AbstractIn this paper, we present a general method for the calculation of the various stress intensity factors in a material whose constitutive law is elastic, linear and varies continuously in space. The approach used to predict the stress intensity factors is an extension of the interaction integral method. For this type of material, we also develop a systematic method to derive the asymptotic displacement fields and use it to achieve better-quality results. A new analytical asymptotic field is given for two special cases of graded materials. Numerical examples focus on materials with space-dependent Young modulus
Crack tip stress, strain and displacement fields for a propagating crack along the direction of prop...
AbstractDynamic stress intensity factors (DSIFs) are important fracture parameters in understanding ...
The objective of this work is to present a numerical modeling of crack propagation path in functiona...
AbstractIn this paper, we present a general method for the calculation of the various stress intensi...
AbstractTransient mixed-mode elastodynamic crack growth along arbitrary smoothly varying paths in fu...
Stress intensity factors are calculated for long plane cracks with one tip interacting with a region...
Quasi-static stress fields for a crack inclined to the direction of property gradation in functional...
AbstractAn interaction (energy) integral is derived for the computation of mixed-mode stress intensi...
Abstract. This paper revisits the interaction integral method to evaluate both the mixed-mode stress...
AbstractThree-dimensional enriched finite elements are used to compute mixed-mode stress intensity f...
We consider coupled structures consisting of two different linear elastic materials bonded along an...
Stress field for stationary cracks, aligned along the gradient, in functionally graded materials is ...
Functionally graded materials (FGM) are characterised by variations in their material properties in ...
The contour integral method is extended to general boundary value problems involving imperfect bondi...
We consider coupled structures consisting of two different linear elastic materials bonded along an ...
Crack tip stress, strain and displacement fields for a propagating crack along the direction of prop...
AbstractDynamic stress intensity factors (DSIFs) are important fracture parameters in understanding ...
The objective of this work is to present a numerical modeling of crack propagation path in functiona...
AbstractIn this paper, we present a general method for the calculation of the various stress intensi...
AbstractTransient mixed-mode elastodynamic crack growth along arbitrary smoothly varying paths in fu...
Stress intensity factors are calculated for long plane cracks with one tip interacting with a region...
Quasi-static stress fields for a crack inclined to the direction of property gradation in functional...
AbstractAn interaction (energy) integral is derived for the computation of mixed-mode stress intensi...
Abstract. This paper revisits the interaction integral method to evaluate both the mixed-mode stress...
AbstractThree-dimensional enriched finite elements are used to compute mixed-mode stress intensity f...
We consider coupled structures consisting of two different linear elastic materials bonded along an...
Stress field for stationary cracks, aligned along the gradient, in functionally graded materials is ...
Functionally graded materials (FGM) are characterised by variations in their material properties in ...
The contour integral method is extended to general boundary value problems involving imperfect bondi...
We consider coupled structures consisting of two different linear elastic materials bonded along an ...
Crack tip stress, strain and displacement fields for a propagating crack along the direction of prop...
AbstractDynamic stress intensity factors (DSIFs) are important fracture parameters in understanding ...
The objective of this work is to present a numerical modeling of crack propagation path in functiona...