The U.S. was the first country to achieve fusion ignition, but China was the first to aggressively scale up the engineering and infrastructure needed for commercial deployment. From 2023 to 2025, China is estimated to have invested $6.5 billion in advanced fusion research facilities and technologies. Its BEST project is targeting a demonstration of fusion electricity generation around 2030, alongside plans for a “Fusion City” integrating research campuses and industrial clusters. Private capital is following. Chinese fusion companies recorded no meaningful private funding before 2022; they have since attracted $6.3 billion, much of it state-linked, and out-raised the Americas in 2025, according to FusionX. The Americas pulled ahead again in 2026, but China is putting resources behind its ambitions.
Cumulative private fusion funding by region, through Q3 2026. Source: FusionX.
On September 24, 2026, House Science Committee Ranking Member Zoe Lofgren (D-CA) and Congressman Jay Obernolte (R-CA) introduced a bipartisan bill, the American Leadership in Fusion Act, containing $10 billion in direct appropriations for fusion energy and another $6.4 billion in total authorizations over fiscal years 2027–2031. The legislation would help the U.S. compete for leadership in commercial fusion energy markets and build supply-chain ecosystems for decades to come.
The U.S. has recognized quantum computing, fission, fusion, and AI as strategic priorities through the Genesis Mission. It is well past time to match that ambition with sustained investment in the facilities, manufacturing capabilities, and workforce needed to bring fusion energy to market.
Competing Against China to Win a Trillion-Dollar Market
Analysts project fusion could become a market worth $1 trillion to $2.1 trillion, and China already recognizes fusion energy’s strategic role in energy and national security. A January 2026 report from the University of California’s Institute on Global Conflict and Cooperation states that the China Academy of Engineering Physics is recruiting 2,000 scientists, engineers, and other experts into its inertial fusion programs. Maintaining U.S. leadership will require investment in education, research, and facilities.
The bill proposes direct appropriations of:
- $3.8 billion for large research facilities
- $3 billion for a new pilot-plant demonstration program
- $2 billion for the existing milestone development program
- $800 million for materials, blankets, and fuel cycle
- $300 million for small and mid-sized research facilities
- $100 million for fusion supply chain
The bill also supports the fusion workforce, authorizing NSF and DOE to fund internships, apprenticeships, faculty hiring, and industry-taught coursework at colleges and universities, including community colleges.
To compete with China in both AI and fusion energy, the U.S. must match that nation’s commitment to turning research into industrial capability. But passing the bill is only the start. Congress must sustain that investment, and federal agencies must move quickly to get facilities built, suppliers qualified, and workers trained in partnership with industry.
Don’t Repeat the Sins of Previous Supply Chains
Will the U.S. repeat the failures of the past in solar panels, batteries, and other technology markets by outsourcing the supply chain after establishing technology leadership? To maintain its competitive edge, the U.S. must retain critical fusion supply-chain capabilities domestically and with closely aligned partners.
Fusion components must operate in extreme environments and be produced to strict technical specifications. Outsourcing their manufacturing to an overseas supplier may require sharing proprietary information, which can allow that supplier to accumulate knowledge, skilled workers, equipment, and relationships. Ultimately, the original technical advantage can migrate into an industrial advantage elsewhere.
Keep Fusion’s IP and Manufacturing Know-How at Home
The U.S. leads in fusion science. Turning that lead into lasting economic value depends on where the machines, and the materials and components inside them, get built.
Securing that supply chain starts well before final assembly. Producing a polymer resin is one capability; turning it into reliable, high-performance dielectric capacitor film is another. The same distinction applies across fusion’s supply chain.
Investment in fusion developers like Helion and Commonwealth Fusion Systems (CFS) is helping advance the machines, and Washington is now funding pieces of their supply chains too. On October 23, the Commerce Department announced letters of intent for up to $389 million in CHIPS R&D awards, including up to $175 million for Helion to develop domestic high-voltage power semiconductors and up to $85 million for CFS. Those awards are a welcome start. They also show the gap: leading developers are building their own components because qualified domestic suppliers don’t yet exist at scale. Supporting developers without strengthening that underlying industrial base leaves a critical vulnerability unresolved.
The act would help address that gap. Its supply-chain provisions explicitly include superconducting magnets, high-power capacitors and their components, switches, insulators, and other essential technologies. But its $100 million for the entire fusion supply chain is less than what Commerce just committed to one developer.
A resilient supply chain doesn’t mean making everything domestically. It means keeping strategically important capabilities in the U.S. while building trusted relationships with allied suppliers, rather than depending on geopolitical competitors for critical components.
From our work with fusion developers and capacitor makers, we see the opportunity clearly: invest now in the materials suppliers, component manufacturers, and skilled workers needed to grow alongside the industry. Rebuilding those capabilities after global supply chains have formed will be much harder.
The U.S. achieved fusion ignition first. The countries that build their own fusion supply chains will capture the manufacturing expertise, intellectual property, and economic value for decades to come.
Shaun Walsh is the CMO at Peak Nano.
This article was originally published by RealClearEnergy and made available via RealClearWire.
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[ H/T WorldNetDaily ]
