Modeling of the effective thermal conductivity of multi-phase particle and core-shell hybrid composites by homogenization method

Particle and core-shell composites are extensively used across various industries, with effective thermal conductivity (ETC) being a critical property. This paper introduces an novel approach to representative volume element (RVE) modeling for particle and core-shell reinforced composites with diverse microstructures. With the RVEs created, the steady-state heat transfer simulation is performed. Simulation results yield a dynamic weighted arithmetic mean (DWAM) model with an average error of just 0.71%, for predicting the ETC of two-phase particle-reinforced composites. Additionally, we develop the union homogenization model (UHM) to extend the DWAM model to multi-phase particle and core-shell hybrid composites. The UHM demonstrates superior accuracy, with an average error below 3%, compared to the commonly used models. This work provides a novel model for more precise ETC prediction in particle and core-shell hybrid composites.

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Publication Details

Journal
International Communications in Heat and Mass Transfer
Published
2024-09-13
DOI
https://doi.org/10.1016/j.icheatmasstransfer.2024.108018
Citations
6
Primary Topic
Composite Material Mechanics
Type
article
Field-Weighted Citation Impact
1.62

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article

Modeling of the effective thermal conductivity of multi-phase particle and core-shell hybrid composites by homogenization method

Yong Qi Xie, Qin‐Zhi Fang, Xingwei Yan, Yang Hu et al.
6 citations
International Communications in Heat and Mass Transfer
Composite Material Mechanics
1.62
article

Modeling of the effective thermal conductivity of multi-phase particle and core-shell hybrid composites by homogenization method

Yong Qi Xie, Qin‐Zhi Fang, Xingwei Yan, Yang Hu, Qingqing Xin
article en
6 citations

Abstract

Particle and core-shell composites are extensively used across various industries, with effective thermal conductivity (ETC) being a critical property. This paper introduces an novel approach to representative volume element (RVE) modeling for particle and core-shell reinforced composites with diverse microstructures. With the RVEs created, the steady-state heat transfer simulation is performed. Simulation results yield a dynamic weighted arithmetic mean (DWAM) model with an average error of just 0.71%, for predicting the ETC of two-phase particle-reinforced composites. Additionally, we develop the union homogenization model (UHM) to extend the DWAM model to multi-phase particle and core-shell hybrid composites. The UHM demonstrates superior accuracy, with an average error below 3%, compared to the commonly used models. This work provides a novel model for more precise ETC prediction in particle and core-shell hybrid composites.

International Communications in Heat and Mass TransferVol. 159
Jilin University (CN), Ningxia University (CN), Xi'an Jiaotong University (CN)
Innovative Research Group Project of the National Natural Science Foundation of China, National Natural Science Foundation of China
Affordable and clean energy
Openalex Percentile: Top 19%
Composite Material Mechanics
1.62
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