AbstractWe propose a time discretization of the Navier–Stokes equations inspired by the theory of gradient flows. This discretization produces Leray/Hopf solutions in any dimension and suitable solutions in dimension 3. We also show that in dimension 3 and for initial datum in H1, the scheme converges to strong solutions in some interval [0,T) and, if the datum satisfies the classical smallness condition, it produces the smooth solution in [0,∞)
The Total Variation Flow (TVF) is a partial differential equation with applications related to image...
AbstractStrichartz estimates for rotating fluids have already been used to show that the velocity fi...
Mixed nite element approximation of reaction front propagation model in porous media is presented. T...
International audienceWe propose a time discretization of the Navier-Stokes equations inspired by th...
AbstractWe study a discrete-time approximation for solutions of systems of decoupled Forward–Backwar...
In the early 1980s it was well established that Leray solutions of the unforced Navier–Stokes equati...
We consider a fully discrete approximation of the $H^1$ gradient flow of an energy integral where th...
AbstractWe consider the incompressible Euler equations in a (possibly multiply connected) bounded do...
The first two sections of this work review the framework of [6] for approximate solutions of the inc...
AbstractWe propose a time discretization of the Navier–Stokes equations inspired by the theory of gr...
We construct weak solutions to the Navier-Stokes inequality, $$ u\cdot \left(\partial_t u -\nu \Delt...
We study the long time behaviour of a dynamical system strongly linked to the anti-diffusive scheme ...
AbstractWe solve a nonlinear convection–diffusion problem by the method of characteristics. The velo...
AbstractIn this paper we prove some properties of the maximal solution of Navier–Stokes equations. I...
We study the long time behaviour of a dynamical system strongly linked to the anti-diffusive scheme ...
The Total Variation Flow (TVF) is a partial differential equation with applications related to image...
AbstractStrichartz estimates for rotating fluids have already been used to show that the velocity fi...
Mixed nite element approximation of reaction front propagation model in porous media is presented. T...
International audienceWe propose a time discretization of the Navier-Stokes equations inspired by th...
AbstractWe study a discrete-time approximation for solutions of systems of decoupled Forward–Backwar...
In the early 1980s it was well established that Leray solutions of the unforced Navier–Stokes equati...
We consider a fully discrete approximation of the $H^1$ gradient flow of an energy integral where th...
AbstractWe consider the incompressible Euler equations in a (possibly multiply connected) bounded do...
The first two sections of this work review the framework of [6] for approximate solutions of the inc...
AbstractWe propose a time discretization of the Navier–Stokes equations inspired by the theory of gr...
We construct weak solutions to the Navier-Stokes inequality, $$ u\cdot \left(\partial_t u -\nu \Delt...
We study the long time behaviour of a dynamical system strongly linked to the anti-diffusive scheme ...
AbstractWe solve a nonlinear convection–diffusion problem by the method of characteristics. The velo...
AbstractIn this paper we prove some properties of the maximal solution of Navier–Stokes equations. I...
We study the long time behaviour of a dynamical system strongly linked to the anti-diffusive scheme ...
The Total Variation Flow (TVF) is a partial differential equation with applications related to image...
AbstractStrichartz estimates for rotating fluids have already been used to show that the velocity fi...
Mixed nite element approximation of reaction front propagation model in porous media is presented. T...