ITER模块13的有限元应力分析

J. Garde, D. Youchison, G. Natoni, J. Bullock, T. Tanaka, M. Ulrickson, M. Narula, A. Ying, M. Sawan, P. Wilson
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引用次数: 1

摘要

在ITER的18个模块设计中,美国负责3个。每个模块的设计都将满足ITER国际组织(ITER IO)制定的要求。目前正在利用有限元分析(FEA)来确保模块设计符合ITER IO制定的强度要求。强度要求是根据ITER IO确定的加载场景下的最大允许应力和应变条件来定义的。这些允许的条件是基于材料性能和所研究的特定加载条件的预期频率。本文介绍了有限元分析方法在模块13设计中的应用。给出了ITER运行条件和冷却液内压引起的热致应力分布。如果可以的话,也给出了电磁力对模块造成的应力。这些条件下的应力水平与ITER IO规定的允许极限进行了比较。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Finite Element Stress Analysis OF ITER Module 13
Of the 18 module designs in ITER, the US is responsible for three. Each of these modules will be designed to meet requirements established by the ITER international organization (ITER IO). Finite element analysis (FEA) is being utilized to ensure that the module designs are in compliance with the strength requirements established by ITER IO. The strength requirements are defined in terms of maximum allowable stress and strain conditions under loading scenarios determined by ITER IO. These allowable conditions are based on material properties and the expected frequency of the specific loading condition being investigated. This paper presents the FEA approach applied to the design of Module 13. The thermally induced stress distributions caused by ITER operating conditions and internal pressure of cooling fluid were presented. Stresses caused by electromagnetic forces on the module were also presented if available. The stress levels under these conditions were compared to the allowable limits defined by the ITER IO.
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