Everyone knows graphite as pencil lead. Its real job is the anode in every lithium-ion battery, the largest mineral by mass in an EV pack. The world makes about 3 million tonnes a year, natural and synthetic, and China mines most of it and processes almost all of it. Where graphite really goes, and who controls it. 2024 (USGS) · Compiled June 2026
Natural graphite mined 2024
1.63 Mt
plus a similar amount of synthetic
China's share of mining
78%
about 1.27 of 1.63 Mt
China's spherical graphite
99%
the battery-ready grade
Graphite in one EV
~100 kg
more than every other battery metal
Where the World's Graphite Is Mined (2024)
Colour intensity shows each country's share of natural graphite mine production. Hover a country for its tonnage. China dominates the mine, and dominates the processing that follows even more.
Lower shareHigher share
2024 Natural Graphite Production by Country (kt)
China mines roughly sixteen times the next producer. Madagascar, Tanzania, Brazil and Mozambique split most of what is left, a long way behind.
The Rock Is Everywhere (reserves, million tonnes)
Here is the mismatch. China holds only about 30% of known graphite reserves, with Brazil, Mozambique, Madagascar and Tanzania holding plenty. China mines 78% anyway. The advantage is industrial, not geological.
About 3 million tonnes a year, made tangible.
Big tonnages mean nothing until you anchor them to things you know. Here is what graphite's scale looks like in EVs, pencils and seconds. Verify-and-cite figures in the footer.
95 kg
every second
The world makes about 95 kg of graphite, natural plus synthetic, every second of the year.
100 kg
in one EV battery
Graphite is the largest mineral by mass in an EV pack, more than nickel, cobalt, manganese and lithium combined.
250k
pencils per EV
One EV battery holds about 250,000 pencils' worth of graphite. Pencils are a rounding error of demand.
99%
spherical from China
China makes about 99% of the world's spherical, battery-ready graphite.
What Is in an EV Battery (kg per pack, by mineral)
Lithium gets the headlines and the name, but graphite is the heavy lifter. At roughly 100 kg a pack it outweighs every other battery mineral put together, and it is the one people overlook.
Mined vs Made
Graphite comes two ways. About a third is natural, mined as flake or amorphous rock. The other two-thirds is synthetic, baked from petroleum coke and coal tar pitch at very high heat. Both end up as the same carbon anode.
Where Graphite Goes
For a century graphite was a steel material: crucibles, furnace linings and arc-furnace electrodes. Battery anodes are now its largest single use, about 28% and climbing fast toward a projected 62% by 2036.
The Pencil Myth
Graphite has an image problem. Most people meet it once, as the "lead" in a pencil, and never think about it again. Yet pencils use a tiny scrap of world supply. The real graphite story is energy: it is the anode in essentially every lithium-ion battery, the electrode that holds the lithium while a cell charges, and the single largest mineral by mass in an EV pack at around 100 kg. It is also still the workhorse of steelmaking, lining the furnaces and forming the electrodes that melt scrap. Same soft grey carbon, same element as diamond and graphene, quietly doing two of the most important industrial jobs there are.
China's mine production
78%
of world natural graphite
China's processing
90%
of world refining capacity
China's spherical graphite
99%
the battery-ready grade
Spherical price 2025
~$1,800/t
down from a 2022 spike
China's Grip Tightens Down the Chain (% of world)
Follow graphite from rock to battery and China's share climbs at every step: 78% of the mine, 90% of processing, 93% of anode material, 99% of spherical graphite. The further downstream, the closer to all of it.
The Price Spiked, Then Fell (spherical graphite, USD per tonne)
Battery-grade graphite spiked in 2022, then slid as Chinese supply expanded, settling near a processing-cost floor. Cheap graphite is not the problem. Concentrated graphite is.
The Supply-Chain Story
Graphite's supply story is about processing, not scarcity. The rock is spread across Brazil, Mozambique, Madagascar, Tanzania and China, and China holds only about 30% of reserves. The bottleneck is downstream: turning rough flake into the rounded, 99.95% pure spherical graphite a battery anode needs, and baking synthetic graphite from petroleum coke. China has built that at scale, about 90% of processing and 99% of spherical graphite. In December 2023 it put graphite under export licensing, and flake exports fell about a quarter the next year. For anyone building EVs or grid storage outside China, that is why graphite sits on every critical-minerals list.
Why It Matters
Graphite is the most underrated material in the energy transition. People picture pencils. The reality is the anode in every lithium-ion battery, the largest mineral by mass in an EV pack, and there is no drop-in replacement at scale today. Silicon helps at the margins, but graphite still carries the cell. The rock itself is common, spread across Brazil, Mozambique, Madagascar and Tanzania, so this is not a scarcity problem. It is a processing problem: China makes about 90% of refined graphite and 99% of the spherical, battery-ready grade, and it has shown it will use export controls. So the graphite question is not whether we run out. It is whether the countries trying to build batteries can make the anode without going through one country first.