SciTransfer
CSFPP · Project

Next-Generation Fusion Power Plants for Clean and Scalable Electricity Generation

energyPrototypeTRL 3

Imagine a machine that mimics how the sun makes energy, but in a way that is stable and doesn't require constant manual adjustments. Instead of a volatile loop, it uses a specialized magnetic shape to keep the hot gas steady. This allows us to create a massive amount of clean heat that can be turned into electricity using standard turbines.

By the numbers
17.6 MeV
energy per reaction
2031
target year for Alpha demonstrator
The business problem

What needed solving

Current fusion attempts (tokamaks) suffer from plasma instability and complex control needs. This makes them difficult to scale and expensive to operate reliably.

The solution

What was built

A detailed design and engineering architecture for a current-free stellarator, including an integrated modeling system to reduce manufacturing costs.

Audience

Who needs this

Energy utility companiesHeavy industrial power usersSuperconducting material manufacturersAdvanced simulation software providers
Business applications

Who can put this to work

Energy Utilities
enterprise
Target: Large-scale power grid operator

If you are a grid operator dealing with the instability of wind and solar power — this project developed a simulation-driven design for a fusion plant that provides reliable, carbon-free baseload energy. It aims for a commercial plant by the mid-to-late 2030s.

Heavy Manufacturing
enterprise
Target: Industrial plant owner

If you are a factory owner dealing with high electricity costs and carbon taxes — this project developed a current-free stellarator design that promises abundant and safe energy. This could replace fossil-fuel based heat cycles with a clean fusion alternative.

Advanced Engineering
mid-size
Target: Precision component manufacturer

If you are a manufacturer dealing with the extreme costs of high-precision parts — this project developed a modeling system that optimizes for higher error tolerance. This reduces manufacturing costs for the complex coils needed in fusion reactors.

Frequently asked

Quick answers

What is the expected cost of the technology?

Based on available project data, the project uses simulation-driven design to massively decrease expected manufacturing costs by optimizing for higher error tolerance.

When will this reach industrial scale?

The roadmap includes a proof of concept demonstrator called Alpha by 2031, followed by a commercial fusion plant in the mid-to-late 2030s.

How is the intellectual property handled?

Based on available project data, Proxima Fusion is a spin-out from the Max Planck Institute for Plasma Physics, but specific licensing terms are not provided.

How does this integrate with existing power grids?

The system drives a standard heat cycle with a turbine to generate electricity, which is described as a mature technology.

What is the timeline for the first prototype?

The project aims to deliver the Alpha demonstrator by 2031.

Consortium

Who built it

The project is led by a single German SME, Proxima Fusion GmbH. The 100% industry ratio indicates a strong commercial drive, leveraging a spin-out relationship with the Max Planck Institute for Plasma Physics to transition academic research into a business entity.

How to reach the team

Contact Proxima Fusion GmbH in Germany

Next steps

Talk to the team behind this work.

Contact us to explore partnerships in fusion energy engineering.