We propose a modified direct simulation Monte Carlo (DSMC) method, which extends the validity of DSMC from rarefied to dense system of hard spheres (HSs). To assess this adapted method, transport properties of hard-sphere (HS) systems have been predicted both at dense states as well as dilute, and we observed the excellent accuracy over existing DSMC-based algorithms including the Enskog theory. The present approach provides an intuitive and systematic way to accelerate molecular dynamics (MD) via mesoscale approach.close
The computation of open many-particle systems at high densities is a major challenge since many dec...
There are many physical situations where particles experience external fields or are in a nonisother...
Several physical systems in condensed matter have been modeled approximating their constituent parti...
Revised thermodynamic and dynamical properties of the hard sphere (HS) system are obtained from ext...
The one-dimensional steady heat flow in a dense hard sphere gas is studied solving the Enskog equati...
Hard spheres are a central and important model reference system for both homogeneous and inhomogeneo...
We present Monte Carlo (MC) simulations of the structure factors of polydisperse hard-sphere fluids....
New calculations have been made of the self-diffusion coefficient D, the shear viscosity eta(s), the...
This paper surveys methods for the simulation of random systems of hard particles, namely sedimentat...
A novel stochastic fluid model is proposed with a nonideal structure factor consistent with compress...
The direct simulation Monte Carlo method for the Boltzmann equation is modified by an additional dis...
We present in this proceeding recent large scale simulations of dense colloids. On one hand we simul...
Molecular dynamics (MD) simulations are performed for six- and seven-dimensional hard-hypersphere fl...
There are many physical situations where particles experience external fields or are in a nonisother...
Monte Carlo with the Metropolis criterion to simulate hard-sphere in the canonical ensembl
The computation of open many-particle systems at high densities is a major challenge since many dec...
There are many physical situations where particles experience external fields or are in a nonisother...
Several physical systems in condensed matter have been modeled approximating their constituent parti...
Revised thermodynamic and dynamical properties of the hard sphere (HS) system are obtained from ext...
The one-dimensional steady heat flow in a dense hard sphere gas is studied solving the Enskog equati...
Hard spheres are a central and important model reference system for both homogeneous and inhomogeneo...
We present Monte Carlo (MC) simulations of the structure factors of polydisperse hard-sphere fluids....
New calculations have been made of the self-diffusion coefficient D, the shear viscosity eta(s), the...
This paper surveys methods for the simulation of random systems of hard particles, namely sedimentat...
A novel stochastic fluid model is proposed with a nonideal structure factor consistent with compress...
The direct simulation Monte Carlo method for the Boltzmann equation is modified by an additional dis...
We present in this proceeding recent large scale simulations of dense colloids. On one hand we simul...
Molecular dynamics (MD) simulations are performed for six- and seven-dimensional hard-hypersphere fl...
There are many physical situations where particles experience external fields or are in a nonisother...
Monte Carlo with the Metropolis criterion to simulate hard-sphere in the canonical ensembl
The computation of open many-particle systems at high densities is a major challenge since many dec...
There are many physical situations where particles experience external fields or are in a nonisother...
Several physical systems in condensed matter have been modeled approximating their constituent parti...