A method to numerically solve the Euler equations for fluids with general equations of state is presented. It is based on a formulation solving the conservation equations for either pressure primitive variables or entropy variables, instead of the commonly used conservation variables. We use a space-time discontinuous Galerkin finite-element discretization, which yields a highly local, potentially higher-order scheme. The algorithm is applied to test cases for compressible fluids to demonstrate its capabilities and the performance of the different variable sets
This work deals with the problem of inviscid, compressible flow in a timedependent domain. We descri...
A new and efficient quadrature rule for the flux integrals arising in the space–time discontinuous G...
A new discretization method for the three-dimensional Euler equations of gas dynamics is presented, ...
Abstract. A method to numerically solve the Euler equations for fluids with general equa-tions of st...
Using the generalized variable formulation of the Euler equations of fluid dynamics, we develop a nu...
Many numerical methods for fluid dynamics are suitable only for a single, idealized type of fluid. M...
International audienceWe present a high-order Lagrange-projection like method for the approximation ...
International audienceAbstract We present an entropy stable Discontinuous Galerkin (DG) finite eleme...
We present a high order accurate streamline-upwind/Petrov-Galerkin (SUPG) algorithm for the solution...
In this work we propose numerical approximations of the Boltzmann equation that are consistent with ...
The compressible Euler equations describe the motion of compressible inviscid fluids. They are used ...
A new space-time discontinuous Galerkin finite element method for the solution of the Euler equation...
A new space-time discontinuous Galerkin finite element method for the solution of the Euler equation...
In this work we analyze the entropic properties of the Euler equations when the system is closed wit...
The aim of this paper is to investigate the behavior of a high-order accurate Discontinuous Galerkin...
This work deals with the problem of inviscid, compressible flow in a timedependent domain. We descri...
A new and efficient quadrature rule for the flux integrals arising in the space–time discontinuous G...
A new discretization method for the three-dimensional Euler equations of gas dynamics is presented, ...
Abstract. A method to numerically solve the Euler equations for fluids with general equa-tions of st...
Using the generalized variable formulation of the Euler equations of fluid dynamics, we develop a nu...
Many numerical methods for fluid dynamics are suitable only for a single, idealized type of fluid. M...
International audienceWe present a high-order Lagrange-projection like method for the approximation ...
International audienceAbstract We present an entropy stable Discontinuous Galerkin (DG) finite eleme...
We present a high order accurate streamline-upwind/Petrov-Galerkin (SUPG) algorithm for the solution...
In this work we propose numerical approximations of the Boltzmann equation that are consistent with ...
The compressible Euler equations describe the motion of compressible inviscid fluids. They are used ...
A new space-time discontinuous Galerkin finite element method for the solution of the Euler equation...
A new space-time discontinuous Galerkin finite element method for the solution of the Euler equation...
In this work we analyze the entropic properties of the Euler equations when the system is closed wit...
The aim of this paper is to investigate the behavior of a high-order accurate Discontinuous Galerkin...
This work deals with the problem of inviscid, compressible flow in a timedependent domain. We descri...
A new and efficient quadrature rule for the flux integrals arising in the space–time discontinuous G...
A new discretization method for the three-dimensional Euler equations of gas dynamics is presented, ...