DIII-D research towards establishing the scientific basis for future fusion reactors
作者: C.C. Pettythe DIII-D Team
作者单位: 1General Atomics, San Diego, CA, United States of America
刊名: Nuclear Fusion, 2019, Vol.59 (11)
来源数据库: Institute of Physics Journal
DOI: 10.1088/1741-4326/ab024a
原始语种摘要: DIII-D research is addressing critical challenges in preparation for ITER and the next generation of fusion devices through focusing on plasma physics fundamentals that underpin key fusion goals, understanding the interaction of disparate core and boundary plasma physics, and developing integrated scenarios for achieving high performance fusion regimes. Fundamental investigations into fusion energy science find that anomalous dissipation of runaway electrons (RE) that arise following a disruption is likely due to interactions with RE-driven kinetic instabilities, some of which have been directly observed, opening a new avenue for RE energy dissipation using naturally excited waves. Dimensionless parameter scaling of intrinsic rotation and gyrokinetic simulations give a predicted ITER...
全文获取路径: IOP 

  • fusion 融解
  • divertor 分流偏滤器
  • pedestal 基座
  • basis 
  • towards 朝向
  • rotation 旋转
  • lower 降下
  • observed 观察到的
  • density 密度
  • likely 大概