The infinite set of moments of the two-particle distribution function is found exactly for the uniform cooling state of a hard-sphere gas with inelastic collisions. Their form shows that velocity correlations cannot be neglected, and consequently the 'molecular chaos' hypothesis leading to the inelastic Boltzmann and Enskog kinetic equations must be questioned. © 1998 Cambridge University Press.SCOPUS: ar.jinfo:eu-repo/semantics/publishe
In contrast to molecular gases, granular gases are characterized by inelastic collisions and require...
We treat the case of an undriven gas of inelastic hard-spheres with short-ranged attractive potentia...
A novel computer-aided method for solving kinetic equations has been developed and implemented in a ...
We developed computer simulations of an inelastic granular gas which show that the energy decay prop...
Whereas the original Boltzmann’s H-theorem applies to elastic collisions, its rigorous generalizatio...
We consider the single-particle velocity distribution of a one-dimensional uid of inelastic particle...
Enskog's kinetic equation for a dense gas of hard spheres has been generalized in this paper to a mi...
We study a two-dimensional gas of inelastic smooth hard dimers. Since the collisions between dimers ...
The dynamics of cooling inelastic gases and the evolution of their velocity fields is addressed by s...
We develop the Cauchy theory of the spatially homogeneous inelastic Boltzmann equation for hard sphe...
We use large-scale molecular dynamics simulations to study freely evolving granular gases with dimen...
We consider the spatially homogeneous Boltzmann equation for inelastic hard spheres, in the framewor...
A kinetic model is proposed for the nonequilibrium flow of dense gases composed of hard sphere molec...
Dynamics of inelastic gases are studied within the framework of random collision processes. The corr...
A gas of inelastically colliding hard spheres (the so called granular gas) is a simple model of flow...
In contrast to molecular gases, granular gases are characterized by inelastic collisions and require...
We treat the case of an undriven gas of inelastic hard-spheres with short-ranged attractive potentia...
A novel computer-aided method for solving kinetic equations has been developed and implemented in a ...
We developed computer simulations of an inelastic granular gas which show that the energy decay prop...
Whereas the original Boltzmann’s H-theorem applies to elastic collisions, its rigorous generalizatio...
We consider the single-particle velocity distribution of a one-dimensional uid of inelastic particle...
Enskog's kinetic equation for a dense gas of hard spheres has been generalized in this paper to a mi...
We study a two-dimensional gas of inelastic smooth hard dimers. Since the collisions between dimers ...
The dynamics of cooling inelastic gases and the evolution of their velocity fields is addressed by s...
We develop the Cauchy theory of the spatially homogeneous inelastic Boltzmann equation for hard sphe...
We use large-scale molecular dynamics simulations to study freely evolving granular gases with dimen...
We consider the spatially homogeneous Boltzmann equation for inelastic hard spheres, in the framewor...
A kinetic model is proposed for the nonequilibrium flow of dense gases composed of hard sphere molec...
Dynamics of inelastic gases are studied within the framework of random collision processes. The corr...
A gas of inelastically colliding hard spheres (the so called granular gas) is a simple model of flow...
In contrast to molecular gases, granular gases are characterized by inelastic collisions and require...
We treat the case of an undriven gas of inelastic hard-spheres with short-ranged attractive potentia...
A novel computer-aided method for solving kinetic equations has been developed and implemented in a ...