Fusion power.Physics first.

Less waiting. More exploration.

Lengthy computations and fragmented modelling slow design iteration. We aim to accelerate the calculations and connect the physics, so more reactor configurations can be explored within practical research time.

Discover the geometry.

We aim to optimise geometry, magnetic configuration and heating together, guided by plasma physics and engineering constraints. The search remains open to configurations beyond those used today.

The eventual reactor may use a different geometry from the tokamak shown here.

Connect the physics.

Established fusion codes address different parts of the problem. Our aim is to connect them in a self-consistent workflow across confinement, heating, transport, stability and plant engineering.

Accelerate the calculation.

Accelerated numerical methods and AI-assisted exploration would help shorten the design cycle. Accuracy and physical consistency set the conditions for useful speed.

From model to machine.

The purpose of this modelling is to identify reactor designs that can advance through expert validation and engineering toward construction. Our destination is a physical plant that delivers electricity.

Design for maintenance.

We envision robotic systems that inspect the plant and repair or replace worn components, including plasma-facing parts and blanket modules.

Toward autonomous operation.

The long-term ambition is a fusion power plant with minimal routine human intervention, supported by validated control and human oversight.

Build the power plant.

ORIGO Fusion is an early-stage venture pursuing the design, construction and operation of fusion power plants based on physics-grounded, optimised geometries. We welcome conversations with researchers, engineers and potential collaborators.