Numerical Study of Z-pinch Dynamics at Different Working Regimes
被引:0
|
作者:
A. Raeisdana
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机构:Atomic Energy Organization of Iran,Faculty of Plasma and Nuclear Fusion, Nuclear Science and Technology Research Institute
A. Raeisdana
S. M. Sadat Kiai
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机构:Atomic Energy Organization of Iran,Faculty of Plasma and Nuclear Fusion, Nuclear Science and Technology Research Institute
S. M. Sadat Kiai
A. Sadighzadeh
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机构:Atomic Energy Organization of Iran,Faculty of Plasma and Nuclear Fusion, Nuclear Science and Technology Research Institute
A. Sadighzadeh
M. Nasri Nasrabadi
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机构:Atomic Energy Organization of Iran,Faculty of Plasma and Nuclear Fusion, Nuclear Science and Technology Research Institute
M. Nasri Nasrabadi
机构:
[1] Atomic Energy Organization of Iran,Faculty of Plasma and Nuclear Fusion, Nuclear Science and Technology Research Institute
[2] University of Isfahan,Department of Nuclear Engineering, Faculty of Advanced Sciences and Technologies
来源:
Journal of Fusion Energy
|
2014年
/
33卷
关键词:
Pinch time;
Pinch current;
Mass sweeping efficiency factor (;
);
Current efficiency factor (;
);
D O I:
暂无
中图分类号:
学科分类号:
摘要:
Mass sweeping and current efficiency factors (fm and fi) are two important parameters in Z-pinch devices, because one can compute those to better analyze Z-pinch dynamics. In this paper, the advanced shock model was employed to calculate and compare the aforementioned parameters for ACOL Z-pinch in three different working regimes. It was found that fm is in the range of 0.12–0.13 for hydrogen gas at p0 = 400 and 800 Pa pressures and fm = 0.13 for helium gas at p0 = 260 Pa. Similar works have resulted fm in the range 0.10–0.16. Therefore our computations of fm values (range 0.1–0.13) agree with the fm range, and it confirms our model. Therefore, the factors can be precisely being calculated using advanced shock model for various Z-pinch systems at different working regimes.