This brief provides guidance for the application of cohesive models to determine damage and fracture in materials and structural components. This can be done for configurations with or without a pre-existing crack. Although the brief addresses structural behaviour, the methods described herein may also be applied to any deformation induced material damage and failure, e.g. those occurring during manufacturing processes. The methods described are applicable to the behaviour of ductile metallic materials and structural components made thereof. Hints are also given for applying the cohesive model to other materials
AbstractA damage-based cohesive model is developed for simulating crack growth due to fatigue loadin...
Cohesive zone elements for the modeling of fracture generally use fixed cohesive properties to descr...
The paper discusses an anisotropic continuum damage and failure model for ductile metals. The phenom...
Paper studies the prediction of the crack extension of the brittle and ductile fracture of the struc...
International audienceModeling the fracture of a material can take two different approaches. A first...
A cohesive zone model (CZM) is used for simulating ductile crack growth. Some new aspects and assump...
International audienceThe present work addresses the micromechanical modeling and the simulation of ...
This paper presents a cohesive zone model and explores its capacity for predicting crack growth in m...
This thesis concerns modeling ductile fracture using a cohesive zone model (CZM) and finite element ...
Damage behaviour of materials depends strongly on stress triaxiality and cannot be modelled with sim...
In the present paper, ductile crack growth in an aluminium alloy is numerically simulated using a co...
This paper introduces a three-dimensional (3D) simulation to model the elasto-plastic deformation of...
A new combined strategy to describe failure of quasi-brittle materials is presented thus allowing th...
AbstractThe process of micro-crack nucleation and the first stages of micro-meso-crack propagation a...
The micromechanical models of damage have found increasing interest. The general advantage, compared...
AbstractA damage-based cohesive model is developed for simulating crack growth due to fatigue loadin...
Cohesive zone elements for the modeling of fracture generally use fixed cohesive properties to descr...
The paper discusses an anisotropic continuum damage and failure model for ductile metals. The phenom...
Paper studies the prediction of the crack extension of the brittle and ductile fracture of the struc...
International audienceModeling the fracture of a material can take two different approaches. A first...
A cohesive zone model (CZM) is used for simulating ductile crack growth. Some new aspects and assump...
International audienceThe present work addresses the micromechanical modeling and the simulation of ...
This paper presents a cohesive zone model and explores its capacity for predicting crack growth in m...
This thesis concerns modeling ductile fracture using a cohesive zone model (CZM) and finite element ...
Damage behaviour of materials depends strongly on stress triaxiality and cannot be modelled with sim...
In the present paper, ductile crack growth in an aluminium alloy is numerically simulated using a co...
This paper introduces a three-dimensional (3D) simulation to model the elasto-plastic deformation of...
A new combined strategy to describe failure of quasi-brittle materials is presented thus allowing th...
AbstractThe process of micro-crack nucleation and the first stages of micro-meso-crack propagation a...
The micromechanical models of damage have found increasing interest. The general advantage, compared...
AbstractA damage-based cohesive model is developed for simulating crack growth due to fatigue loadin...
Cohesive zone elements for the modeling of fracture generally use fixed cohesive properties to descr...
The paper discusses an anisotropic continuum damage and failure model for ductile metals. The phenom...