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

A. Ríos; A. Martín-Meizoso

doi:10.4028/www.scientific.net/AMR.59.158

Paper Titles

Influence of Different Deposition Parameters on the Performance of a Ti-Ta-C Interface Layer in SiC-Fiber Reinforced Copper Matrix Composites
p.138

Diamond Composites for Power Electronics Application
p.143

Effect of Fibre Anisotropy on Composite Thermal Conductivity
p.148

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

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

Abstract:

A micromechanical model is employed to investigate the influence of the interface between the fibre and the matrix of a metal matrix composite with long fibre, which is elaborated through finite element method. Also, transverse properties of composite are studied in the present work. The interface, between the fibre and the matrix, is studied employing cohesive elements. These elements employ a cohesive zone model, which follows a bilinear law.