Abstract
The goals envisioned for the current chapter are threefold. First, it gives a general overview of heat conduction in two-phase composite materials with three dimensional microstructures and interfacial thermal resistance. Second, it describes the application of homogenization theory to the multiscale heat conduction problem in the composite medium in order to derive the boundary-value problem defined on a representative volume element of the composite microstructure (the cell problem) and an expression for the composite effective thermal conductivity. Third, it describes a finite-element-based computational scheme to calculate the effective thermal conductivity of composite materials with general 3-D microstructures and interfacial thermal resistance. Numerical results for the effective conductivity are presented and, when possible, compared with available analytical predictions. The numerical results reported here confirm that computational approaches are a helpful tool for understanding the complex macroscopic thermal behavior of composite materials.
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Acknowledgement
M.E. Cruz would like to thank the Brazilian Council for Development of Science and Technology (CNPq) for Grants PQ-306592/2006-1 and APQ-471801/2004-6. The authors also thank Dr. Joachim Schöberl, from Johannes Kepler Universität Linz, Austria, for the free academic license of NETGEN 4.4.
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Matt, C.F., Cruz, M.E. (2010). Heat Conduction in Two-Phase Composite Materials with Three-Dimensional Microstructures and Interfacial Thermal Resistance. In: Öchsner, A., Murch, G. (eds) Heat Transfer in Multi-Phase Materials. Advanced Structured Materials, vol 2. Springer, Berlin, Heidelberg. https://doi.org/10.1007/8611_2010_10
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DOI: https://doi.org/10.1007/8611_2010_10
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