Advanced Search+
WANG Fuqiong(王福琼), CHEN Yiping(陈一平), HU Liqun(胡立群). DIVIMP Modeling of Impurity Transport in EAST[J]. Plasma Science and Technology, 2014, 16(7): 642-649. DOI: 10.1088/1009-0630/16/7/03
Citation: WANG Fuqiong(王福琼), CHEN Yiping(陈一平), HU Liqun(胡立群). DIVIMP Modeling of Impurity Transport in EAST[J]. Plasma Science and Technology, 2014, 16(7): 642-649. DOI: 10.1088/1009-0630/16/7/03

DIVIMP Modeling of Impurity Transport in EAST

Funds: supported by National Natural Science Foundation of China (Nos. 11261140328, 10975158)
More Information
  • Received Date: April 08, 2013
  • Simulations of carbon impurity transport in SOL/divertor plasmas with Ohmic heat- ing on EAST tokamak were performed using the two-dimensional (2D) Monte Carlo impurity transport code DIVIMP. The background plasmas for DIVIMP simulations were externally taken from B2.5/Eirene calculation. Besides the basic output of DIVIMP, the 2D density distributions of the carbon impurity with different ionization states and neutral carbon atoms were obtained, the 2D distributions of CII and CIII emissivities from C +1 and C +2 radiation respectively were also calculated. Comparison between the measured and calculated CIII emissivities showed favorable agreement, indicating that the impurity physics transport models, as implemented in the DIVIMP code, are suitable for the EAST tokamak plasma condition.
  • 1.Chen Yiping, Wang D S, Guo H Y. 2011, Nuclear Fu-sion, 51: 3042
    2 Shimizu K, Takizuka T, Sakasai A. 1997, Journal of Nuclear Materials, 241: 167
    3 Stangeby P C, Farrell C, Hoskins S, et al. 1988, Nu-clear Fusion, 28: 1945
    4 Krieger K, Bosch H S, Eckstein W, et al. 1995, Journal of Nuclear Materials, 221: 548
    5 Wu Songtao, EAST team. 2007, Fusion Engineering and Design, 8: 463
    6 Liu Xufeng, Du Shijun, Yao Damao, et al. 2009, Fusion Engineering and Design, 84: 78
    7 Stangeby P C, Elder J D. 1992, Journal of Nuclear Materials, 196: 258
    8 Schneider R, Bonnin X, Borrass K, et al. 2006, Con-tributions to Plasma Physics, 3: 46
    9 Garcia-Rosales C, Eckstein W, Roth J. 1994, Journal of Nuclear Materials, 218: 8
    10 Haddad E, Meo F, Marchand R, et al. 2000, Journal of Nuclear Material, 278: 111
    11.Neuhauser J, Bessenrodt-Weberpals M, Braams B J, et al. 1989, Plasma Physics and Controlled Fusion, 31: 1551
    12.Summers H P, O’Mullane M G. 2005, Springer Series in Chemical Physics, 399: 78
    13.Stangeby P C. 2000, The Plasma Boundary of Mag-netic Fusion Devices. Institute of Physics Publishing, Bristol and Philadelphia
    14.Eckstein Wolfgang, Hofer O. 1991, Topics in Applied Physics, 1: 64
    15.Jarvinen A, Giroud C, Groth M, et al. 2011, Physica Scripta, 145: 4013
    16.Engelhardt W, Feneberg W. 1978, Journal of Nuclear Materials, 76: 518
    17.Engelhardt W, Becker G, Behringer K, et al. 1982, Journal of Nuclear Materials, 111: 337
    18.Eckstein W, Preuss R. 2003, Journal of Nuclear Ma-terials, 320: 209
    19.Eckstein Wolfgang. 2007, Topics Appl. Physics, 110: 33

Catalog

    Article views (190) PDF downloads (1587) Cited by()

    /

    DownLoad:  Full-Size Img  PowerPoint
    Return
    Return