The Influence of h-BN Distribution Behavior on the Electrothermal Properties of Bismaleimide Resin

Thermal conductive composite materials have excellent electrical insulation properties, low cost, and are lightweight, making them a promising alternative to traditional electronic packaging materials and enhancing the heat dissipation of integrated circuits. Due to the differences in specific surface area and volume, thermal conductive fillers have poor interface connections between the polymer and/or thermal conductive filler, thereby increasing phonon scattering and affecting thermal conductivity. This article uses bismaleimide resin as the matrix and h-BN as the thermal conductive filler. The evolution laws of thermal conductivity and dielectric properties of thermal conductive composite materials were systematically characterized through multi-scale filler control and gradient filling design. Among them, h-BN with a diameter of 10 μm has the most significant improvement in thermal conductivity. When the filling amount is 40 wt%, the thermal conductivity reaches 1.31 W/(m·K).

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Publication Details

Journal
Polymers
Published
2025-07-14
DOI
https://doi.org/10.3390/polym17141929
Primary Topic
Thermal properties of materials
Type
article
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article

The Influence of h-BN Distribution Behavior on the Electrothermal Properties of Bismaleimide Resin

Jiahao Shi, Weizhuo Li, Mingzhe Qu, Xuan Wang et al.
Polymers
Thermal properties of materials
article

The Influence of h-BN Distribution Behavior on the Electrothermal Properties of Bismaleimide Resin

Jiahao Shi, Weizhuo Li, Mingzhe Qu, Xuan Wang, Xiaoming Wang
article en

Abstract

Thermal conductive composite materials have excellent electrical insulation properties, low cost, and are lightweight, making them a promising alternative to traditional electronic packaging materials and enhancing the heat dissipation of integrated circuits. Due to the differences in specific surface area and volume, thermal conductive fillers have poor interface connections between the polymer and/or thermal conductive filler, thereby increasing phonon scattering and affecting thermal conductivity. This article uses bismaleimide resin as the matrix and h-BN as the thermal conductive filler. The evolution laws of thermal conductivity and dielectric properties of thermal conductive composite materials were systematically characterized through multi-scale filler control and gradient filling design. Among them, h-BN with a diameter of 10 μm has the most significant improvement in thermal conductivity. When the filling amount is 40 wt%, the thermal conductivity reaches 1.31 W/(m·K).

PolymersVol. 17(14)
Harbin University of Science and Technology (CN), Harbin University (CN), Harbin Engineering University (CN)
Affordable and clean energy
Openalex Percentile: Top 88%
Thermal properties of materials
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The Influence of h-BN Distribution Behavior on the Electrothermal Properties of Bismaleimide Resin — Jiahao Shi, Weizhuo Li, et al. · Polymers (2025) | TGRS Research Map | TGRS