Enthalpy Behind Normal Shock in Normal Shock Wave Formulas

Enthalpy Behind Normal Shock is the enthalpy of downstream of shock and it is defined as the sum of the system’s internal energy and the product of its pressure and volume for per unit mass. And is denoted by h₂. Enthalpy Behind Normal Shock is usually measured using the Joule per Kilogram for Specific Energy. Note that the value of Enthalpy Behind Normal Shock is always positive.

Formulas to find Enthalpy Behind Normal Shock in Normal Shock Wave

fxEnthalpy behind Normal Shock from Normal Shock Energy EquationGo

fxStatic Enthalpy behind Normal Shock for given Upstream Enthalpy and Mach NumberGo

Normal Shock Wave formulas that make use of Enthalpy Behind Normal Shock

fxEnthalpy ahead of Normal Shock from Normal Shock Energy EquationGo

fxVelocity ahead of Normal Shock from Normal Shock Energy EquationGo

fxVelocity behind Normal Shock from Normal Shock Energy EquationGo

List of variables in Normal Shock Wave formulas

fx Enthalpy Ahead of Normal Shock Go

fx Velocity Upstream of Shock Go

fx Velocity Downstream of Shock Go

fx Specific Heat Ratio Go

fx Mach Number Ahead of Normal Shock Go

FAQ

What is the Enthalpy Behind Normal Shock?

Enthalpy Behind Normal Shock is the enthalpy of downstream of shock and it is defined as the sum of the system’s internal energy and the product of its pressure and volume for per unit mass. Enthalpy Behind Normal Shock is usually measured using the Joule per Kilogram for Specific Energy. Note that the value of Enthalpy Behind Normal Shock is always positive.

Can the Enthalpy Behind Normal Shock be negative?

No, the Enthalpy Behind Normal Shock, measured in Specific Energy cannot be negative.

What unit is used to measure Enthalpy Behind Normal Shock?

Enthalpy Behind Normal Shock is usually measured using the Joule per Kilogram[J/kg] for Specific Energy. Joule per Gram[J/kg], Joule per Centigram[J/kg], Square Meter per Square Second[J/kg] are the few other units in which Enthalpy Behind Normal Shock can be measured.

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