Production of a High-Mach-Number Plasma Flow for an Advanced Plasma Space Thruster

被引:0
|
作者
M.Inutake
K.Yoshino
S.Fujimura
H.Tobari
T.Yagai
Y.Hosokawa
R.Sato
K.Hattori
A.Ando
机构
[1] Department of Electrical Engineering
[2] Japan
[3] Sendai 980-8579
[4] Tohoku University
关键词
electric propulsion; MPD thruster; magnetic nozzle; RF ion heating;
D O I
暂无
中图分类号
V439.2 [];
学科分类号
摘要
A higher specific impulse and a larger thrust are required for a manned interplanetary space thruster. Prior to a realization of a fusion-plasma thruster, a magneto-plasma-dynamic arcjet (MPDA) powered by a fission reactor is one of the promising candidates for a manned Mars space thruster. The MPDA plasma is accelerated axially by a self-induced j × B force. Thrust performance of the MPDA is expected to increase by applying a magnetic nozzle instead of a solid nozzle. In order to get a much higher thruster performance, two methods have been investigated in the HITOP device, Tohoku University. One is to use a magnetic Laval nozzle in the vicinity of the MPDA muzzle for converting the high ion thermal energy to the axial flow energy. The other is to heat ions by use of an ICRF antenna in the divergent magnetic nozzle. It is found that by use of a small-sized Laval-type magnetic nozzle, the subsonic flow near the muzzle is converted to be supersonic through the magnetic Laval nozzle. A fast-flowing plasma
引用
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页码:2541 / 2545
页数:5
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