Over a lifetime, the fuel a petrol car burns outweighs the battery metal an electric car permanently loses by 300 to 400 times

An electric car needs about 6 times the minerals of a petrol car to build, according to the International Energy Agency. But an average petrol car burns about 17,000 liters of fuel over its life, and Transport and Environment finds that fuel outweighs the 30 kilograms of battery metal an electric car permanently loses, even after recycling, by 300 to 400 times.

6 times1the mineral input a typical electric car needs to build, against a typical petrol or diesel car
17,000 liters2petrol an average combustion engine car burns over its life, counted by Transport and Environment
300 to 400 times2how much heavier that burned fuel is than the battery metal an electric car permanently loses, by the same count

Building an electric car takes more mineral, not less

Building a typical electric car requires about 6 times the minerals that building a typical petrol or diesel car requires, according to the International Energy Agency, an intergovernmental agency that tracks world energy supplies. That figure covers the whole car, the motor and a battery of about 75 kilowatt hours, against everything a conventional car is built from. Dr Fatih Birol, Executive Director of the International Energy Agency, wrote this in the report.

The response from policy makers and companies will determine whether critical minerals remain a vital enabler for clean energy transitions or become a bottleneck in the process.

Dr Fatih Birol, Executive Director of the International Energy Agency. Source 1.

A petrol car keeps burning fuel long after it leaves the factory

An average combustion engine car burns about 17,000 liters of petrol over its life, according to Transport and Environment, a nonprofit research organization. Stacked as barrels, that much fuel would reach 70 to 90 meters into the air, about the height of a 25 story building, a comparison the organization itself makes. In the United States, the Environmental Protection Agency assumes an average gasoline car gets 22.2 miles to the gallon and drives 11,500 miles a year, which comes to about 518 gallons a year, arithmetic the agency prints on its own page, a figure a reader can check against their own car.

A battery gets its minerals once, and recycling recovers most of them

An average electric car battery contains about 160 kilograms of metal in its cells, Transport and Environment finds. Even after recycling, about 30 kilograms of that metal is never recovered, permanently lost, roughly the weight of a football, a comparison the organization makes itself. That leaves about 130 kilograms recovered and available for reuse, arithmetic on the 2 figures above rather than a number the organization prints directly.

What happens to the metal in an average electric car battery
050100150200160Totalmetal130Recoveredand reused30Lostnot recoveredkilograms

Total metal and metal lost are counted by Transport and Environment for an average battery. Recovered and reused is arithmetic on those 2 numbers, total metal minus the metal lost, a number the organization does not print directly.

Source 2.

Show the numbers
Total metal160
Recovered and reused130
Lost not recovered30

Weighed over a lifetime, the fuel outweighs the metal by up to 400 times

Over an average car life, the petrol or diesel burned outweighs the battery metal permanently lost by 300 to 400 times, Transport and Environment finds. Lucien Mathieu, the analyst who wrote that 2021 report, was still citing the same 30 kilogram figure and the same barrel stack comparison more than 3 years later, in October 2024, according to the International Council on Clean Transportation. Mining that metal still carries real cost and harm, but weighed by mass over a full lifetime, fuel is not close.

Demand for those minerals is growing fast

World lithium production reached 290,000 tons in 2025, up from 222,000 tons in 2024, according to the United States Geological Survey, the government agency that counts world mineral supply. Under a climate aligned scenario, the International Energy Agency projects lithium demand growing 42 times between 2020 and 2040, with graphite growing 25 times, cobalt 21 times, nickel 19 times and rare earth elements 7 times.

Projected growth in mineral demand by 2040 against 2020
0102030405042Lithium25Graphite21Cobalt19Nickel7Rareearthstimes higher than 2020

International Energy Agency projection under its climate aligned Sustainable Development Scenario, 2020 to 2040.

Source 1.

Show the numbers
Lithium42
Graphite25
Cobalt21
Nickel19
Rare earths7

More than 100 lithium mining and refining projects are underway across the United States and its trade partners, according to the International Council on Clean Transportation, an independent research organization.

Sources

  1. The Role of Critical Minerals in Clean Energy Transitions. International Energy Agency, World Energy Outlook Special Report, revised March 2022. Published 2021-05-05. Accessed 2026-08-29.
  2. From dirty oil to clean batteries, batteries versus oil, a systemic comparison of material requirements. Transport and Environment, authors Lucien Mathieu and Cecilia Mattea. Published 2021-03. Accessed 2026-08-29.
  3. Clearing the air, there are plenty of minerals for EVs, and they have far less environmental impact than fossil fuels. International Council on Clean Transportation. Published 2024-10-09. Accessed 2026-08-29.
  4. Mineral Commodity Summaries 2026, Lithium. U.S. Geological Survey, prepared by Brian W. Jaskula. Published 2026-02. Accessed 2026-08-29.
  5. Greenhouse Gas Emissions from a Typical Passenger Vehicle. United States Environmental Protection Agency. Accessed 2026-08-29.

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