Acceleron Fusion

Acceleron Fusion is reviving the muon-catalysed fusion concept first observed by Luis Alvarez in 1957. A single muon can catalyse hundreds of fusion reactions before decaying — turning fusion from a plasma-physics problem into an accelerator-engineering problem. Modern compact muon sources make the economics worth re-examining.

If a single muon can catalyse hundreds of fusions before decay, room-temperature fusion power becomes an accelerator-engineering problem rather than a plasma-physics one.

Global electricity demand is entering an unprecedented growth phase driven by AI infrastructure, data centers, transport electrification, industrial decarbonization, water desalination, and advanced manufacturing. Solar suffers intermittency, wind capacity-factor variability, natural gas carbon emissions, conventional nuclear cost and deployment speed, and batteries energy-density and duration limits. The world requires a new source of clean, dispatchable baseload energy. Fusion represents the ultimate energy source — the challenge is making it commercially practical.

A high-current proton accelerator produces pions which decay into muons. Muons are injected into a dense D-T target where they catalyze fusion at room temperature. No plasma confinement is required.

Muon-catalyzed D-T fusion in a dense fuel target; neutron energy captured in a lithium-bearing blanket and converted via conventional steam turbines.

Avoids the high-temperature plasma confinement problem entirely. The unsolved engineering challenge moves to muon production efficiency, not back-end conversion.

If muon production energy cost can be brought below the energy released per catalysed chain, muon fusion becomes a room-temperature, no-plasma power source with dramatically simpler engineering.

Room-temperature fusion power as an accelerator engineering problem.

Make muon-catalysed fusion economically viable.

• α-sticking limit (~150 catalysed fusions per muon)
• Muon production energy cost