These papers detail the practical advantages of the planar coil stellarator as well as the methods used to design the planar (i.e. flat) magnetic coils, allowing for a commercial maintenance scheme.
Hosted on MSN10d
AI could help overcome the hurdles to making nuclear fusion a practical energy sourceThe pursuit of nuclear fusion as a clean, sustainable energy source represents one of the most challenging scientific and ...
Washington-based fusion energy company Helion just raised US$425 million in fresh funding for its bid to be the first to ...
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Supermagnet 100,000x stronger than Earth’s magnetic field to bring nuclear power closerCFS is working with the tokamak design for its fusion reactor and previously tested the Toroidal Field Model Coil (TFMC) in 2021. Both the TFMC and CSMS use high-temperature superconducting (HTS ...
Interesting Engineering on MSN17d
Spain’s spherical nuclear reactor achieves first plasma with ‘negative triangularity’This achievement takes the reactor into its operational phase, bringing us closer to clean and limitless energy using nuclear fusion.
high-temperature-superconducting magnet coil. Realta Fusion Inc. completed whole-device modeling of simple mirror equilibria. The other Milestone awardees are Commonwealth Fusion Systems ...
Thea Energy is currently designing its first integrated fusion system, Eos, based on its planar coil stellarator architecture which will produce fusion neutrons at scale and in steady state. To learn ...
These papers together support the planar coil stellarator as a scalable, maintainable, and simpler approach to commercial fusion energy, with an additional real-world use case as a neutron source.
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