Two-thirds industrial.
An estimated two-thirds of U.S. industrial energy consumption is process heat, not electricity. Electrification strategies alone are unlikely to close that gap.
Strategic briefing · 2026.01
The Energy Imperative.
Thorium, industrial heat, and the future of American power.
This paper examines why high-temperature nuclear heat, combined with a more resilient long-term fuel strategy, is among the most practical pathways available to strengthen American industrial capacity and reduce energy dependency.
This paper sets out the industrial and policy context behind Thorium Atomics’ work. Our reactor pathway begins from a practical LEU-based starting point and is designed to improve fuel resilience over time.
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When a nation recognizes a strategic domain has become decisive, it can align government, industry, and science, then lead.
Six arguments behind the imperative.
The historical case, technical pathway, fuel sovereignty analysis, industrial thesis, risk factors, and national imperatives. 53 pages.
Foreign dependency.
The United States currently depends on foreign sources for the vast majority of its nuclear fuel supply chain: mining, conversion, and enrichment.
LEU-first practicality.
Many advanced reactor concepts rely on HALEU fuel that is not yet commercially available at scale domestically. A thorium-capable pathway can start on widely available LEU.
Domestic thorium reserves.
Domestic thorium reserves are substantial, over one million metric tons by some estimates. A resource base that could support centuries of energy production.
China's pace.
China has made significant progress in thorium-cycle reactor development and is scaling industrial nuclear heat deployment, creating a growing strategic gap.
Power, heat, and isotopes.
A high-temperature reactor platform may be able to deliver electricity, industrial heat, and strategically relevant isotopes from a single system. Few energy pathways credibly offer that combination.
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