On 7 October, Germany’s Federal Agency for Breakthrough Innovation (SPRIND) launched a milestone-based fusion program on behalf of the Federal Ministry of Research, Technology and Space (BMFTR), creating a new public funding pathway to accelerate private-sector fusion commercialization.
Japan’s Ministry of Economy, Trade and Industry (METI) has selected four finalist private-sector fusion projects for its program aimed at supporting fusion power generation demonstration in the 2030s. The selection marks a step in Japan’s efforts to accelerate commercial deployment, building on the goals outlined in the country’s national fusion strategy.
Realta Fusion and utility Madison Gas and Electric announced a strategic partnership to explore the joint development of a 200 MW fusion facility in Wisconsin.
On August 12, South Korea President Lee Jae Myung identified fusion energy as one of seven strategic technologies the country will prioritize as future drivers of economic growth.Under the country’s new 7 SEED (Strategic Emerging Engines for Disruptive Innovation) Projects initiative, fusion is listed alongside small modular reactors (SMRs) and renewable energy under the initiative’s “Future Clean Energy” category, aimed at meeting growing electricity demand from AI while supporting carbon neutrality.
Helical Fusion and Japanese construction company Hazama Ando announced a partnership to support the development of Helical Fusion’s pilot plant targeted for the 2030s.
Germany-based Proxima Fusion has raised €411 million to advance plans for its first commercial fusion power plant. The funding will support the company’s technology development and manufacturing as it targets demonstration in the early 2030s.
On April 3, President Trump released the Presidential Budget Request (PBR) for Fiscal Year 2027. Within this, the request for the Fusion Energy Sciences (FES) program of $755.25 million is $50 million less than the $805.65 million appropriated for Fiscal Year 2026.
A one-time $10 billion injection of U.S. public capital into efforts and partnerships with the private fusion industry would accelerate the path toward commercialization…but how exactly should this $10 billion be allocated? In a new one-pager, the FIA breaks down exactly how this allotment should be used.
DW considers Germany’s fusion energy future under the government’s recently-released High Tech Agenda.
The Energy Subcommittee of the House Committee on Science, Space, and Technology held a hearing on September 18 on “Igniting America’s Energy Future: The Promise and Progress of Fusion Power.” Commonwealth Fusion Systems’ CEO Bob Mumgaard and Pacific Fusion CEO Will Regan – both members of the FIA – testified, as well as Dr. Stephanie Diem, Assistant Professor at the University of Wisconsin–Madison and Dr. Troy Carter, Director of the Fusion Energy Division at Oak Ridge National Laboratory.
Magnetic confinement: Plasma is heated to 100 million °C or more, then squeezed and held in place by strong magnetic fields, allowing many fusion reactions to occur. (Example: tokamaks, stellarators)
Inertial confinement: Tiny fuel pellets are struck by powerful lasers. The outer layer explodes outward, compressing the core to fusion conditions for a few nanoseconds, producing a brief but intense pulse of energy from each pellet. (Example: National Ignition Facility)
Hybrid systems: Combine compression (e.g., from lasers, plasma pistons, or mechanical impact) with moderate magnetic fields to reduce energy losses and improve confinement.
Electrostatic fusion: Uses high electric potentials to accelerate ions toward a central reaction zone, causing them to collide at high energies and fuse. The ions are guided and confined by electric fields rather than magnets, creating a compact environment for fusion reactions.