We use large-scale molecular dynamics simulations to study freely evolving granular gases with dimensionality d=2,3. The system dissipates kinetic energy (or cools) due to inelastic collisions between granular particles. The density and velocity fields are approximately homogeneous at early times, and the system is said to be in a homogeneous cooling state (HCS). However, fluctuations in the density and velocity fields grow, and the system evolves into an inhomogeneous cooling state (ICS). We study the nature of velocity distributions in both the HCS and ICS. We also investigate the aging property of the velocity autocorrelation function
Dry, freely evolving granular materials in a dilute gaseous state coalesce into dense clusters only ...
Dry, freely evolving granular materials in a dilute gaseous state coalesce into dense clusters only ...
In the present paper we review some recent progresses in the study of the dynamics of cooling granul...
We study the dynamical behavior of a freely evolving granular gas, where the particles undergo inela...
In this paper we study aging of the velocity autocorrelation function of a uniformly heated granular...
We study dynamics of freely cooling granular gases in two dimensions using large-scale molecular dyn...
We present results from a granular dynamics study of the nonequilibrium behavior of a freely evolvin...
In contrast to molecular gases, granular gases are characterized by inelastic collisions and require...
In contrast to molecular gases, granular gases are characterized by inelastic collisions and require...
In contrast to molecular gases, granular gases are characterized by inelastic collisions and require...
Starting from the hierarchy of equations for microscopic densities in phase space, a general theory ...
We present results from comprehensive event-driven (ED) simulations of nonlinear pattern formation i...
We developed computer simulations of an inelastic granular gas which show that the energy decay prop...
The homogeneous cooling state of a granular flow of smooth spherical particles described by the Bolt...
A freely cooling granular gas with a velocity-dependent restitution coefficient is studied in one di...
Dry, freely evolving granular materials in a dilute gaseous state coalesce into dense clusters only ...
Dry, freely evolving granular materials in a dilute gaseous state coalesce into dense clusters only ...
In the present paper we review some recent progresses in the study of the dynamics of cooling granul...
We study the dynamical behavior of a freely evolving granular gas, where the particles undergo inela...
In this paper we study aging of the velocity autocorrelation function of a uniformly heated granular...
We study dynamics of freely cooling granular gases in two dimensions using large-scale molecular dyn...
We present results from a granular dynamics study of the nonequilibrium behavior of a freely evolvin...
In contrast to molecular gases, granular gases are characterized by inelastic collisions and require...
In contrast to molecular gases, granular gases are characterized by inelastic collisions and require...
In contrast to molecular gases, granular gases are characterized by inelastic collisions and require...
Starting from the hierarchy of equations for microscopic densities in phase space, a general theory ...
We present results from comprehensive event-driven (ED) simulations of nonlinear pattern formation i...
We developed computer simulations of an inelastic granular gas which show that the energy decay prop...
The homogeneous cooling state of a granular flow of smooth spherical particles described by the Bolt...
A freely cooling granular gas with a velocity-dependent restitution coefficient is studied in one di...
Dry, freely evolving granular materials in a dilute gaseous state coalesce into dense clusters only ...
Dry, freely evolving granular materials in a dilute gaseous state coalesce into dense clusters only ...
In the present paper we review some recent progresses in the study of the dynamics of cooling granul...