Microlayer Framework: Extension to Viscoelastic Material Behaviour for Finite Strains

ABSTRACT The microlayer framework is a novel, powerful method for the numerical simulation of heterogeneous materials, such as aggregate‐matrix composites across different scales. In this work, the microlayer framework is prepared for viscoelastic material behaviour for the first time. The kinematics of the representative volume element on the microlevel is selected in a manner that the material behaviour of typical composites, such as asphalt or concrete, can be modelled. The constitutive relationships on the microscale are developed independently from the macroscale. The prerequisites for correct computational homogenisation are thus met. The thermodynamically motivated scale transition is demonstrated using the Principle of Multiscale Virtual Power . Numerical examples are presented to show that the chosen formulation can reproduce the typical characteristics of viscoelastic material behaviour.

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Publication Details

Journal
PAMM
Published
2024-12-01
DOI
https://doi.org/10.1002/pamm.202400165
Citations
5
Primary Topic
Composite Material Mechanics
Type
article
Field-Weighted Citation Impact
1.35

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article

Microlayer Framework: Extension to Viscoelastic Material Behaviour for Finite Strains

Michael Kaliske, Ines Wollny, Jakob Platen, Marcel May
5 citations
PAMM
Composite Material Mechanics
1.35
article

Microlayer Framework: Extension to Viscoelastic Material Behaviour for Finite Strains

Michael Kaliske, Ines Wollny, Jakob Platen, Marcel May
article en
5 citations

Abstract

ABSTRACT The microlayer framework is a novel, powerful method for the numerical simulation of heterogeneous materials, such as aggregate‐matrix composites across different scales. In this work, the microlayer framework is prepared for viscoelastic material behaviour for the first time. The kinematics of the representative volume element on the microlevel is selected in a manner that the material behaviour of typical composites, such as asphalt or concrete, can be modelled. The constitutive relationships on the microscale are developed independently from the macroscale. The prerequisites for correct computational homogenisation are thus met. The thermodynamically motivated scale transition is demonstrated using the Principle of Multiscale Virtual Power . Numerical examples are presented to show that the chosen formulation can reproduce the typical characteristics of viscoelastic material behaviour.

PAMMVol. 24(4)
Technische Universität Dresden (DE)
Deutsche Forschungsgemeinschaft
Sustainable cities and communities
Openalex Percentile: Top 22%
Composite Material Mechanics
1.35
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Microlayer Framework: Extension to Viscoelastic Material Behaviour for Finite Strains — Michael Kaliske, Ines Wollny, et al. · PAMM (2024) | TGRS Research Map | TGRS