Plasmas in high speed aerodynamics

被引:201
作者
Bletzinger, P [1 ]
Ganguly, BN
Van Wie, D
Garscadden, A
机构
[1] ISSI, Beavercreek, OH USA
[2] Johns Hopkins Univ, Appl Phys Lab, Baltimore, MD 21218 USA
关键词
D O I
10.1088/0022-3727/38/4/R01
中图分类号
O59 [应用物理学];
学科分类号
摘要
A review is presented of the studies in the former Soviet Union and in the USA of the mutual interactions of plasmas and high speed flows and shocks. There are reports from as early as the 1980s of large changes in the standoff distance ahead of a blunt body in ballistic tunnels, significantly reduced drag and modifications of travelling shocks in bounded weakly ionized gases. Energy addition to the flow results in an increase in the local sound speed that leads to expected modifications of the flow and changes to the pressure distribution around a vehicle due to the decrease in local Mach number. The critical question was, did a plasma provide a significant energy multiplier for the system? There have been a large number of experimental studies on the influence of a weakly ionized plasma on relatively low Mach number shocks and inherently also on the influence of the shock on the plasma. This literature is reviewed and illustrated with representative examples. The convergence through more controlled experiments and improved modelling to a physics understanding of the effects being essentially due to heating is outlined. It is demonstrated that the heating in many cases is global; however, tailored experiments with positive columns, dielectric barrier discharges and focused microwave plasmas can produce very localized heating. The latter appears more attractive for energy efficiency in flow control. Tailored localized ionization and thermal effects are also of interest for high speed inlet shock control and for producing reliable ignition for short residence time combustors, and work in these areas is also reviewed.
引用
收藏
页码:R33 / R57
页数:25
相关论文
共 119 条
[1]  
Aleksandrov A. F., 1986, Soviet Physics - Technical Physics, V31, P468
[2]  
BABICHEV Y, 1999, 3 WEAKL ION GAS WORK
[3]  
BARNETT J, 2003, AIAA20034024
[4]  
BAROVKIN VG, 1999, PERSPECTIVES MHD PLA
[5]   An experimental and theoretical study of shock-wave propagation through reactive gases under conditions causing a transformation of the flow structure [J].
Baryshnikov, AS ;
Basargin, IV ;
Chistyakova, MV .
TECHNICAL PHYSICS, 2001, 46 (03) :287-291
[6]  
Bedin A. P., 1995, Technical Physics Letters, V21, P5
[7]   SPECTROSCOPIC DIAGNOSTICS OF GLOW-DISCHARGE PLASMAS WITH NON-MAXWELLIAN ELECTRON-ENERGY DISTRIBUTIONS [J].
BEHRINGER, K ;
FANTZ, U .
JOURNAL OF PHYSICS D-APPLIED PHYSICS, 1994, 27 (10) :2128-2135
[8]  
BITYURIN V, 1999, AIAA994856
[9]  
BITYURIN VA, 2000, 2 WORKSH MAGN AER AP
[10]   Observation of supersonic shock wave mitigation by a plasma aero-spike [J].
Bivolaru, D ;
Kuo, SP .
PHYSICS OF PLASMAS, 2002, 9 (02) :721-723