Journal of Physics D Applied Physics · 2002 · 53 citations · 14 references
EngineeringMaterials EngineeringMaterials ScienceFinite Element AnalysisFinite Element MethodsHeat TransferComposite MaterialsFiber-reinforced CompositesHeat ConductionHeat Transfer AnalysisHeat Transfer ModelingThermal Properties Of MaterialsComposite Thermal ResistanceFiber Thermal PropertiesFinite Difference SchemesFinite Difference SimulationHeat Conduction In Composite MaterialsThermal Barrier BehaviorThermally Conductive CompositesUnidirectional Composites
In this paper, an analytical expression for transverse thermal conductivities of unidirectional fibre composites with thermal barrier is derived based on the electrical analogy technique and on thecylindrical filament-square packing array unit cell model (C-S model). The present analytical expressions both with and without thermal barrier between fibre and matrix are presented. The present theoretical predictions without thermal barrier are found to be in excellent agreement with the existing analytical model and nomogram from the finite difference method (FDM), and in good agreement with existing experimental data. Furthermore, the present analytical predictions with thermal barrier can best fit the experimental data and can provide a higher accuracy than the finite element method (FEM). The validity of the present analytical solution is thus verified for transverse thermal conductivities of unidirectional fibre composites with thermal barrier.
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