If you are a power plant operator dealing with the high cost of fuel target production — this project developed semiconductor-based fabrication that allows patterning on over 1000 samples per batch. This ensures a steady supply of fuel for a 100 MW output plant.
Mass-Producing Precision Fuel Targets for Commercial Laser Fusion Power Plants
Imagine trying to start a miniature star inside a machine to create endless clean energy. To do this, you need tiny, perfectly shaped fuel pellets that can handle intense laser blasts. This project uses the same high-tech methods used to make computer chips to mass-produce these pellets with extreme precision.
What needed solving
Commercial fusion energy is hindered by the inability to mass-produce high-precision fuel targets. Without reliable, low-cost, and uniform targets, laser-fusion cannot scale to a viable power plant.
What was built
A manufacturing process for fusion targets based on silicon semiconductor techniques. This includes optimized target geometry and a fabrication method capable of 1000+ samples per batch.
Who needs this
Who can put this to work
If you are a fabrication firm dealing with low yields in specialized target manufacturing — this project developed quality control and metrology frameworks. This allows the transfer of proven semiconductor principles to create high-throughput fusion targets.
If you are a utility provider dealing with the need for carbon-free base load power — this project developed the manufacturing path for laser-fusion targets. This accelerates the timeline toward a pilot powerplant by 2033.
Quick answers
What is the estimated cost or price of the targets?
Based on available project data, specific pricing is not mentioned, but the project focuses on enhancing cost efficiency through semiconductor fabrication techniques.
Can these targets be produced at an industrial scale?
Yes, preliminary tests on large-scale equipment have already demonstrated successful patterning on over 1000 samples per batch.
Who owns the IP or how is licensing handled?
Based on available project data, the technology is developed by Marvel Fusion GmbH, but specific licensing terms are not provided.
What is the timeline for a working power plant?
The company aims to reach a full proof-of-technology by 2027 and build a pilot powerplant with 100 MW output by 2033.
How is the technology integrated into existing systems?
The targets are designed to work with diode-pumped laser systems and are being developed in collaboration with partners like Siemens Energy and Thales.
Who built it
The project is led by a single SME, Marvel Fusion GmbH, indicating a lean, entrepreneurship-driven structure. While the consortium is small (1 partner), the company leverages a powerful external network of industrial giants like Siemens Energy and Thales, as well as academic institutions like Stanford and LMU, to bridge the gap between research and industrialization.
Contact Marvel Fusion GmbH in Munich, Germany
Talk to the team behind this work.
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