Computation of the self-diffusion coefficient with low-rank tensor methods: application to the simulation of a cross-diffusion system

Cross-diffusion systems arise as hydrodynamic limits of lattice multi-species interacting particle models. The objective of this work is to provide a numerical scheme for the simulation of the cross-diffusion system identified in [J. Quastel, Comm. Pure Appl. Math., 45 (1992), pp. 623–679]. To simul...

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Main Authors: Dabaghi Jad, Ehrlacher Virginie, Strössner Christoph
Format: Article
Language:English
Published: EDP Sciences 2023-01-01
Series:ESAIM: Proceedings and Surveys
Online Access:https://www.esaim-proc.org/articles/proc/pdf/2023/02/proc2307309.pdf
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author Dabaghi Jad
Ehrlacher Virginie
Strössner Christoph
author_facet Dabaghi Jad
Ehrlacher Virginie
Strössner Christoph
author_sort Dabaghi Jad
collection DOAJ
description Cross-diffusion systems arise as hydrodynamic limits of lattice multi-species interacting particle models. The objective of this work is to provide a numerical scheme for the simulation of the cross-diffusion system identified in [J. Quastel, Comm. Pure Appl. Math., 45 (1992), pp. 623–679]. To simulate this system, it is necessary to provide an approximation of the so-called self-diffusion coefficient matrix of the tagged particle process. Classical algorithms for the computation of this matrix are based on the estimation of the long-time limit of the average mean square displacement of the particle. In this work, as an alternative, we propose a novel approach for computing the self-diffusion coefficient using deterministic low-rank approximation techniques, as the minimum of a high-dimensional optimization problem. The computed self-diffusion coefficient is then used for the simulation of the cross-diffusion system using an implicit finite volume scheme.
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spelling doaj.art-4ffda14efc4e4542b806799fe1eadefc2023-09-26T10:13:00ZengEDP SciencesESAIM: Proceedings and Surveys2267-30592023-01-017317318610.1051/proc/202373173proc2307309Computation of the self-diffusion coefficient with low-rank tensor methods: application to the simulation of a cross-diffusion systemDabaghi Jad0Ehrlacher Virginie1Strössner Christoph2Ecole des Ponts ParisTechEcole des Ponts ParisTechInstitute of Mathematics, EPF LausanneCross-diffusion systems arise as hydrodynamic limits of lattice multi-species interacting particle models. The objective of this work is to provide a numerical scheme for the simulation of the cross-diffusion system identified in [J. Quastel, Comm. Pure Appl. Math., 45 (1992), pp. 623–679]. To simulate this system, it is necessary to provide an approximation of the so-called self-diffusion coefficient matrix of the tagged particle process. Classical algorithms for the computation of this matrix are based on the estimation of the long-time limit of the average mean square displacement of the particle. In this work, as an alternative, we propose a novel approach for computing the self-diffusion coefficient using deterministic low-rank approximation techniques, as the minimum of a high-dimensional optimization problem. The computed self-diffusion coefficient is then used for the simulation of the cross-diffusion system using an implicit finite volume scheme.https://www.esaim-proc.org/articles/proc/pdf/2023/02/proc2307309.pdf
spellingShingle Dabaghi Jad
Ehrlacher Virginie
Strössner Christoph
Computation of the self-diffusion coefficient with low-rank tensor methods: application to the simulation of a cross-diffusion system
ESAIM: Proceedings and Surveys
title Computation of the self-diffusion coefficient with low-rank tensor methods: application to the simulation of a cross-diffusion system
title_full Computation of the self-diffusion coefficient with low-rank tensor methods: application to the simulation of a cross-diffusion system
title_fullStr Computation of the self-diffusion coefficient with low-rank tensor methods: application to the simulation of a cross-diffusion system
title_full_unstemmed Computation of the self-diffusion coefficient with low-rank tensor methods: application to the simulation of a cross-diffusion system
title_short Computation of the self-diffusion coefficient with low-rank tensor methods: application to the simulation of a cross-diffusion system
title_sort computation of the self diffusion coefficient with low rank tensor methods application to the simulation of a cross diffusion system
url https://www.esaim-proc.org/articles/proc/pdf/2023/02/proc2307309.pdf
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AT ehrlachervirginie computationoftheselfdiffusioncoefficientwithlowranktensormethodsapplicationtothesimulationofacrossdiffusionsystem
AT strossnerchristoph computationoftheselfdiffusioncoefficientwithlowranktensormethodsapplicationtothesimulationofacrossdiffusionsystem