We study an one dimensional model where an interface is the stationary solution of a mesoscopic non local evolution equation which has been derived by a microscopic stochastic spin system. Deviations from this evolution equation can be quantified by obtaining the large deviations cost functional from the underlying stochastic process. For such a functional, derived in a companion paper, we investigate the optimal way for a macroscopic interface to move from an initial to a final position distant by R within fixed time T. We find that for small values of R∕T the interface moves with a constant speed, while for larger values there appear nucleations of the other phase ahead of the front
International audienceWe study the macroscopic representation of noise-driven interfaces in stochast...
We study the macroscopic representation of noise-driven interfaces in stochastic interface growth mo...
We study the motion of phase interfaces in a diffusive lattice equation with bistable nonlinearity a...
We study the most probable way an interface moves on a macroscopic scale from an initial to a final ...
By applying linear response theory and the Onsager principle, the power (per unit area) needed to ma...
By applying linear response theory and the Onsager principle, the power (per unit area) needed to ma...
Abstract. By applying linear response theory and the Onsager principle, the power (per unit area) ne...
International audienceIn this article, we study a branching random walk in an environment which depe...
The translational motion of a solid sphere near a deformable fluid interface is studied in the low R...
We consider a kinetic model of two species of particles interacting with a reservoir at fixed temper...
We discuss the sharp interface limit of the action functional associated with either the Glauber dyn...
24 pagesWe study the maximal displacement of a branching random walk in a time-inhomogeneous environ...
We study the asymptotic behavior of a discrete-in-time minimizing movement scheme for square lattice...
International audienceWe study the macroscopic representation of noise-driven interfaces in stochast...
We study the macroscopic representation of noise-driven interfaces in stochastic interface growth mo...
We study the motion of phase interfaces in a diffusive lattice equation with bistable nonlinearity a...
We study the most probable way an interface moves on a macroscopic scale from an initial to a final ...
By applying linear response theory and the Onsager principle, the power (per unit area) needed to ma...
By applying linear response theory and the Onsager principle, the power (per unit area) needed to ma...
Abstract. By applying linear response theory and the Onsager principle, the power (per unit area) ne...
International audienceIn this article, we study a branching random walk in an environment which depe...
The translational motion of a solid sphere near a deformable fluid interface is studied in the low R...
We consider a kinetic model of two species of particles interacting with a reservoir at fixed temper...
We discuss the sharp interface limit of the action functional associated with either the Glauber dyn...
24 pagesWe study the maximal displacement of a branching random walk in a time-inhomogeneous environ...
We study the asymptotic behavior of a discrete-in-time minimizing movement scheme for square lattice...
International audienceWe study the macroscopic representation of noise-driven interfaces in stochast...
We study the macroscopic representation of noise-driven interfaces in stochastic interface growth mo...
We study the motion of phase interfaces in a diffusive lattice equation with bistable nonlinearity a...