A viscoelastic model for skin via homogenization theory

In this paper, we carry out the homogenization of a fluid–structure interaction problem consisting in the periodic inclusions of a viscous fluid in an elastic body. We get a macrostructure model, where the body behaves as a viscoelastic material with a long-range memory term. Our aim is not only to get this limit problem but also to study its main properties. By using the micro-structure variables, it is simple to check that it satisfies an energy conservation law assuring in particular the existence and uniqueness of solution. The difficulty is to characterize these properties using only the macroscopic system. We prove that the nonlocal term is given through a convolution kernel which exponentially decreases to zero and satisfies some positive conditions which we write in terms of the Laplace transform. These conditions can be used to directly prove the existence and uniqueness of solution. The results apply to modeling the mechanical behavior of skin as an indicator of what kind of models we should use. In a naive interpretation the fluid inclusions represent the cells and the elastic medium the extracellular matrix.

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Publication Details

Journal
Analysis and Applications
Published
2025-10-08
DOI
https://doi.org/10.1142/s0219530526500041
Primary Topic
Textile materials and evaluations
Type
article
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article

A viscoelastic model for skin via homogenization theory

Juan Casado‐Díaz
Analysis and Applications
Textile materials and evaluations
article

A viscoelastic model for skin via homogenization theory

Juan Casado‐Díaz
article en

Abstract

In this paper, we carry out the homogenization of a fluid–structure interaction problem consisting in the periodic inclusions of a viscous fluid in an elastic body. We get a macrostructure model, where the body behaves as a viscoelastic material with a long-range memory term. Our aim is not only to get this limit problem but also to study its main properties. By using the micro-structure variables, it is simple to check that it satisfies an energy conservation law assuring in particular the existence and uniqueness of solution. The difficulty is to characterize these properties using only the macroscopic system. We prove that the nonlocal term is given through a convolution kernel which exponentially decreases to zero and satisfies some positive conditions which we write in terms of the Laplace transform. These conditions can be used to directly prove the existence and uniqueness of solution. The results apply to modeling the mechanical behavior of skin as an indicator of what kind of models we should use. In a naive interpretation the fluid inclusions represent the cells and the elastic medium the extracellular matrix.

Analysis and Applications
Universidad de Sevilla (ES)
Openalex Percentile: Top 75%
Textile materials and evaluations
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A viscoelastic model for skin via homogenization theory — Juan Casado‐Díaz · Analysis and Applications (2025) | TGRS Research Map | TGRS