
doi: 10.1063/1.4921790
pmid: 26049482
A polynomial-time method of computing the virial coefficients from an integral equation framework is presented. The method computes the truncated density expansions of the correlation functions by series transformations, and then extracts the virial coefficients from the density components. As an application, the method was used in a hybrid-closure integral equation with a set of self-consistent conditions, which produced reasonably accurate virial coefficients for the hard-sphere fluid and Gaussian model in high dimensions.
Normal Distribution, Computer Simulation, Algorithms
Normal Distribution, Computer Simulation, Algorithms
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