The closure problem for the stellar hydrodynamic equations is studied by describing the family of phase space density functions, for which the collisionless Boltzmann equation is strictly equivalent to a finite subset of moment equations. It is proven that the redundancy of the higher-order moment equations and the recurrence of the velocity moments are of similar nature. The method is based on the use of maximum entropy distributions, which are afterwards generalised to phase space density functions depending on any isolating integral of motion in terms of a polynomial function of degree n in the velocities. The equivalence between the moment equations up to ...
In this paper, explicit method of constructing approximations (the triangle entropy method) is devel...
The aim of this article is to show that moment approximations of kinetic equations based on a Maximu...
We study the one-dimensional boost-invariant Boltzmann equation in the relaxation-time approximation...
The closure problem for the stellar hydrodynamic equations is studied by describing the family of ph...
The closure problem of the stellar hydrodynamic equations is studied in a general case by describing...
The closure conditions, which make a finite set of moment equations equivalent to the collisionless ...
The exact mathematical expression for an arbitrary nth-order stellar hydrodynamic equation is explic...
This work applies the moment method onto a generic form of kinetic equations to simplify kinetic mod...
The method of moments provides a flexible mathematical framework to derive reduced-order models for ...
Dense stellar systems such as globular clusters, galactic nuclei and nuclear star clusters are ideal...
This paper is concerned with approximations of the Boltzmann equation based on the method of moments...
Dense stellar systems such as globular clusters, galactic nuclei and nuclear star clusters are ideal...
The maximum entropy approach is used to solve the classical moment problem of stellar kinematics. ...
The evolution of heat in crystalline solids is described at low temperatures by the Boltzmann-Peierl...
The maximum entropy approach is used to solve the classical moment problem of stellar kinematics. If...
In this paper, explicit method of constructing approximations (the triangle entropy method) is devel...
The aim of this article is to show that moment approximations of kinetic equations based on a Maximu...
We study the one-dimensional boost-invariant Boltzmann equation in the relaxation-time approximation...
The closure problem for the stellar hydrodynamic equations is studied by describing the family of ph...
The closure problem of the stellar hydrodynamic equations is studied in a general case by describing...
The closure conditions, which make a finite set of moment equations equivalent to the collisionless ...
The exact mathematical expression for an arbitrary nth-order stellar hydrodynamic equation is explic...
This work applies the moment method onto a generic form of kinetic equations to simplify kinetic mod...
The method of moments provides a flexible mathematical framework to derive reduced-order models for ...
Dense stellar systems such as globular clusters, galactic nuclei and nuclear star clusters are ideal...
This paper is concerned with approximations of the Boltzmann equation based on the method of moments...
Dense stellar systems such as globular clusters, galactic nuclei and nuclear star clusters are ideal...
The maximum entropy approach is used to solve the classical moment problem of stellar kinematics. ...
The evolution of heat in crystalline solids is described at low temperatures by the Boltzmann-Peierl...
The maximum entropy approach is used to solve the classical moment problem of stellar kinematics. If...
In this paper, explicit method of constructing approximations (the triangle entropy method) is devel...
The aim of this article is to show that moment approximations of kinetic equations based on a Maximu...
We study the one-dimensional boost-invariant Boltzmann equation in the relaxation-time approximation...