66 / 2022-06-29 10:54:43
Numerical simulation of disruption mitigation by applying non-resonant magnetic perturbation and massive gas injection on J-TEXT
disruption, MHD instability, numerical simulations, non-resonant magnetic perturbation, J-TEXT
Final Paper
Zhen Li / Huazhong University of Science and Technology
Zhonghe Jiang / Huazhong University of Science and Technology;School of Electrical and Electronic Engineering
Fan Gu / Huazhong University of Science and Technology;School of Electrical and Electronic Engineering; Wuhan
Zixiao Jiao / Huazhong University of Science and Technology
Jianjun Yuan / Huazhong University of Science and Technology;China Electric Power Research Institute Co., Ltd
Keze Li / Huazhong University of Science and Technology
A lot of experimental and theoretical researches have been carrying out to examine the disruption mechanism and the methods to mitigate disruption, including massive gas injection (MGI) and shattered pellet injection (SPI). Based on NIMROD (non-Ideal Magnetohydrodynamics with Rotation, Open Discussion), numerical simulations of the synergistic effect between non-resonant magnetic perturbations and massive gas injection on disruption mitigation is carrying out in J-TEXT. In this paper, we investigate thermal quench, current quench time and the growth of n=1-3 component MHD instabilities responsed to different amplitudes of non-RMPs. The results indicates that non-RMPs can prolong thermal quench and current quench durations and create stronger perturbations during disruption, leading to a high loss of runaway electrons seeds and reducing the hazard of disruption.
Important Date
  • Conference Date

    Nov 03

    2022

    to

    Nov 05

    2022

  • Aug 01 2022

    Draft paper submission deadline

  • Nov 04 2022

    Registration deadline

  • Nov 05 2022

    Contribution Submission Deadline

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Huazhong University of Science and Technology
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