Homogenization of a pseudo-parabolic system via a spatial-temporal decoupling: Upscaling and corrector estimates for perforated domains

We determine corrector estimates quantifying the convergence speed of the upscaling of a pseudo-parabolic system containing drift terms incorporating the separation of length scales with relative size $\epsilon\ll1$. To achieve this goal, we exploit a natural spatial-temporal decomposition, which sp...

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Main Authors: Arthur. J. Vromans, Fons van de Ven, Adrian Muntean
Format: Article
Language:English
Published: AIMS Press 2019-07-01
Series:Mathematics in Engineering
Subjects:
Online Access:https://www.aimspress.com/article/10.3934/mine.2019.3.548/fulltext.html
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spelling doaj-1b75ba6560bf4f11806a2511a4cb0dc52020-11-25T01:18:47ZengAIMS PressMathematics in Engineering2640-35012019-07-011354858210.3934/mine.2019.3.548Homogenization of a pseudo-parabolic system via a spatial-temporal decoupling: Upscaling and corrector estimates for perforated domainsArthur. J. Vromans0Fons van de Ven1Adrian Muntean21 Centre for Analysis, Scientific computing and Applications (CASA), Eindhoven University of Technology, Den Dolech 2, 5612AZ, Eindhoven, The Netherlands 2 Department of Mathematics and Computer Science, Karlstad University, Universitetsgatan 2, 651 88, Karlstad, Sweden1 Centre for Analysis, Scientific computing and Applications (CASA), Eindhoven University of Technology, Den Dolech 2, 5612AZ, Eindhoven, The Netherlands2 Department of Mathematics and Computer Science, Karlstad University, Universitetsgatan 2, 651 88, Karlstad, SwedenWe determine corrector estimates quantifying the convergence speed of the upscaling of a pseudo-parabolic system containing drift terms incorporating the separation of length scales with relative size $\epsilon\ll1$. To achieve this goal, we exploit a natural spatial-temporal decomposition, which splits the pseudo-parabolic system into an elliptic partial differential equation and an ordinary differential equation coupled together. We obtain upscaled model equations, explicit formulas for effective transport coefficients, as well as corrector estimates delimitating the quality of the upscaling. Finally, for special cases we show convergence speeds for global times, i.e., $t\in\mathbf{R}_+$, by using time intervals expanding to the whole $\mathbf{R}_+$ simultaneously with passing to the homogenization limit $\epsilon\downarrow0$.https://www.aimspress.com/article/10.3934/mine.2019.3.548/fulltext.htmlperiodic homogenizationpseudo-parabolic systemmixture theoryupscaled systemcorrector estimatesperforated domains
collection DOAJ
language English
format Article
sources DOAJ
author Arthur. J. Vromans
Fons van de Ven
Adrian Muntean
spellingShingle Arthur. J. Vromans
Fons van de Ven
Adrian Muntean
Homogenization of a pseudo-parabolic system via a spatial-temporal decoupling: Upscaling and corrector estimates for perforated domains
Mathematics in Engineering
periodic homogenization
pseudo-parabolic system
mixture theory
upscaled system
corrector estimates
perforated domains
author_facet Arthur. J. Vromans
Fons van de Ven
Adrian Muntean
author_sort Arthur. J. Vromans
title Homogenization of a pseudo-parabolic system via a spatial-temporal decoupling: Upscaling and corrector estimates for perforated domains
title_short Homogenization of a pseudo-parabolic system via a spatial-temporal decoupling: Upscaling and corrector estimates for perforated domains
title_full Homogenization of a pseudo-parabolic system via a spatial-temporal decoupling: Upscaling and corrector estimates for perforated domains
title_fullStr Homogenization of a pseudo-parabolic system via a spatial-temporal decoupling: Upscaling and corrector estimates for perforated domains
title_full_unstemmed Homogenization of a pseudo-parabolic system via a spatial-temporal decoupling: Upscaling and corrector estimates for perforated domains
title_sort homogenization of a pseudo-parabolic system via a spatial-temporal decoupling: upscaling and corrector estimates for perforated domains
publisher AIMS Press
series Mathematics in Engineering
issn 2640-3501
publishDate 2019-07-01
description We determine corrector estimates quantifying the convergence speed of the upscaling of a pseudo-parabolic system containing drift terms incorporating the separation of length scales with relative size $\epsilon\ll1$. To achieve this goal, we exploit a natural spatial-temporal decomposition, which splits the pseudo-parabolic system into an elliptic partial differential equation and an ordinary differential equation coupled together. We obtain upscaled model equations, explicit formulas for effective transport coefficients, as well as corrector estimates delimitating the quality of the upscaling. Finally, for special cases we show convergence speeds for global times, i.e., $t\in\mathbf{R}_+$, by using time intervals expanding to the whole $\mathbf{R}_+$ simultaneously with passing to the homogenization limit $\epsilon\downarrow0$.
topic periodic homogenization
pseudo-parabolic system
mixture theory
upscaled system
corrector estimates
perforated domains
url https://www.aimspress.com/article/10.3934/mine.2019.3.548/fulltext.html
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