State Policy Options for Fusion Energy Deployment

The document argues that fusion energy is transitioning from laboratory research to commercial viability, with many U.S. startups projecting grid connection by the first half of the 2030s. It outlines how states can create competitive advantages by implementing specific regulatory reforms, such as becoming an NRC Agreement State to manage radiological licensing, and by adopting legislative tools like explicitly defining fusion as a clean energy source in state statutes. The brief also suggests financial mechanisms including state-level investment tax credits, the creation of dedicated fusion energy funds, and the repurposing of retired fossil fuel sites—termed "fusion brightfields"—to leverage existing grid infrastructure. Additionally, it emphasizes the importance of developing specialized workforces and innovation hubs around universities and national laboratories to support the industry's growth.

• The commercial timeline for fusion energy has accelerated, with over 75 percent of industry respondents in a Fusion Industry Association survey expecting to provide electricity to the grid by the first half of the 2030s.
• The United States is a global leader in private fusion investment, with 29 verified startups attracting more than 75 percent of the $10 billion in total private funding raised worldwide.
• States can reduce regulatory uncertainty for developers by becoming an Agreement State, which allows them to assume delegated authority from the Nuclear Regulatory Commission (NRC) to regulate radioactive materials associated with fusion.
• Repurposing retired fossil fuel plants, described as "fusion brightfields," is a strategic siting option because these locations often possess existing high-capacity grid connections.
• To ensure fusion energy benefits from broader clean energy incentives, states should explicitly define fusion energy as a zero-emissions or clean energy source within state statutes.
• Fusion energy is identified as a potential solution for the massive energy demand growth driven by AI data centers, particularly because it provides firm, zero-carbon power that can be sited near population centers.
• There is a significant gap between the projected talent demand from private fusion companies and the current capacity of universities, which currently focus more on plasma physics PhDs than on the engineering and technician training required for commercial plants.

APA

Clean Air Task Force (2025). State Policy Options for Fusion Energy Deployment. https://www.catf.us/resource/state-policy-options-for-fusion-energy-deployment/

Chicago

Clean Air Task Force. State Policy Options for Fusion Energy Deployment. 2025. https://www.catf.us/resource/state-policy-options-for-fusion-energy-deployment/.

Wikipedia

{{cite report |author=Clean Air Task Force |title=State Policy Options for Fusion Energy Deployment |date=16 October 2025 |url=https://www.catf.us/resource/state-policy-options-for-fusion-energy-deployment/ |access-date=23 October 2026 |via=Climate Insights Directory}}

BibTeX

@techreport{cleanairtaskforce2025state, author = {{Clean Air Task Force}}, title = {{State Policy Options for Fusion Energy Deployment}}, institution = {Clean Air Task Force}, year = {2025}, month = oct, url = {https://www.catf.us/resource/state-policy-options-for-fusion-energy-deployment/}, urldate = {2026-10-23}, note = {Indexed by Climate Insights Directory} }