Electromagnetic and Stability Study on HTS/LTS Hybrid Superconducting Central Solenoid
Electromagnetic and Stability Study on HTS/LTS Hybrid Superconducting Central Solenoid
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HTS/LTS混合超导中央螺线管电磁及稳定性研究
DOI：
10.1109/tasc.2016.2574345
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发表时间：
2016-05
影响因子：
1.8
通讯作者：
Zheng JX
中科院分区：
文献类型：
--
作者：
Zheng J. X.;Song Y. T.;Kang R.;Zheng JX
Nb_3Sn被认为是聚变超导磁体系统的最佳候选低温超导材料之一。然而，考虑到聚变装置磁体系统的优化设计工作，需要在更经济的装置尺寸的前提下实现更高的每秒伏特数。在我们最近的工作中，一种高温超导（HTS）和LTS混合磁体已经设计用于聚变装置的中央螺线管。它可以提供最大电压每秒220 V · s的最大磁场19.4 T。磁体的内部HTS部分设计有Bi 2212导体，而外部LTS部分设计有Nb 3Sn导体。它可以满足聚变装置对高磁场和工作电流的要求。进行了高温超导/低温超导混合磁体的结构设计。此外，本文还阐述了高温超导/低温超导混合磁体柔性结构设计及相关稳定性分析工作中电磁特性的变化。
Nb3Sn is considered to be one of the best candidate low-temperature superconducting (LTS) materials for the fusion superconducting magnet system. However, in consideration of the optimization design work of the fusion device magnet system, higher volts per second under a presupposition of a much more economical device size needs to be achieved. In our recent work, a type of high-temperature superconducting (HTS) and LTS hybrid magnet has been designed for the central solenoid for the fusion device. It can provide maximum volts per second of 220 V · s with the maximum magnetic field of 19.4 T. The inner HTS part of the magnet is designed with the Bi2212 conductor, whereas the outer LTS part is designed with the Nb3Sn conductor. It can meet the requirements of a high magnetic field and an operation current for fusion device. The structure design of the HTS/LTS hybrid magnet has been carried out. In addition, variation of the electromagnetic properties, according to the flexible structure design of HTS/LTS hybrid magnet and related stability analysis work, are also illustrated in this paper.
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影响因子：
1.7
作者：
J. Zheng;Yuntao Song;Xufeng Liu;Jian-gang Li;Y. Wan;B. Wan;M. Ye;Wu Huan
通讯作者：
J. Zheng;Yuntao Song;Xufeng Liu;Jian-gang Li;Y. Wan;B. Wan;M. Ye;Wu Huan
影响因子：
3.3
作者：
K. Tomabechi;J. Gilleland;Y. Sokolov;R. Toschi
通讯作者：
K. Tomabechi;J. Gilleland;Y. Sokolov;R. Toschi
影响因子：
3.2
作者：
T. Shen;A. Ghosh;L. Cooley;J. J. T. Division-J.;F. Lab;Batavia;Il;Superconducting Magnet Division;B. Lab;Brookhaven;Ny;Applied Superconductivity Center;National High Magnetic Field Laboratory;Florida State University;Tallahassee;Fl
通讯作者：
T. Shen;A. Ghosh;L. Cooley;J. J. T. Division-J.;F. Lab;Batavia;Il;Superconducting Magnet Division;B. Lab;Brookhaven;Ny;Applied Superconductivity Center;National High Magnetic Field Laboratory;Florida State University;Tallahassee;Fl
影响因子：
3.6
作者：
D. C. van der Laan;X F Lu;L F Goodrich
通讯作者：
D. C. van der Laan;X F Lu;L F Goodrich
影响因子：
1.8
作者：
W. Goldacker;A. Frank;R. Heller;S. Schlachter;B. Ringsdorf;K. Weiss;C. Schmidt;S. Schuller
通讯作者：
W. Goldacker;A. Frank;R. Heller;S. Schlachter;B. Ringsdorf;K. Weiss;C. Schmidt;S. Schuller