In this paper we consider the very high order approximation of solutions of the Euler equations. We present a systematic generalization of the Residual Distribution method of \cite{ENORD} to very high order of accuracy, by extending the preliminary work discussed in \cite{abgrallLarat} to systems and hybrid meshes. We present extensive numerical validation for the third and fourth order cases with Lagrange finite elements. In particular, we demonstrate that we an both have a non oscillatory behavior, even for very strong shocks and complex flow patterns, and the expected accuracy on smooth problems.Adaptive Schemes for Deterministic and Stochastic Flow Problem
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...
In this paper we consider the very high order approximation of solutions of the Euler equations. We ...
In the present work, a high order finite element type residual distribution scheme is designed in th...
In the present work, a high order finite element type residual distribution scheme is designed in th...
In this work we describe the use of the Residual Distribution schemes for the discretization of the ...
Our aim is to report some recent advances in the development of residual distribution (RD) schemes u...
Nous nous intéressons à l'approximation numérique des problèmes de convection diffusion stationnaire...
We describe and review (non oscillatory) residual distribution schemes that are rather natural exten...
In this work we describe the use of the Residual Distribution schemes applied to the discretization ...
International audienceOur aim is to report some recent advances in the development of residual distr...
We provide a review of high order methods for CFD. Besides recalling some classical methods, we show...
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...
Since a few years, the Residual Distribution (RD) methodology has become a more mature numerical tec...
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...
In this paper we consider the very high order approximation of solutions of the Euler equations. We ...
In the present work, a high order finite element type residual distribution scheme is designed in th...
In the present work, a high order finite element type residual distribution scheme is designed in th...
In this work we describe the use of the Residual Distribution schemes for the discretization of the ...
Our aim is to report some recent advances in the development of residual distribution (RD) schemes u...
Nous nous intéressons à l'approximation numérique des problèmes de convection diffusion stationnaire...
We describe and review (non oscillatory) residual distribution schemes that are rather natural exten...
In this work we describe the use of the Residual Distribution schemes applied to the discretization ...
International audienceOur aim is to report some recent advances in the development of residual distr...
We provide a review of high order methods for CFD. Besides recalling some classical methods, we show...
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...
Since a few years, the Residual Distribution (RD) methodology has become a more mature numerical tec...
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...
This work presents a novel interpolation-free mesh adaptation technique for the Euler equations with...