Graphite is the single largest material in every lithium-ion battery — the anode in every electric vehicle, grid storage system, and data-center backup on the road and on the grid. It is designated a critical mineral by the U.S. Government. And the United States produces none of its natural graphite and only a fraction of the synthetic graphite it consumes.
China produces roughly 80% of the world's graphite and controls over 90% of battery-grade processing, including more than 95% of synthetic graphite anode material. Beijing has already placed graphite on its dual-use export-control list — restrictions currently suspended only through November 2026. In February 2026, U.S. trade authorities responded with duties driving the effective tariff on Chinese anode material to roughly 220%.
The supply chain is not merely concentrated. It is contested. Domestic production is no longer an economic preference — it is a national security requirement.
Synthetic graphite is refined carbon — and its quality begins with the carbon you start from. TNT's sites sit directly on the Flat Top–Pocahontas Coalfield of Southern West Virginia, home of the Pocahontas No. 6 seam: the low-volatile, low-sulfur, low-ash coking coal that made first-quality metallurgical coke for a century of American steel, and the chosen fuel of the U.S. Navy. It is among the highest-rank bituminous coal on Earth — an ideal, carbon-dense feedstock for advanced graphite synthesis.
Coal-derived synthetic graphite is a pathway validated by U.S. Department of Energy national laboratory research — including work headquartered in West Virginia. TNT integrates coal processing and graphite production on a single campus, capturing every stage of value that America currently ships overseas.
Premium low-volatile metallurgical coal is cleaned and beneficiated on site, removing mineral matter to produce a high-purity, carbon-dense feedstock.
Processed coal is thermally converted into engineered carbon intermediates — the coke-derived precursor chemistry Southern West Virginia has mastered for generations.
Carbon is transformed at extreme temperature into ordered crystalline graphite, engineered to battery-anode and industrial specifications.
Finished synthetic graphite, activated carbon, and clean power leave the campus as Made-in-America critical materials — at 98% emission-free operation.
Battery-anode and industrial-grade graphite for EVs, grid storage, steel computer/electronic components, and defense applications — replacing imports in a market where the U.S. consumed an estimated 431,000 tons of synthetic graphite in a single year.
High-value activated carbon for water treatment, air purification, and industrial filtration — a second revenue stream from the same feedstock.
On-campus clean power generation supporting operations and the regional grid — energy-intensive graphitization powered where the coal is, not across an ocean.
Every figure below describes the same reality: surging demand, concentrated foreign supply, and a domestic industry that must be built now.