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Strain energy release rates of interface cracks in orthotropic layered beams

✍ Scribed by H. E. Ang; J. F. Torrance; C. L. Tan


Publisher
Springer Netherlands
Year
1995
Tongue
English
Weight
329 KB
Volume
72
Category
Article
ISSN
1573-2673

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Strain energy release rates for an inter
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Strain energy release rate (SERR) components for an interface crack in two-dimensional orthotropic media were obtained using finite element (FE) analysis. The elastic analysis of interface cracks results in oscillatory singularity. This is prevalent over a very small zone near the crack-tip, where t

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Strain energy release rates have been calculated by Finite Element Analysis (FEA) for growth of a small crack in a cylindrical rubber block under tension. The crack was assumed to lie in the center of the block in a plane perpendicular to its axis. The rubber was taken to be virtually incompressible

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## W-In this paper, the efht of couple-stresses on the strain energy release rate for an interface crack is examined. An internal pressure is applied on surfaces of the crack situated between two dissimilar half-planes. The oscillatory stress singularities and material overlappings usually appear

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## Abstract Griffith's fracture criterion describes in a quasistatic setting whether or not a pre‐existing crack in an elastic body is stationary for given external forces. In terms of the energy release rate (ERR), which is the derivative of the deformation energy of the body with respect to a vir