Factors Affecting the Transverse Tensile Strength of Unidirectional Continuous Silicon Carbide Fibre Reinforced 6061 Aluminum
- 1 July 1990
- journal article
- research article
- Published by SAGE Publications in Journal of Composite Materials
- Vol. 24 (7) , 707-726
- https://doi.org/10.1177/002199839002400702
Abstract
A study of the micromechanics of continuous silicon carbide fibre rein forced 6061 aluminum has been carried out using generalised plane strain non-linear finite element analysis. An interface element has been developed enabling separate shear and tensile strengths to be assigned, with a quadratic interaction equation. Residual stresses due to manufacturing were included in the analysis. The effect on transverse tensile strength of fibre packing geometry, fibre spacing, resid ual stresses, interface strengths and matrix material properties were investigated. It was found that the interface strength is the most important factor. Residual stresses are beneficial, these being largely controlled by the yield strength of the matrix material at the time the residual stresses are set up. Fibre packing and spacing and matrix strength do not significantly affect predicted strength.Keywords
This publication has 7 references indexed in Scilit:
- Fibre anisotropic thermal expansion and residual thermal stress in a graphite/aluminium compositeComposites, 1988
- Failure Criteria for Unidirectional Fiber CompositesJournal of Applied Mechanics, 1980
- A micromechanical analysis of crack propagation in an elastoplastic composite materialFibre Science and Technology, 1974
- Theoretical Post-Yielding Behavior of Composite Laminates Part I—Inelastic MicromechanicsJournal of Composite Materials, 1973
- Investigation of bond failure in fibre-reinforced materials by the finite element methodFibre Science and Technology, 1972
- Inelastic Analysis of a Unidirectional Composite Subjected to Transverse Normal LoadingJournal of Composite Materials, 1970
- Transverse Normal Loading of a Unidirectional CompositeJournal of Composite Materials, 1967