Stagnation temperature
The perfect-gas estimate converts kinetic energy into a stagnation temperature scale.
Explore how altitude, Mach number, geometry, wall conditions and disturbance sources reshape hypersonic transition, heating and a detached bow shock. Adapted directly from the supplied Python model.
The perfect-gas estimate converts kinetic energy into a stagnation temperature scale.
A recovery factor estimates how much of the stagnation rise reaches an insulated wall.
A blunter nose lowers the proxy; density and especially velocity drive it upward.
The model includes a simplified ISA atmosphere to 50 km, Sutherland viscosity, Reynolds scaling, perfect-gas temperature ratios, and heating/stand-off proxies. It does not resolve chemical nonequilibrium, dissociation, ionization, ablation, 3-D flow, turbulence closure, trajectory integration or detailed TPS response.