FEM Modeling of Structure and Properties of Diamond-SiC-(Al) Composites Developed for Thermal Management Applications

Paulina Unifantowicz; T. Boguszewski; Łukas Ciupiński; E. Fortuna; Małgorzata Lewandowska; Sebastien Vaucher; Krzysztof Jan Kurzydlowski

doi:10.4028/www.scientific.net/AMR.59.173

Paper Titles

Synthesis and Analysis of the Thermal Behavior of SiC-Fibre Reinforced Copper Matrix Composites as Heat Sink Material
p.153

Micromechanical Model of Interface between Fibre and Matrix of Metal Matrix Composite Reinforced with Continuous Fibre
p.158

Thermomechanical Modelling of Copper Matrix Composites Reinforced with Tungsten Fibres
p.164

Fabrication and Properties of Copper/Carbon Composites for Thermal Management Applications
p.169

FEM Modeling of Structure and Properties of Diamond-SiC-(Al) Composites Developed for Thermal Management Applications
p.173

The Effects of Different Architectures on Thermal Fatigue in Particle Reinforced MMC for Heat Sink Applications
p.177

Preparation of Functionally Graded W/Cu Interlayers and Brazing to CuCrZr and CFC for Actively Cooled Flat Tile Divertor Mock-Ups
p.185

Brazing Technology for Plasma Facing Components in Nuclear Fusion Applications Using Low and Graded CTE Interlayers
p.192

Stress State, Texture, Phase and Morphology Analysis of Thin Graded W/Cu Coatings on Tungsten and their Thermal Behaviour in Fusion Application
p.198

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FEM Modeling of Structure and Properties of Diamond-SiC-(Al) Composites Developed for Thermal Management Applications

Abstract:

Thermal management materials frequently have multi-phase composite character with complex architecture of the constituents. As a result, design rules are needed which can be used in selection of the phases and optimizing their volume fractions. The study shows that such are provided by finite element modeling of these composites. This is demonstrated for a diamond-SiC-Si-(Al) composites, which have been optimized in terms of the volume fraction of SiC, contact area between the components and presence of open porosity.