RSC Advances · 2019 · 38 citations · 35 references
Natural SciencesMaterials EngineeringMaterials ScienceMaterials CharacterizationThermal AnalysisTribologyComposite MaterialsMetalsSteel MaterialsThermal Properties Of MaterialsTribological MaterialsWear ResistanceCopper AlloysFriction CoefficientFriction Coefficient ReductionGrapheneSelf-lubricating MaterialsThermal ConductivityThermal PropertiesWear
In this work, investigations were conducted to evaluate a type of graphene platelet-reinforced copper (GPL/Cu) composite for enhanced tribological and thermal properties. The pin-on-disc (steel) results show that the wear loss and the friction coefficient of the composites decrease by nearly 80% and 70%, respectively, in comparison with those of pure Cu. Thermal conductivity of the composites initially improves substantially by approximately 30% with a slight loading of 0.25 vol% GPLs and decreases gradually with a higher content of GPLs. Microstructural analysis reveals that the enhancement in the tribological property is attributed to both the self-lubricating property of GPLs and grain refinement while the improvement in the thermal property is closely associated with the uniform dispersion of GPLs.
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Thermal Properties of Graphene–Copper–Graphene Heterogeneous Films
Pradyumna Goli, Ning Hao, Xuesong Li et al. · Nano Letters · 2014 · 316 citations
Natural Sciences, Materials Engineering, Materials Science +17