超导磁体
电磁线圈
材料科学
磁铁
超导线圈
超导电性
超导电机
高温超导
超导磁储能
核工程
核磁共振
凝聚态物理
机械工程
电气工程
物理
工程类
作者
Yuhu Zhai,J. Ménard,Ali Yazdani,N. P. Ong,James Barkas,B. Berlinger,Piotr Bunkowski,Siwei Chen,Yi Li,Ryan Matthiessen,James L. Dye
标识
DOI:10.1109/tasc.2025.3529419
摘要
Lower cost, high current density superconducting coil modules producing higher magnetic fields and cooled affordably are crucial for obtaining cost-effective, compact commercial fusion reactors. Accessibility to low cost, higher field magnets (>30 T) is also critical for the discovery of new quantum phenomena in materials, cosmic frontier and other topics in basic science research. The Princeton Plasma Physics Laboratory (PPPL) is working with Princeton University to develop unique large bore, compact superconducting magnets to support science experiments including the development of new instrumentation for condensed matter physics and Axion dark matter search in the cosmic frontier. Core elements of these experiments are unique for access to lower cost, simple fabrication of compact superconducting magnets that can be cooled affordably, while integrated with dedicated science instruments. Conductor qualification and coil design concepts are discussed in support of needs for these experiments. PPPL has the unique expertise and experimental facilities to design, construct and test subscale coil modules for these projects. Compact high field coil modules were fabricated and tested to validate coil design concepts and coil performance. Finally, the design and model coil integration challenges are discussed to identify performance risks and demonstrate feasibility for deploying full scale large bore compact superconducting magnets for cost effective operations of multiple laboratory experiments.
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