Samuel Jones patented a similar match in 1829 (the Lucifer), and Charles Sauria of France switched the formula to white phosphorus in 1831, producing a match that ignited reliably and smelled less. By 1840 the white phosphorus match was the dominant form across Europe and America. Production scaled rapidly: by 1850, British factories alone were producing about 250 million boxes per year, and prices had collapsed from luxury good to penny commodity.

Phossy jaw

White phosphorus is poisonous. Workers in match factories, mostly young women and children, were exposed to phosphorus vapor for ten-to-fourteen-hour shifts. The vapor accumulated in the jawbone via tooth decay and caused phosphorus necrosis of the jaw, known colloquially as "phossy jaw." The disease typically began with a toothache, progressed through swelling and abscesses, and eventually destroyed the jaw bone entirely. Surgical removal of the affected bone was the only treatment, and the disfigurement was permanent. Many cases progressed to fatal organ failure.

The disease was clearly documented by 1845 (Lorinser at Vienna published the first systematic case series), and by the 1850s it was recognized as an occupational disease affecting a substantial fraction of match-factory workers. The chemistry to avoid it was also known: red phosphorus, discovered by Anton Schrötter in 1845, is non-toxic and non-spontaneously-flammable, but it required a different production technique that initially produced inferior matches and was more expensive per box.

The Salvation Army opened a model factory in London in 1891 using only red phosphorus, demonstrating that the safer chemistry was commercially viable. The Bryant and May factory in Bow famously employed thousands of mostly Irish immigrant women in dangerous conditions; the 1888 London Matchgirls' Strike, organized by Annie Besant after she published her expose "White Slavery in London," forced concessions on wages and working conditions but did not end white phosphorus use at Bryant and May until 1901.

International prohibition arrived through the 1906 Berne Convention, which banned the manufacture, import, and sale of white phosphorus matches. The United Kingdom ratified in 1908, the United States passed the Esch-Hughes Act in 1912 (using a punitive tax rather than direct prohibition because of constitutional concerns), and most other industrialized countries followed in the 1910s. White phosphorus matches were essentially gone by World War I, after seventy years of widespread use and tens of thousands of cases of phossy jaw.

The safety match

The modern safety match was developed by Gustaf Erik Pasch in 1844 and refined by Johan Edvard Lundstrom in Sweden through the 1850s. The Lundstrom design separates the chemistry of the strike pad (red phosphorus) from the chemistry of the match head (potassium chlorate, sulfur, antimony sulfide), so the match cannot be struck against anything except the prepared pad. This eliminates accidental ignition and uses the safe red phosphorus chemistry.

The safety match took several decades to displace the white phosphorus match in markets where the latter was still legal, partly because matches that could be struck on any surface were a feature consumers wanted. Strike-anywhere matches survived in some markets until the late 20th century using phosphorus sesquisulfide (P₄S₃), a less-toxic compound that ignites on friction with most surfaces. They are still legal but rare; safety matches dominate global production.

What the match made possible

The economic and social impact of cheap reliable matches is one of the most under-recognized infrastructural shifts of the 19th century. Home lighting in the form of oil lamps, candles, and gas mantles all required ignition, and households previously kept a fire burning continuously partly because re-starting one was difficult. The match made it economical to extinguish fires at night and re-light them in the morning, reducing fire-related house fatalities and saving an enormous quantity of fuel.

Tobacco use shifted dramatically toward cigarettes because matches made it convenient to light a small briefly-burning paper tube; pipe smoking had previously dominated because pipes could be lit from candles or hearth coals and stayed lit longer. Industrial work that required quick ignition (welding, soldering, certain food processing) became dramatically faster. Camping and military expeditions could rely on dry matches rather than carrying flint-and-steel and tinder.

The match itself disappeared as a consumer technology over the late 20th century. Disposable lighters, electric ignitions, and built-in pilot lights replaced matches for most ignition purposes. Strike-on-box safety matches are still made (about 500 billion annually worldwide as of the early 2020s), mostly for camping, candles, and emergency kits, but the per-capita match use in industrialized countries is a small fraction of what it was a century ago.

The deeper observation

The match is one of the technologies whose impact ran through everyday convenience rather than through any single dramatic application, which is part of why it is forgotten. The phossy jaw episode is also one of the first cases where a modern industrial society systematically prohibited a profitable industrial process because of harm to workers, three decades before workplace safety became a general legislative concern. The pattern of new chemistry enables cheap consumer technology, mass production reveals occupational disease, decades of pressure from labor advocates and journalists leads to regulation, alternative chemistry that was always available becomes mandatory is one that recurs across leaded gasoline, asbestos, vinyl chloride, and a number of more recent cases. The match was an early instance of that recurring story, and remembering it is part of how the next instance gets recognized in time.