• Acta Physica Sinica
  • Vol. 69, Issue 14, 145201-1 (2020)
Xin-Xia Li1、2、*, Guo-Zhuang Li1, and Hong-Bo Liu1
Author Affiliations
  • 1School of Nuclear Science and Technology, University of South China, Hengyang 421001, China
  • 2Institute of Plasma Physics, Chinese Academy of Sciences, Hefei 230031, China
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    DOI: 10.7498/aps.69.20200222 Cite this Article
    Xin-Xia Li, Guo-Zhuang Li, Hong-Bo Liu. Helicon wave damping coefficient of Chinese fusion engineering testing reactor plasma[J]. Acta Physica Sinica, 2020, 69(14): 145201-1 Copy Citation Text show less
    The dependence of and its components on .
    Fig. 1. The dependence of and its components on .
    The relationship of the wave damping factor on wave frequency. The parameters used here are , ne0 = 1 × 1020 m–3, B = 5 T, .
    Fig. 2. The relationship of the wave damping factor on wave frequency. The parameters used here are , ne0 = 1 × 1020 m–3, B = 5 T, .
    The effect of wave initial parallel refractive index and plasma density on wave damping factor. The plasma temperature is , magnetic filed .
    Fig. 3. The effect of wave initial parallel refractive index and plasma density on wave damping factor. The plasma temperature is , magnetic filed .
    The dependence of wave damping factor G on plasma temperature. The parameters used here are f = 800 MHz, , B = 5.0 T.
    Fig. 4. The dependence of wave damping factor G on plasma temperature. The parameters used here are f = 800 MHz, , B = 5.0 T.
    The relationship between the damping ratio and the wave frequency on CFETR.
    Fig. 5. The relationship between the damping ratio and the wave frequency on CFETR.
    The power deposition density profile of helicon wave under the CFETR hybrid mode, the power inject is, parallel refractive index , the wave frequency is 800 MHz.
    Fig. 6. The power deposition density profile of helicon wave under the CFETR hybrid mode, the power inject is , parallel refractive index , the wave frequency is 800 MHz.
    The current drive density profile of helicon wave under the CFETR hybrid mode. The parameters used are the same as in Fig. 6.
    Fig. 7. The current drive density profile of helicon wave under the CFETR hybrid mode. The parameters used are the same as in Fig. 6.
    数值计算结果数表结果[10]
    ξZRZIZRZI
    000.177245×10100.177245×101
    0.2–0.3895020.170296×101–0.3895020.170295×101
    0.4–0.7198870.151039×1010.7198870.151039×101
    0.6–0.9495260.123660×101–0.9492560.123660×101
    1.0–1.0761590.652049×1001.0761600.652049×100
    2.0–0.6026810.324636×10–10.6026810.324636×10–1
    4.0–0.2586960.199463×10–60.2586960.199463×10–6
    6.0–0.1690850.411125×10–150.1690860.411124×10–15
    Table 1.

    Numerical results of plasma dispersion function.

    等离子体色散函数数值结果比较

    Xin-Xia Li, Guo-Zhuang Li, Hong-Bo Liu. Helicon wave damping coefficient of Chinese fusion engineering testing reactor plasma[J]. Acta Physica Sinica, 2020, 69(14): 145201-1
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