Calculate Temperature Ratio Across a Shock Wave Using Rankine-Hugoniot Relations

Temperature Ratio Calculation Form

Enter a value greater than 1.
Commonly 1.4 for diatomic gases like air, 1.66 for monatomic gases.

Discover the temperature ratio across a shock wave with our precise calculator. Utilizing the Rankine-Hugoniot relations, this tool is vital for engineers and physicists analyzing compressible flow and aerodynamic phenomena. Quickly determine critical parameters for supersonic aircraft design and high-speed fluid dynamics applications.

Formula:

The temperature ratio (T₂/T₁) across a normal shock wave can be calculated using the following Rankine-Hugoniot relation for a perfect gas:

T₂/T₁ = [1 + (2γ/(γ+1)) * (M₁² - 1)] * [(2 + (γ-1)M₁²)/( (γ+1)M₁² )]

  • T₂: Static temperature downstream of the shock
  • T₁: Static temperature upstream of the shock
  • γ (gamma): Ratio of specific heats (adiabatic index)
  • M₁: Upstream Mach number (must be > 1 for a shock wave to occur)

This formula requires the upstream Mach number and the ratio of specific heats (γ).

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