A semi-automated algorithm for designing stellarator divertor and limiter plates and application to HSX

Abstract We present a semi-automated algorithm for designing three-dimensional divertor or limiter plates targeting low heat loads. The algorithm designs the plates in two stages: firstly, the parallel heat flux distribution is caught on vertically-inclined plates at one or several toroidal locations. Secondly, the power per unit area is reduced by stretching, tilting and bending the plates toroidally. Heat transport is modelled using the EMC3-Lite code, which uses an anisotropic diffusion model. We apply this scheme to HSX, a medium-sized stellarator located at the University of Wisconsin–Madison. Starting from the current machine with an extended vessel wall, we construct plates which are able to effectively catch and spread the heat for three different magnetic configurations. The scheme has a computational cost in the order of tens of CPU-minutes, making it a powerful tool for semi-automated plasma-facing component design in three-dimensional environments.

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Publication Details

Journal
Nuclear Fusion
Published
2024-09-26
DOI
https://doi.org/10.1088/1741-4326/ad8017
Citations
3
Primary Topic
Magnetic confinement fusion research
Type
article
Field-Weighted Citation Impact
1.98

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article

A semi-automated algorithm for designing stellarator divertor and limiter plates and application to HSX

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3 citations
Nuclear Fusion
Magnetic confinement fusion research
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article

A semi-automated algorithm for designing stellarator divertor and limiter plates and application to HSX

D. Boeyaert, Kelly Garcia, Michael Gerard, S. Henneberg, B. Geiger, O. Schmitz, J.C. Schmitt, Robert J. Davies, Y. Feng
article en
3 citations

Abstract

Abstract We present a semi-automated algorithm for designing three-dimensional divertor or limiter plates targeting low heat loads. The algorithm designs the plates in two stages: firstly, the parallel heat flux distribution is caught on vertically-inclined plates at one or several toroidal locations. Secondly, the power per unit area is reduced by stretching, tilting and bending the plates toroidally. Heat transport is modelled using the EMC3-Lite code, which uses an anisotropic diffusion model. We apply this scheme to HSX, a medium-sized stellarator located at the University of Wisconsin–Madison. Starting from the current machine with an extended vessel wall, we construct plates which are able to effectively catch and spread the heat for three different magnetic configurations. The scheme has a computational cost in the order of tens of CPU-minutes, making it a powerful tool for semi-automated plasma-facing component design in three-dimensional environments.

Nuclear FusionVol. 64(12)
University of Wisconsin–Madison (US), Max Planck Institute for Plasma Physics - Greifswald (DE), Energy Center of Wisconsin (US), Auburn University (US)
U.S. Department of Energy, Euratom Research and Training Programme
Openalex Percentile: Top 9%
Magnetic confinement fusion research
1.98
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