Stagnation-point heat transfer to blunt shapes in hypersonic flight, including effects of yaw
A. J. Eggers, C. Frederick Hansen, Bernard E Cunningham
Abstract
A. J. Eggers, C. Frederick Hansen, Bernard E Cunningham
Abstract
An approximate theory is developed for predicting the rate of heat transfer to the stagnation region of blunt bodies in hypersonic flight. Attention is focused on the case where wall temperature is small compared to stagnation temperature. The theoretical heat-transfer rate at the stagnation point of a hemispherical body is found to agree with available experimental data. The effect of yaw on heat transfer to a cylindrical stagnation region is treated at some length, and it is predicted that large yaw should cause sizable reductions in heat-transfer rate.
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An approximate theory is developed for predicting the rate of heat transfer to the stagnation region of blunt bodies in hypersonic flight. Attention is focused on the case where wall temperature is small compared to stagnation temperature. The theoretical heat-transfer rate at the stagnation point of a hemispherical body is found to agree with available experimental data. The effect of yaw on heat transfer to a cylindrical stagnation region is treated at some length, and it is predicted that large yaw should cause sizable reductions in heat-transfer rate.
Key concepts: Stagnation point, Stagnation temperature, Stagnation pressure, Heat transfer, Mechanics, Hypersonic speed, Materials science, Thermodynamics