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New, thermodynamically consistent, integral equation for simple fluids

Physical review. A, General physics · 1984 · Vol. 30(2) · pp. 999–1007
F. J. RogersDavid A. Young

Abstract

A new integral equation in which the hypernetted-chain and Percus-Yevick approximations are "mixed" as a function of interparticle separation is described. An adjustable parameter $\ensuremath{\alpha}$ in the mixing function is used to enforce thermodynamic consistency. For simple $\frac{1}{{r}^{n}}$ potential fluids, $\ensuremath{\alpha}$ is constant for all densities, and the solutions of the integral equations are in very good agreement with Monte Carlo calculations. For the one-component plasma, $\ensuremath{\alpha}$ is a slowly varying function of density, but the agreement between calculated solutions and Monte Carlo is also good. This approach has definite advantages over previous thermodynamically consistent equations.

Phase Equilibria and ThermodynamicsThermodynamic properties of mixturesMaterial Dynamics and PropertiesMonte Carlo methodIntegral equationPhysicsSimple (philosophy)Function (biology)Consistency (knowledge bases)Mixing (physics)Statistical physicsThermodynamicsQuantum mechanics
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References
Theory of simple classical fluids: Universality in the short-range structure
Physical review. A, General physics · 1979 · 653 citations
Equation of State for Nonattracting Rigid Spheres
The Journal of Chemical Physics · 1969 · 5,205 citations
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