Thiele hard sphere equation of state: Difference between revisions

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The '''Thiele hard sphere equation of state''' is an [[equations of state|equation of state]] for modeling a [[hard sphere model|hard sphere]] fluid developed by Thiele in 1963
The '''Thiele hard sphere equation of state''' is an [[equations of state|equation of state]] for modeling a [[hard sphere model|hard sphere]] fluid developed by Everett Thiele in 1963
<ref>[https://doi.org/10.1063/1.1734272 Everett Thiele "Equation of State for Hard Spheres", Journal of Chemical Physics '''39''' 474 (1963)]</ref>.  
<ref>[https://doi.org/10.1063/1.1734272 Everett Thiele "Equation of State for Hard Spheres", Journal of Chemical Physics '''39''' 474 (1963)]</ref>.  
The equation provides a better approximation of the repulsive forces between molecules than the [[Van der Waals equation of state|Van der Waals repulsive term]]. The equation is given below:
The equation provides a better approximation of the repulsive forces between molecules than the [[Van der Waals equation of state|Van der Waals repulsive term]]. The equation is given below:

Latest revision as of 00:20, 13 June 2024

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The Thiele hard sphere equation of state is an equation of state for modeling a hard sphere fluid developed by Everett Thiele in 1963 [1]. The equation provides a better approximation of the repulsive forces between molecules than the Van der Waals repulsive term. The equation is given below:

,

where:

is the compressibility factor of the hard sphere fluid;
is the pressure of the fluid;
is the molar volume of the fluid;
is the absolute temperature of the fluid;
is the molar gas constant; and
is the packing fraction of the fluid.

In terms of accuracy, the Thiele equation is superseded by the Carnahan-Starling equation of state

References[edit]