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Numerical study of the oscillations induced by shock/shock interaction in hypersonic double-wedge flows

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Abstract

In this paper, the shock pattern oscillations induced by shock/shock interactions over double-wedge geometries in hypersonic flows were studied numerically by solving 2D inviscid Euler equations for a multi-species system. Laminar viscous effects were considered in some cases. Temperature-dependent thermodynamic properties were employed in the state and energy equations for consideration of the distinct change of the thermodynamic state. It was shown that the oscillation results in high-frequency fluctuations of heating and pressure loads over wedge surfaces. In a case with a relatively lower free-stream Mach number, the shock/shock interaction structure maintains a seven-shock configuration during the entire oscillation process. On the other hand, the oscillation is accompanied by a transition between a six-shock configuration (regular interaction) and a seven-shock configuration (Mach interaction) in a case with a higher free-stream Mach number. Numerical results also indicate that the critical wedge angle for the transition from a steady to an oscillation solution is higher compared to the corresponding value in earlier numerical research in which the perfect diatomic gas model was used.

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Correspondence to R. S. Myong.

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Communicated by R. R. Boyce.

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Hu, Z.M., Myong, R.S., Wang, C. et al. Numerical study of the oscillations induced by shock/shock interaction in hypersonic double-wedge flows. Shock Waves 18, 41–51 (2008). https://doi.org/10.1007/s00193-008-0138-x

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  • DOI: https://doi.org/10.1007/s00193-008-0138-x

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