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Derivation Rankine Hugoniot is a mathematical equation used in fluid dynamics to calculate the properties of a fluid at a certain point in space, based on the properties of the fluid at another point. It is commonly used to study the behavior of shock waves in gases.
The Derivation Rankine Hugoniot equation was developed by William Rankine and Pierre Hugoniot in the 19th century. Rankine developed the original equation for compressible fluids, while Hugoniot extended it to include the effects of shock waves.
The Derivation Rankine Hugoniot equation is derived from the conservation laws of mass, momentum, and energy. It uses the Rankine-Hugoniot shock jump conditions, which state that the properties of a fluid change abruptly across a shock wave.
The Derivation Rankine Hugoniot equation has many applications in fluid dynamics, such as studying the behavior of shock waves in gases, analyzing the properties of explosions, and designing supersonic aircraft. It is also used in astrophysics to study the behavior of shock waves in stars and supernovae.
Yes, there are some limitations to the Derivation Rankine Hugoniot equation. It assumes that the fluid is inviscid (no friction) and that the shock wave is one-dimensional. It also does not take into account any chemical reactions or phase changes that may occur across the shock wave.