On the theory of supersonic inviscid flow separation in gasdynamic problems

被引:0
作者
R. Ya. Tugazakov
机构
[1] Central Aerohydrodynamic Institute (TsAGI),
来源
Fluid Dynamics | 2016年 / 51卷
关键词
shock waves; separation; Kelvin–Helmholtz instability; self-similar and conical flows;
D O I
暂无
中图分类号
学科分类号
摘要
A general schematic flow representation that explains the mechanism of inviscid gas separation in time-dependent and three-dimensional gas flows is presented. The scenario of gas flow separation from a body surface or a mixing layer is described as a vortex which induces in the flowfield a velocity opposing to that of the main flow, thus decelerating it. Within the framework of this scenario the analytical conditions of separation are obtained for conical and self-similar gas flows which coincide with the results of experimental and numerical simulations.
引用
收藏
页码:689 / 695
页数:6
相关论文
共 50 条
[31]   Effect of a Thin Longitudinal Inviscid Vortex on a Two-Dimensional Pre-Separation Boundary Layer [J].
Zametaev, V. B. ;
Kravtsova, M. A. .
FLUID DYNAMICS, 2003, 38 (02) :250-264
[32]   The Vortical Structures in the Rear Separation and Wake Produced by a Supersonic Micro-Ramp [J].
Wang, Xiao ;
Yan, Yonghua ;
Sun, Zhengzhong ;
Liu, Chaoqun .
FLOW TURBULENCE AND COMBUSTION, 2014, 93 (01) :25-36
[33]   The Vortical Structures in the Rear Separation and Wake Produced by a Supersonic Micro-Ramp [J].
Xiao Wang ;
Yonghua Yan ;
Zhengzhong Sun ;
Chaoqun Liu .
Flow, Turbulence and Combustion, 2014, 93 :25-36
[34]   Low-dimensional models of the glottal flow incorporating viscous-inviscid interaction [J].
Kaburagi, Tokihiko ;
Tanabe, Yosuke .
JOURNAL OF THE ACOUSTICAL SOCIETY OF AMERICA, 2009, 125 (01) :391-404
[35]   BY-PASSING FLOW IN A SUPERSONIC NOZZLE WITH OPTICAL WINDOWS. [J].
Satooka, Sakae ;
Kato, Shuji ;
Takeuchi, Kazuo .
Rika Gaku Kenkyujo hokoku, 1986, 62 (04) :161-165
[36]   Theoretical investigation of supersonic flow control by nonthermal DC discharge [J].
Sohbatzadeh, F. ;
Mehdipoor, M. ;
Mirzanejhad, S. .
SHOCK WAVES, 2019, 29 (03) :415-426
[37]   The Dependence of a Sonic Boom on the Relative Positions of Bodies in a Supersonic Flow [J].
Potapkin, A. V. ;
Moskvichev, D. Yu. .
TECHNICAL PHYSICS LETTERS, 2020, 46 (03) :295-298
[38]   Quasi-DC electrical discharge characterization in a supersonic flow [J].
Houpt, Alec ;
Hedlund, Brock ;
Leonov, Sergey ;
Ombrello, Timothy ;
Carter, Campbell .
EXPERIMENTS IN FLUIDS, 2017, 58 (04)
[39]   Theoretical investigation of supersonic flow control by nonthermal DC discharge [J].
F. Sohbatzadeh ;
M. Mehdipoor ;
S. Mirzanejhad .
Shock Waves, 2019, 29 :415-426
[40]   The Dependence of a Sonic Boom on the Relative Positions of Bodies in a Supersonic Flow [J].
A. V. Potapkin ;
D. Yu. Moskvichev .
Technical Physics Letters, 2020, 46 :295-298