Computer simulations of a colloidal particle suspended in a fluid confined by rigid walls show that, at long times, the velocity correlation function decays with a negative algebraic tail. The exponent depends on the confining geometry, rather than the spatial dimensionality. We can account for the tail by using a simple mode-coupling theory which exploits the fact that the sound wave generated by a moving particle becomes diffusive
The molecular dynamics computer simulation discovery of the slow decay of the velocity autocorrelati...
We study non-equilibrium velocity fluctuations in a model for the sedimentation of non-Brownian part...
We model a fluid-filled disordered porous medium by a lattice-Boltzmann system with randomly broken ...
Computer simulations of a colloidal particle suspended in a fluid confined by rigid walls show that,...
Computer simulations of the dynamics of a colloidal particle suspended in a fluid confined by an int...
We analyze the short-time dynamical behavior of a colloidal suspension in a confined geometry. We an...
We apply a hybrid molecular dynamics and mesoscopic simulation technique to study the dynamics of tw...
We report numerical simulations of the velocity autocorrelation function (VACF) for tagged particle ...
Molecular dynamics simulations are employed to obtain the velocity autocorrelation function (VAF) fo...
In a suspension, the hydrodynamic interactions between particles can propagate by two mechanisms: re...
Finite-size effects are challenging in molecular dynamics simulations because they have significant ...
Twenty five years ago Alder and Wainwright discovered, by simulation, the 'long-time tails' in the v...
We have calculated the velocity autocorrelation function for a tracer particle in a model two-dimens...
We study a homogeneously driven granular fluid of hard spheres at intermediate volume fractions and ...
We apply a hybrid molecular dynamics and mesoscopic simulation technique to study the dynamics of tw...
The molecular dynamics computer simulation discovery of the slow decay of the velocity autocorrelati...
We study non-equilibrium velocity fluctuations in a model for the sedimentation of non-Brownian part...
We model a fluid-filled disordered porous medium by a lattice-Boltzmann system with randomly broken ...
Computer simulations of a colloidal particle suspended in a fluid confined by rigid walls show that,...
Computer simulations of the dynamics of a colloidal particle suspended in a fluid confined by an int...
We analyze the short-time dynamical behavior of a colloidal suspension in a confined geometry. We an...
We apply a hybrid molecular dynamics and mesoscopic simulation technique to study the dynamics of tw...
We report numerical simulations of the velocity autocorrelation function (VACF) for tagged particle ...
Molecular dynamics simulations are employed to obtain the velocity autocorrelation function (VAF) fo...
In a suspension, the hydrodynamic interactions between particles can propagate by two mechanisms: re...
Finite-size effects are challenging in molecular dynamics simulations because they have significant ...
Twenty five years ago Alder and Wainwright discovered, by simulation, the 'long-time tails' in the v...
We have calculated the velocity autocorrelation function for a tracer particle in a model two-dimens...
We study a homogeneously driven granular fluid of hard spheres at intermediate volume fractions and ...
We apply a hybrid molecular dynamics and mesoscopic simulation technique to study the dynamics of tw...
The molecular dynamics computer simulation discovery of the slow decay of the velocity autocorrelati...
We study non-equilibrium velocity fluctuations in a model for the sedimentation of non-Brownian part...
We model a fluid-filled disordered porous medium by a lattice-Boltzmann system with randomly broken ...