Hypersonic Shock Impingement on a Heated Surface in the T4 Free-Piston Driven Shock Tunnel

E. W. K. Chang, W. Chan, T. Mcintyre, A. Veeraragavan
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引用次数: 1

Abstract

Shock impingement is one of the fundamental shock/boundary layer interaction cases in hypersonic flight vehicles. The adverse pressure gradient due to an oblique shock significantly increases the pressure and thermal loads on the vehicle surface. In addition to the shock impingement, the effect of the heated surface temperature in realistic hypersonic flows has not been extensively investigated. This paper presents a numerical approach to investigate hypersonic shock impingement on heated walls. The numerical results showed that the extent of flow separation was increased by the elevated wall temperature. Following this numerical work, a flat-plate/shock generator model that has been designed will be experimentally tested at The University of Queenland’s T4 free-piston driven shock tunnel to compare the flow-field and the incipient separation predicted from twodimensional numerical simulations.
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T4自由活塞驱动激波通道中受热表面的高超声速激波冲击
激波撞击是高超声速飞行器中激波/边界层相互作用的基本形式之一。由斜冲击引起的逆压梯度显著增加了车辆表面的压力和热负荷。除了激波冲击外,实际高超声速流动中受热表面温度的影响还没有得到广泛的研究。本文提出了一种研究高超声速激波对加热壁面冲击的数值方法。数值结果表明,壁面温度升高,流动分离程度增大。在此数值工作之后,设计的平板/激波发生器模型将在昆士兰大学的T4自由活塞驱动激波隧道中进行实验测试,以比较二维数值模拟预测的流场和初始分离。
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