Hygroscopic phase field fracture modelling of composite materials

This paper investigates the effect of moisture content upon the degradation behaviour of composite materials. A coupled phase field framework considering moisture diffusion, hygroscopic expansion, and fracture behaviour is developed. This multi-physics framework is used to explore the damage evoluti...

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Main Authors: Au-Yeung, K, Quintanas-Corominas, A, Martínez‑Pañeda, E, Tan, W
Format: Journal article
Language:English
Published: Springer Nature 2023
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author Au-Yeung, K
Quintanas-Corominas, A
Martínez‑Pañeda, E
Tan, W
author_facet Au-Yeung, K
Quintanas-Corominas, A
Martínez‑Pañeda, E
Tan, W
author_sort Au-Yeung, K
collection OXFORD
description This paper investigates the effect of moisture content upon the degradation behaviour of composite materials. A coupled phase field framework considering moisture diffusion, hygroscopic expansion, and fracture behaviour is developed. This multi-physics framework is used to explore the damage evolution of composite materials, spanning the micro-, meso- and macro-scales. The micro-scale unit-cell model shows how the mismatch between the hygroscopic expansion of fibre and matrix leads to interface debonding. From the meso-scale ply-level model, we learn that the distribution of fibres has a minor influence on the material properties, while increasing moisture content facilitates interface debonding. The macro-scale laminate-level model shows that moisture induces a higher degree of damage on the longitudinal ply relative to the transverse ply. This work opens a new avenue to understand and predict environmentally assisted degradation in composite materials.
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spelling oxford-uuid:344ebf20-31bc-4e3b-a967-ee128fe9722d2024-02-28T06:36:18ZHygroscopic phase field fracture modelling of composite materialsJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:344ebf20-31bc-4e3b-a967-ee128fe9722dEnglishSymplectic ElementsSpringer Nature2023Au-Yeung, KQuintanas-Corominas, AMartínez‑Pañeda, ETan, WThis paper investigates the effect of moisture content upon the degradation behaviour of composite materials. A coupled phase field framework considering moisture diffusion, hygroscopic expansion, and fracture behaviour is developed. This multi-physics framework is used to explore the damage evolution of composite materials, spanning the micro-, meso- and macro-scales. The micro-scale unit-cell model shows how the mismatch between the hygroscopic expansion of fibre and matrix leads to interface debonding. From the meso-scale ply-level model, we learn that the distribution of fibres has a minor influence on the material properties, while increasing moisture content facilitates interface debonding. The macro-scale laminate-level model shows that moisture induces a higher degree of damage on the longitudinal ply relative to the transverse ply. This work opens a new avenue to understand and predict environmentally assisted degradation in composite materials.
spellingShingle Au-Yeung, K
Quintanas-Corominas, A
Martínez‑Pañeda, E
Tan, W
Hygroscopic phase field fracture modelling of composite materials
title Hygroscopic phase field fracture modelling of composite materials
title_full Hygroscopic phase field fracture modelling of composite materials
title_fullStr Hygroscopic phase field fracture modelling of composite materials
title_full_unstemmed Hygroscopic phase field fracture modelling of composite materials
title_short Hygroscopic phase field fracture modelling of composite materials
title_sort hygroscopic phase field fracture modelling of composite materials
work_keys_str_mv AT auyeungk hygroscopicphasefieldfracturemodellingofcompositematerials
AT quintanascorominasa hygroscopicphasefieldfracturemodellingofcompositematerials
AT martinezpanedae hygroscopicphasefieldfracturemodellingofcompositematerials
AT tanw hygroscopicphasefieldfracturemodellingofcompositematerials