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From Bakelite in 1907 to more than half a billion tonnes a year today. The counters below run on the latest published production data and update every fraction of a second.
Metric tonnes. Estimate based on peer-reviewed and industry data; see “How the clock works” below. Microplastic counters use the average from a 2024 study of 16 protein foods (about 11,500 particles per person per year) and count protein foods only, so they are a low estimate.
Annual production of polymer resins and synthetic fibres, in million tonnes (Mt). It rose from 2 Mt in 1950 to 460 Mt in 2019. Production fell in only three periods: the 1970s oil shocks, the 2008 financial crisis and the 2020 pandemic. Switch to the log scale to see that growth has slowed from about 9% a year in the 1950s–60s to about 2–4% now. No figure was published for 1974, so that year is left blank.
Filled orange dots mark waste and policy events. Invention dates follow the Science History Institute and the Royal Society of Chemistry; production figures follow the sources listed at the bottom of the page.
Cumulative production since 1950, in billion tonnes. Half of all plastic ever made has been produced since about –. Geyer, Jambeck and Law (2017) put the total at 8.3 billion tonnes by 2015 when additives are included; the line here counts resins and fibres only.
Of 353 Mt of plastic waste generated in 2019, about 15% was collected for recycling, but 40% of that was lost as residue, leaving 9% actually recycled. The rest went to landfill, incineration, or escaped waste systems entirely (open dumps, open burning, rivers and oceans). Source: OECD Global Plastics Outlook (2022).
Of roughly 6.3 billion tonnes of plastic waste generated by 2015, about 9% had been recycled, 12% incinerated, and 79% had piled up in landfills or the natural environment. Source: Geyer, Jambeck & Law, Science Advances (2017).
For fifty years, recycling has been presented as the answer to plastic waste. The data shows it has never come close: production keeps growing far faster than anything gets recycled, and most plastic cannot be recycled at all.
Putting plastic in a recycling bin does not mean it becomes new plastic. Worldwide, 40% of what is collected is sorted out as residue and burned or buried; much of the rest is shredded and melted in ways that shed microplastics and toxic chemicals, and some is turned into fuel and burned. Measured by climate damage, burning plastic is far worse than burying it.
Top bar: all 353 Mt of plastic waste generated in 2019. Bottom bar: the 15% (about 53 Mt) collected for recycling. Of that, 40% was thrown out as residue at sorting and reprocessing plants, mainly because it was the wrong type, dirty or mixed, and went on to be burned or landfilled. Only the remaining 60% became recycled material, which is the 9% in the top bar. “Mismanaged” means dumped, openly burned or leaked to the environment. Source: OECD Global Plastics Outlook (2022); tonnages are calculated from its percentages.
Net greenhouse gases per short ton of mixed plastic, in tonnes of CO₂-equivalent, from the US EPA’s Waste Reduction Model. Burning emits about 30 times more than landfilling (1.25 vs 0.04), even after crediting the electricity it generates; before that credit, burning a tonne of plastic releases about 2.9 t of CO₂ (CIEL). Plastic in a landfill is mostly inert, so it releases little greenhouse gas. The EPA credits recycling with a saving, but only on the assumption that each ton recycled replaces a ton of new plastic; worldwide, new production has kept rising regardless (see “Made vs. recycled” below).
One modern UK plant that shreds and washes about 22,680 tonnes of plastic a year. Researchers estimated its wash water carries up to 2,933 t of microplastics a year before filtering (up to 13% of what it processes), and up to 1,184 t with the filters it has now. Most particles are smaller than 10 µm and pass straight through the filters. Brown et al., Journal of Hazardous Materials Advances (2023); upper estimates from one pilot study.
| Route | What happens | Climate (t CO₂e per short ton, EPA) | Other pollution | What’s left |
|---|---|---|---|---|
| Landfill | Buried in a lined site | 0.04 | Plastic stays largely inert for decades; long-term breakdown is slow | The plastic itself, buried |
| Incineration (“waste-to-energy”) | Burned, some heat turned into electricity | 1.25 net (≈2.9 t CO₂ per tonne before the electricity credit, CIEL) | Dioxins and furans, heavy metals; US plastic incineration emitted 5.9 Mt CO₂e in 2015 (CIEL) | Ash equal to about a quarter of what was burned; the fly ash carries heavy metals and must be treated before disposal |
| Mechanical recycling (shredding, washing, melting) | Sorted, shredded, washed, melted into pellets | −1.03, if the pellets replace new plastic | Up to 13% of the plastic lost as microplastics in wash water at one plant; 491 chemicals found in recycled pellets from 13 countries; heating can create new toxics such as brominated dioxins and benzene | Lower-grade pellets, plus residue (about 40% of what is collected) that is burned or landfilled |
| “Chemical recycling” | Heated or broken down into oils and gases | No EPA factor | Permits list benzene, styrene, arsenic; 5 of 8 US plants studied in 2022 made fuel | Mostly fuel, which is then burned |
| Open burning | Burned in the open, no controls | No EPA factor | Smoke, soot and toxics released directly where people live; about 30 Mt of plastic burned this way in 2020 | Toxic ash on open ground |
Sources: US EPA WARM (archived plastics chapter); CIEL, Plastic & Climate (2019); Brown et al. (2023); Carney Almroth et al., Data in Brief (2023); Greenpeace USA, Forever Toxic (2023); NRDC (2022); Cottom et al., Nature (2024). Ash share: engineering study of municipal waste incinerators (MATEC, 2018), for mixed municipal waste, not plastic alone.
The bottom line: by greenhouse gases, burning plastic is clearly worse than burying it. Shredding and melting can save emissions on paper, but they release microplastics, carry toxic chemicals into new products and can create new ones, and much of what goes into the recycling system ends up burned anyway.
World plastic production compared with post-consumer recycled plastic output, million tonnes. From 2018 to 2024 recycled output grew by 10.8 Mt while total production grew by 60.3 Mt, nearly six times as much. Source: Plastics Europe, Fast Facts 2025.
Plastic in US municipal waste, million short tons. In 2018 Americans threw away 35.7 million tons of plastic: 27.0 went to landfill, 5.6 was burned for energy, and 3.1 was recycled. Source: US EPA, Facts and Figures about Materials, Waste and Recycling.
Share of each type that US plants actually reprocessed, per Greenpeace USA’s Circular Claims Fall Flat Again (2022). Only #1 (PET bottles) and #2 (HDPE jugs) are widely accepted, and even those fall well short; types #3 to #7 are each below 5%. Paper, cardboard and metals are recycled at far higher rates.
| Year | Recycled (thousand tons) | Landfilled (thousand tons) | Tons landfilled per ton recycled |
|---|
US EPA, US short tons. “–” means no recycling was recorded that year. The EPA stopped publishing this series after 2018.
The plastic that is not recycled does not disappear. It breaks into smaller and smaller pieces, and scientists now find those pieces in our food, our blood and our arteries, and in fish, birds and farm animals.
Percent of samples, individuals or species found with plastic in each study listed above. Where a study reports a range across sites, the lowest value is shown. Studies use different methods and sample sizes, so compare them as a pattern, not head to head.
The best-known estimates of the amount span about a hundred million times, from billionths of a gram to grams. Scale is logarithmic: each step is ten times the last.
What is not in dispute: plastic particles are getting into human bodies. What is still open is how much, and what it does there. In January 2026 The Guardian reported that seven studies of microplastics in human tissue had been formally challenged over measurement methods.
Share of 430.9 Mt reported by Plastics Europe for 2024. Asia makes 57.2% of the world’s plastic; China alone makes 34.5%. Europe’s share has fallen from 22% in 2006 to 12%.
Polypropylene and the polyethylenes (the stuff of bags, films, bottle caps and containers) make up nearly half of the total. Recycled (“circular”) plastic passed 10% of world output for the first time in 2024. Source: Plastics Europe, Plastics – the Fast Facts 2025.
Packaging is the largest single use, and most packaging becomes waste within a year of being made. Million tonnes by sector, 2019. Source: OECD Global Plastics Outlook via Our World in Data.
The OECD projects that without new policies, plastic use will nearly triple to 1,231 Mt by 2060, with plastic waste reaching 1,014 Mt and leakage to the environment doubling to 44 Mt a year. Coordinated global action could hold 2060 use to about 827 Mt. A UN treaty to end plastic pollution has been under negotiation since 2022; talks in Busan (2024) and Geneva (2025) ended without agreement, and the committee elected a new chair in February 2026.
| Year | Annual (Mt) | Growth over previous decade | Cumulative since 1950 (Mt) |
|---|
Orange figures are estimates or projections. Mt = million metric tonnes.
| Year | World total (Mt) | Fossil-based (Mt) | Post-consumer recycled (Mt) | Bio-based (Mt) |
|---|
Plastics Europe’s series counts plastic materials only and excludes most synthetic fibres (PET, nylon and acrylic textiles), adhesives, paints and coatings, so it runs about 20% lower than the Geyer/OECD series used for the clock. Small components (chemically recycled, carbon-captured) are included in the totals but not shown.
| Year | Annual (Mt) | Cumulative (Mt) | Basis |
|---|
1950–2019, measured. Annual global production of resins and synthetic fibres from Geyer, Jambeck & Law (2017), extended to 2019 by the OECD’s Global Plastics Outlook, as compiled by Our World in Data. Cumulative total through 2019: 9,492 Mt.
2020–2024, estimated. The OECD reports a 2.2% fall in 2020. For 2021–2024 the 2019 OECD figure is carried forward using the year-on-year growth in Plastics Europe’s world series (394.2, 400.4, 413.8 and 430.9 Mt). This keeps the clock on one consistent definition of “plastic”.
2025 onward, projected. Each later year grows at – a year, the average annual growth of Plastics Europe’s world series from 2018 (370.6 Mt) to 2024 (430.9 Mt). Within a year, the clock assumes production runs at a steady rate. The current year’s total is –.
When new data comes out. Plastics Europe usually publishes the previous year’s world total each autumn. To update the clock, add the new figure to the INDUSTRY list at the top of the page’s script; the estimates and projections recalculate themselves.
All figures are estimates with real uncertainty, especially for recent years and for waste outcomes. Treat the last few digits of the counters as motion, not precision.