Progress of the CFETR design

G. Zhuang(University of Science and Technology of China), Guoqiang Li(Institute of Plasma Physics), J. Li(Institute of Plasma Physics), Y. X. Wan(University of Science and Technology of China), Y. Liu(Southwestern Institute of Physics), Xiang‐Li Wang(China Academy of Engineering Physics), Yuntao Song(Institute of Plasma Physics), V. S. Chan(University of Science and Technology of China), Q.W. Yang(Southwestern Institute of Physics), Baonian Wan(Institute of Plasma Physics), X.R. Duan(Southwestern Institute of Physics), Peng Fu(Institute of Plasma Physics), Bingjia Xiao(Institute of Plasma Physics), the CFETR Design Team(Southwestern Institute of Physics)
Nuclear Fusion
March 8, 2019
Cited by 368

Abstract

The Chinese Fusion Engineering Testing Reactor (CFETR), complementing the ITER facility, is aiming to demonstrate fusion energy production up to 200 MW initially and to eventually reach DEMO relevant power level 1 GW, to manifest a high duty factor of 0.3–0.5, and to pursue tritium self-sufficiency with tritium breeding ratio (TBR) >1. The key challenge to meet the missions of the CFETR is to run the machine in steady state (or long pulse) and high duty factor. By using a multi-dimensional code suite with physics-based models, self-consistent steady-state and hybrid mode scenarios for CFETR have been developed under a high magnetic field up to 6.5 T. The negative-ion neutral beam injection together with high frequency electron cyclotron wave and lower hybrid wave (and/or fast wave) are proposed to be used to drive the current. Subsequently the engineering design of CFETR including the magnet system, vacuum system, tritium breeding blanket, divertor, remote handling and maintenance system will be introduced. Some research and development (R&D) activities are also introduced in this paper.


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