A note on existence and asymptotic behavior of Lagrangian equilibria for first-order optimal-exit mean field games

Abstract

In this paper, we consider a first-order mean field game model motivated by crowd motion in which agents evolve in a (not necessarily compact) metric space and wish to reach a given target set. Each agent aims to minimize the sum of their travel time and an exit cost which depends on their exit position on the target set. Agents interact through their dynamics, the maximal speed of an agent being assumed to be a function of their position and the distribution of other agents. This interaction may model, in particular, congestion phenomena. Under suitable assumptions on the model, we prove existence of Lagrangian equilibria, analyze the asymptotic behavior for large time of the distribution of agents, and study the dependence of equilibria and asymptotic limits on the initial distribution of the agents.

References in corpus (5)

• Mean Field Games with state constraints: from mild to pointwise solutions of the PDE system
• Convergence of the solutions of the discounted Hamilton-Jacobi equation: a counterexample
• Optimal Transportation with Boundary Costs and Summability Estimates on the Transport Density
• Non-separable Mean Field Games for Pedestrian Flow: Generalized Hughes Model
• Non-standard Stochastic Control with Nonlinear Feynman-Kac Costs