Iter容器内线圈的设计与研发

M. Kalish, P. Heitzenroeder, A. Brooks, L. Bryant, J. Chrzanowski, E. Daly, R. Feder, J. Feng, M. Messineo, M. Gómez, C. Hause, T. Bohm, I. Griffiths, A. Lipski, M. Mardenfeld, M. Nakahira, C. Neumeyer, R. Pillsbury, M. Sawan, M. Schaffer, R. Simmons, P. Titus, I. Zatz, T. Meighan
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引用次数: 27

摘要

ITER将采用容器内线圈(IVCs)作为稳定“边缘局部模式”(ELM)和提供“垂直稳定”(VS)的方法。为了满足ELM和VS线圈的要求,需要与等离子体强耦合,因此有必要将线圈安装在覆盖屏蔽模块后面的容器中。由于这种接近等离子体的辐射和温度环境是严峻的,传统的电绝缘材料和工艺不能使用。为了应对这种高辐射、高温环境,在IVC设计中需要发展矿物绝缘导体技术。虽然矿物绝缘导体技术并不是一项新技术,但要制造出比目前制造的矿物绝缘导体直径更大、承载能力更大的大型磁体,需要对现有技术进行研发和扩展。一种使用MgO的59毫米不锈钢护套矿物绝缘导体(SSMIC)正在为此应用而开发。IVC ELM和VS线圈设计包括SSMIC制造技术的开发以及ELM和VS线圈组件的设计和分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Iter In-Vessel Coil design and R&D
ITER will incorporate In Vessel Coils (IVCs) as a method of stabilizing “Edge Localized Modes” (ELM) and providing “Vertical Stabilization” (VS). To meet the ELM and VS Coil requirements strong coupling with the plasma is required so that it is necessary for the coils to be installed in the vessel just behind the blanket shield modules. Due to this close proximity to the plasma the radiation and temperature environment is severe and conventional electrical insulation materials and processes cannot be used. The development of mineral insulated conductor technology has been required in the IVC design to deal with this high radiation and high temperature environment. While mineral insulated conductor technology is not new, building a large magnet with high current carrying capability and a conductor diameter larger than the mineral insulated conductor currently manufactured requires R&D and the extension of existing technologies. A 59mm Stainless Steel Jacketed Mineral Insulated Conductor (SSMIC) using MgO is being developed for this application. The IVC ELM and VS coils design includes both the development of the fabrication techniques for the SSMIC and the design and analysis of the ELM and VS Coil assemblies.
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