The interface dewetting process of particulate filled polymer composite

Abstract Dewetting is one of the most common damage modes in particulate filled polymer composite, which greatly damages the structural integrity of the composite and leads to the deterioration of its mechanical properties. Studying the dewetting evolution process of composite is of great significance for evaluating the meso damage degree of composite and suppressing the development of dewetting damage. This article constructs an axisymmetric cylindrical cell model of a single particle inclusion matrix, derives the interface dewetting evolution process of the model under uniaxial tensile loading condition, and analyzes the influence of model geometric parameters and external loading conditions on the dewetting process. Subsequently, numerical models were constructed at both micro and meso scales, and dynamic tensile calculations were performed to analyze the correlation between the dewetting rate, porosity, and mechanical performance. Finally, a cylindrical cell specimen was designed to observe the interface dewetting evolution under uniaxial tensile conditions, confirming the conclusions of theoretical analysis and numerical simulation. Highlights Constructed a theoretical model for the dewetting process of interface. Conducted numerical analysis of dewetting process at both meso and micro scales. Designed interface dewetting experiment and analyzed the dewetting process.

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Publication Details

Journal
Polymer Composites
Published
2024-09-23
DOI
https://doi.org/10.1002/pc.29054
Primary Topic
Composite Material Mechanics
Type
article
Field-Weighted Citation Impact
0.00

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article

The interface dewetting process of particulate filled polymer composite

Xueren Wang, Zijie Zou, Hongfu Qiang, Yiyi Li et al.
Polymer Composites
Composite Material Mechanics
article

The interface dewetting process of particulate filled polymer composite

Xueren Wang, Zijie Zou, Hongfu Qiang, Yiyi Li, Baolin Pei, Fengtao Zhang
article en

Abstract

Abstract Dewetting is one of the most common damage modes in particulate filled polymer composite, which greatly damages the structural integrity of the composite and leads to the deterioration of its mechanical properties. Studying the dewetting evolution process of composite is of great significance for evaluating the meso damage degree of composite and suppressing the development of dewetting damage. This article constructs an axisymmetric cylindrical cell model of a single particle inclusion matrix, derives the interface dewetting evolution process of the model under uniaxial tensile loading condition, and analyzes the influence of model geometric parameters and external loading conditions on the dewetting process. Subsequently, numerical models were constructed at both micro and meso scales, and dynamic tensile calculations were performed to analyze the correlation between the dewetting rate, porosity, and mechanical performance. Finally, a cylindrical cell specimen was designed to observe the interface dewetting evolution under uniaxial tensile conditions, confirming the conclusions of theoretical analysis and numerical simulation. Highlights Constructed a theoretical model for the dewetting process of interface. Conducted numerical analysis of dewetting process at both meso and micro scales. Designed interface dewetting experiment and analyzed the dewetting process.

Polymer CompositesVol. 46(2)
PLA Rocket Force University of Engineering (CN)
Key Science and Technology Program of Shaanxi Province
Openalex Percentile: Top 83%
Composite Material Mechanics
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