材料科学
断裂韧性
核工程
产量(工程)
聚变能
液氮
融合
电磁线圈
磁铁
碳纤维
压力(语言学)
复合材料
超导电性
韧性
断裂(地质)
机械工程
核物理学
等离子体
电气工程
工程类
凝聚态物理
复合数
量子力学
物理
哲学
语言学
作者
A. Nishimura,Yoshinori Ono,Osamu Umezawa,Susumu Kumagai,Yohko Kato,Tetsuya Kato,Tetsumi Yuri,Masayuki Komatsu
标识
DOI:10.1016/j.nme.2022.101125
摘要
A fusion DEMO will require large-scale cryogenic structure including TF coil cases. Because of huge electromagnetic forces, extra thick plates and/or wrought products will be supplied. Since the midsection of the huge block is weaker than the block surface region, the design yield stress must be determined taking account of this lower strength part. To search the manufacturing process to improve the midsection strength, the crystal refinement strengthening and the precipitation strengthening are considered together with the carbon and nitrogen solid solution strengthening. XM-19 was focused based on the variation of the yield stress and the fracture toughness, a 100 mm thick block and a 30 mm thick plate were trial produced, and strength and the fracture toughness at the midsection were evaluated. This study will present the experimental data and discuss the development policy for a new cryogenic structural material for a fusion reactor.
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