Physics first.
Faster design.
Our goal is a physical fusion power plant. Our approach is to accelerate and connect the modelling that guides its geometry and engineering.
Shorten the design cycle.
We aim to bring established fusion codes and accelerated techniques into one physics-grounded process, reducing the wait between design decisions.
Accelerate the solvers
Research faster numerical computation while preserving the accuracy and physical consistency of high-fidelity methods.
Couple the physics
Connect specialised models so confinement, heating, transport, stability and engineering choices can inform one another.
Discover configurations
Optimise geometry, magnetic configuration and heating together under physical and engineering constraints.
Engineer for construction
Advance promising designs through validation and engineering toward a physical reactor, plant systems and eventual electricity delivery.
Speed with evidence.
Acceleration must preserve numerical accuracy and physical validity. The aim is to make high-fidelity computation practical within a faster, self-consistent design cycle.
AI supports exploration and analysis. Engineering decisions remain subject to expert review and physical validation. These are research objectives, not claims of completed integration or a validated reactor.
Build for sustained operation.
Our long-term vision includes responsive plant control and robotic repair and replacement of worn components. The objective is a fusion power plant with minimal routine human intervention, supported by validated systems and human oversight.
Integrated modelling