SiC冷却板高温锂铅包层初步设计

M. Ichinose, Y. Yamamoto, K. Noborio, Y. Takeuchi, S. Konishi
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引用次数: 7

摘要

提出了一种高温锂铅包层,它可以在现有技术的有限外推范围内制造。包层结构以F82H为容器材料,Pb-17Li为增殖体。在两者之间插入SiCf/SiC冷却板,实现Pb-17Li的高温萃取,同时使F82H保持在允许的温度范围内。使用ANISN代码进行了中子分析,以评估氚的繁殖能力,屏蔽性能和核能发电。在考虑MHD压力损失可接受的情况下,计算了Pb-17Li流的传热。利用ANSYS Version 10.0计算了F82H容器和SiCf/SiC冷却板的温度分布。结果表明:当He流速为60 m/s时,F82H的最高温度不超过550℃;基于实验数据对换热介质进行了热水力评价,结果表明,包层中SiC与Pb-17Li之间的总换热系数在650 ~ 800 W/m2K之间。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Preliminary design of high temperature lithium-lead blanket with SiC cooling panel
A high temperature lithium-lead blanket, which can be made within a limited extrapolations of present technology, has been proposed. The blanket structure is based on F82H as vessel material, and Pb-17Li as breeder. SiCf/SiC cooling panel is inserted between them to achieve high temperature extraction of Pb-17Li while maintaining F82H under allowable temperature limit. Neutronic analysis using ANISN code has been conducted to assess tritium breeding capability, shielding performance, and nuclear power generation. Heat transfer for the Pb-17Li streams has been calculated considering MHD pressure loss to be acceptable. Temperature distribution in the F82H vessel and SiCf/SiC cooling panel has been calculated using ANSYS Version 10.0. The results show that the maximum temperature of the F82H does not exceed 550 °C with He flow velocity of 60 m/s. The thermal-hydraulic evaluations of heat transfer media based on the experimental data shows that the overall heat transfer coefficient between SiC and Pb-17Li in the blanket is estimated to 650-800 W/m2K.
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