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From the 1 of 5 linked papers with an AI index.

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5 papers

physics.plasm-ph2026

Divertor topology and vacuum vessel design for stellarators

Andrew Giuliani, Raffael Wendlinger, Misha Padidar +4

The paper introduces algorithms for jointly optimizing stellarator edge magnetic structures and vacuum vessel shapes, enabling various divertor configurations—including precise sno…

physics.plasm-ph2026

STAR_Lite: A stellarator designed to experimentally validate non-resonant divertors

Georg Friedrich Harrer, Andrew Giuliani, Misha Padidar +3

The non-resonant divertor (NRD) offers a promising exhaust solution for stellarators, combining topological simplicity with resilience to magnetic field perturbations. To experimen…

physics.plasm-ph2026

Combination of quasi-isodynamic and piecewise omnigenous magnetic fields

J. L. Velasco, I. Calvo, V. Fernández-Pacheco +5

Due to their simultaneous optimization for radial and parallel neoclassical transport, quasi-isodynamic fields have been the main choice of stellarator magnetic configuration for m…

cs.LG2025

Diffusion for Fusion: Designing Stellarators with Generative AI

Misha Padidar, Teresa Huang, Andrew Giuliani +1

Stellarators are a prospective class of fusion-based power plants that confine a hot plasma with three-dimensional magnetic fields. Typically framed as a PDE-constrained optimizati…

physics.plasm-ph2025

Direct Optimization of Fast-Ion Confinement in Stellarators

David Bindel, Matt Landreman, Misha Padidar

Confining energetic ions such as alpha particles is a prime concern in the design of stellarators. However, directly measuring alpha confinement through numerical simulation of gui…