The goal of this work is to present a numerical homogenization of a non-local PDE deriving from a first order discrete model for traffic flow that simulates the presence of a local perturbation. In a previous work, we have shown that the solution of the discrete microscopic model converges to the (unique) solution of a Hamilton-Jacobi equation posed on a network and with a junction condition (it can be seen as a flux limiter that keeps the memory of the local perturbation). The goal of this paper is to provide a numerical scheme able to provide an approximation of this flux-limiter. We will show the convergence of this scheme and we will provide some numerical results
International audienceGiven a coercive Hamiltonian which is quasi-convex with respect to the gradien...
In this paper, we establish a rigorous connection between a microscopic and a macroscopic traffic mo...
In this work, we propose a non-local Hamilton–Jacobi model for traffic flow and we prove the existen...
The goal of this work is to present a numerical homogenization of a non-local PDE deriving from a fi...
We present techniques for the analysis and numerical analysis of non-local non-linear PDEs. We apply...
International audienceIn this paper, we focus on deriving traffic flow macroscopic models from micro...
International audienceThe goal of this paper is to derive a traffic flow macroscopic model from a se...
International audienceThe goal of this paper is to obtain a numerical approximation of the effective...
In this paper, we establish a rigorous connection between a microscopic and a macroscopic pedestrian...
International audienceThe goal of this paper is to derive a traffic flow macroscopic models from mic...
The goal of this paper is to derive a macroscopic traffic flow model, for a simple bifurcation, from...
The goal of this paper is to derive a macroscopic traffic flow model, for a simple bifurcation, from...
This thesis deals with the modeling of local and non local Hamilton-Jacobi equations, and their appl...
This thesis deals with the modeling of local and non local Hamilton-Jacobi equations, and their appl...
This thesis deals with the modeling of local and non local Hamilton-Jacobi equations, and their appl...
International audienceGiven a coercive Hamiltonian which is quasi-convex with respect to the gradien...
In this paper, we establish a rigorous connection between a microscopic and a macroscopic traffic mo...
In this work, we propose a non-local Hamilton–Jacobi model for traffic flow and we prove the existen...
The goal of this work is to present a numerical homogenization of a non-local PDE deriving from a fi...
We present techniques for the analysis and numerical analysis of non-local non-linear PDEs. We apply...
International audienceIn this paper, we focus on deriving traffic flow macroscopic models from micro...
International audienceThe goal of this paper is to derive a traffic flow macroscopic model from a se...
International audienceThe goal of this paper is to obtain a numerical approximation of the effective...
In this paper, we establish a rigorous connection between a microscopic and a macroscopic pedestrian...
International audienceThe goal of this paper is to derive a traffic flow macroscopic models from mic...
The goal of this paper is to derive a macroscopic traffic flow model, for a simple bifurcation, from...
The goal of this paper is to derive a macroscopic traffic flow model, for a simple bifurcation, from...
This thesis deals with the modeling of local and non local Hamilton-Jacobi equations, and their appl...
This thesis deals with the modeling of local and non local Hamilton-Jacobi equations, and their appl...
This thesis deals with the modeling of local and non local Hamilton-Jacobi equations, and their appl...
International audienceGiven a coercive Hamiltonian which is quasi-convex with respect to the gradien...
In this paper, we establish a rigorous connection between a microscopic and a macroscopic traffic mo...
In this work, we propose a non-local Hamilton–Jacobi model for traffic flow and we prove the existen...