A reduced simulation applied to viscoelastic fatigue of polymers using a time multi-scale approach based on partition of Unity method

Abstract The simulation of viscoelastic time-evolution problems described by a large number of internal variables and with a large spectrum of relaxation times requires high computational resources for their resolution. Furthermore, the internal variables evolution is described by a set of linear differential equations which involves many time scales. In this context, the use of a space-time PGD approximation is proposed here to boost their resolution, where the temporal functions are constructed following a multi-scale strategy along with the partition of unity method, in order to catch each dynamic efficiently. The feasibility and the robustness of the method are discussed in the case of a polymer in a non-equilibrium state under cyclic loading.

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Publication Details

Journal
Advanced Modeling and Simulation in Engineering Sciences
Published
2025-05-09
DOI
https://doi.org/10.1186/s40323-025-00294-6
Citations
2
Primary Topic
Numerical methods in engineering
Type
article
Field-Weighted Citation Impact
1.73

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article

A reduced simulation applied to viscoelastic fatigue of polymers using a time multi-scale approach based on partition of Unity method

Diego Canales, Marianne Béringhier, Amine Ammar, Jad Mounayer et al.
2 citations
Advanced Modeling and Simulation in Engineering Sciences
Numerical methods in engineering
1.73
article

A reduced simulation applied to viscoelastic fatigue of polymers using a time multi-scale approach based on partition of Unity method

Diego Canales, Marianne Béringhier, Amine Ammar, Jad Mounayer, Sebastian Rodriguez, Chady Ghnatios, Francisco Chinesta, Angelo Pasquale
article en
2 citations

Abstract

Abstract The simulation of viscoelastic time-evolution problems described by a large number of internal variables and with a large spectrum of relaxation times requires high computational resources for their resolution. Furthermore, the internal variables evolution is described by a set of linear differential equations which involves many time scales. In this context, the use of a space-time PGD approximation is proposed here to boost their resolution, where the temporal functions are constructed following a multi-scale strategy along with the partition of unity method, in order to catch each dynamic efficiently. The feasibility and the robustness of the method are discussed in the case of a polymer in a non-equilibrium state under cyclic loading.

Advanced Modeling and Simulation in Engineering SciencesVol. 12(1)
ESI Group (France) (FR), Centre National de la Recherche Scientifique (FR), École Nationale Supérieure de Mécanique et d'Aérotechnique (FR), Arts et Métiers (FR), Universidad Loyola Andalucía (ES), Institut Pprime (FR)
National Research Foundation
Openalex Percentile: Top 18%
Numerical methods in engineering
1.73
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