Randomized trial demonstrates improved thermal conductivity and corrosion resistance in epoxy coatings, suggesting an effective approach for industrial applications.
The development of multifunctional epoxy coatings integrating high thermal conductivity and robust corrosion resistance remains a critical challenge for industrial applications. This study introduces a synergistic modification approach employing polydopamine (PDA) and fluorosilanes (FAS) to functionalize boron nitride/graphene oxide (BN/GO) hybrids, referred to as PFBG, for improved epoxy composite coatings. The PDA modification enhances filler dispersion and interfacial adhesion through noncovalent interactions, while fluorosilanes provide hydrophobicity for dynamic corrosion prevention. At a 10:1 BN:GO mass ratio and 20 wt % filler loading, the PFBG/EP coating demonstrates optimized performance: A thermal conductivity of 0.92 W/(m·K), representing a 360% improvement over pure epoxy (0.2 W/(m·K)), is ascribed to GO bridging BN sheets and PDA diminishing interfacial thermal resistance. Superior corrosion resistance demonstrated by a low-frequency impedance modulus of 1.1 × 1011 Ω·cm2 resulted from hydrophobic surfaces and prolonged diffusion paths. This study illustrates a scalable method for developing multifunctional coatings suitable for challenging thermal and corrosive environments.
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Liang et al. (2026) studied this question.
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