International audienceThis work is devoted to the numerical resolution in multidimensional framework of a hierarchy of reduced models of the free surface Euler equations, also called water waves equations.The current paper, the first in a series of two, focuses on a hierarchy of monolayer dispersive models, such is the Serre-Green-Naghdi model.A particular attention is given to the dissipation of the mechanical energy at the discrete level, i.e. to design an entropy-satisfying scheme.To illustrate the accuracy and the robustness of the strategy, several numerical experiments are performed.In particular, the strategy is able to deal with dry areas without particular treatment
In this paper we propose a stable and robust strategy to approximate the 3D incompressible hydrosta...
International audienceIn this paper we study a dispersive shallow water type model derived from the ...
International audienceWe introduce a new class of two-dimensional fully nonlinear and weakly dispers...
International audienceThis work is devoted to the numerical resolution in multidimensional framework...
We study the Serre-Green-Naghdi system under a non-hydrostatic formulation, modelling incompressible...
International audienceWe study the Serre–Green-Naghdi system under a non-hydrostatic formulation, mo...
In some configurations, dispersion effects must be taken into account to improve the simulation of c...
Submitted to Journal of Computational PhysicsThis article presents a semi-discrete, multilayer set o...
International audienceIn this paper we propose a strategy to approximate incompressible hydrostatic ...
International audienceWe introduce a new class of Green-Naghdi type models for the propagation of in...
International audienceIn this paper, we present an original derivation process of a non-hydrostatic...
We propose an efficient numerical scheme for the resolution of a non-hydrostatic Saint-Venant type m...
24 pages, 4 figures, 41 references. Other author's papers can be downloaded at http://www.denys-duty...
In geophysics, the shallow water model is a good approximation of the incompressible Navier-Stokes ...
We are interested in the numerical approximation of the hydrostatic free surface incompressible Navi...
In this paper we propose a stable and robust strategy to approximate the 3D incompressible hydrosta...
International audienceIn this paper we study a dispersive shallow water type model derived from the ...
International audienceWe introduce a new class of two-dimensional fully nonlinear and weakly dispers...
International audienceThis work is devoted to the numerical resolution in multidimensional framework...
We study the Serre-Green-Naghdi system under a non-hydrostatic formulation, modelling incompressible...
International audienceWe study the Serre–Green-Naghdi system under a non-hydrostatic formulation, mo...
In some configurations, dispersion effects must be taken into account to improve the simulation of c...
Submitted to Journal of Computational PhysicsThis article presents a semi-discrete, multilayer set o...
International audienceIn this paper we propose a strategy to approximate incompressible hydrostatic ...
International audienceWe introduce a new class of Green-Naghdi type models for the propagation of in...
International audienceIn this paper, we present an original derivation process of a non-hydrostatic...
We propose an efficient numerical scheme for the resolution of a non-hydrostatic Saint-Venant type m...
24 pages, 4 figures, 41 references. Other author's papers can be downloaded at http://www.denys-duty...
In geophysics, the shallow water model is a good approximation of the incompressible Navier-Stokes ...
We are interested in the numerical approximation of the hydrostatic free surface incompressible Navi...
In this paper we propose a stable and robust strategy to approximate the 3D incompressible hydrosta...
International audienceIn this paper we study a dispersive shallow water type model derived from the ...
International audienceWe introduce a new class of two-dimensional fully nonlinear and weakly dispers...