Hydrodynamics for the SSEP with non-reversible ...
Document type :
Compte-rendu et recension critique d'ouvrage
Title :
Hydrodynamics for the SSEP with non-reversible slow boundary dynamics: part I, the critical regime and beyond
Author(s) :
Erignoux, Clement [Auteur]
Systèmes de particules et systèmes dynamiques [Paradyse]
Gonçalves, P [Auteur]
Nahum, G [Auteur]
Systèmes de particules et systèmes dynamiques [Paradyse]
Gonçalves, P [Auteur]
Nahum, G [Auteur]
Journal title :
Journal of Statistical Physics
Pages :
1433--1469
Publisher :
Springer Verlag
Publication date :
2020-09-18
ISSN :
0022-4715
HAL domain(s) :
Mathématiques [math]/Probabilités [math.PR]
English abstract : [en]
The purpose of this article is to provide a simple proof of the hydrodynamic and hydrostatic behavior of the SSEP in contact with slowed reservoirs which inject and remove particles in a finite size windows at the extremities ...
Show more >The purpose of this article is to provide a simple proof of the hydrodynamic and hydrostatic behavior of the SSEP in contact with slowed reservoirs which inject and remove particles in a finite size windows at the extremities of the bulk. More precisely, the reservoirs inject/remove particles at/from any point of a window of size K placed at each extremity of the bulk and particles are injected/removed to the first open/occupied position in that window. The hydrodynamic limit is given by the heat equation with non-linear Robin boundary conditions or Neumann boundary conditions, the latter being in the case when the reservoirs are too slow. The proof goes through the entropy method of [16]. We also derive the hydrostatic limit for this model, whose proof is based on the method developed in [18] and [20]. We observe that we do not make use of correlation estimates in none of our results.Show less >
Show more >The purpose of this article is to provide a simple proof of the hydrodynamic and hydrostatic behavior of the SSEP in contact with slowed reservoirs which inject and remove particles in a finite size windows at the extremities of the bulk. More precisely, the reservoirs inject/remove particles at/from any point of a window of size K placed at each extremity of the bulk and particles are injected/removed to the first open/occupied position in that window. The hydrodynamic limit is given by the heat equation with non-linear Robin boundary conditions or Neumann boundary conditions, the latter being in the case when the reservoirs are too slow. The proof goes through the entropy method of [16]. We also derive the hydrostatic limit for this model, whose proof is based on the method developed in [18] and [20]. We observe that we do not make use of correlation estimates in none of our results.Show less >
Language :
Anglais
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