This paper addresses a physics based derivation of mode-I and mode-II traction separation relations in the context of cohesive zone modeling of ductile fracture of metallic materials. The formulation is based on the growth of an array of pores idealized as cylinders which are considered as therepresentative volume elements. An upper bound solution is applied for the deformation of the representative volume element and different traction-separation relations are obtained through different assumptions
International audienceModeling the fracture of a material can take two different approaches. A first...
AbstractA new traction–separation law that represents the constitutive relation of a ductile adhesiv...
This paper checks the consistency of some published exponential and bilinear mixed-mode cohesive zon...
This paper addresses the derivation of a micromechanically motivated incremental mixed-mode traction...
AbstractThis paper addresses the derivation of a micromechanically motivated incremental mixed-mode ...
In this paper, derivation and implementation of a micromechanically motivated traction separation la...
In the present paper, ductile crack growth in an aluminium alloy is numerically simulated using a co...
One of the fundamental aspects in cohesive zone modeling is the definition of the traction-separatio...
A cohesive zone model (CZM) is used for simulating ductile crack growth. Some new aspects and assump...
Following Barenblatt's idea about the modeling of cracks by the use of a cohesive zone has attracted...
which permits unrestricted use, distribution, and reproduction in any medium, provided the original ...
ABSTRACT: A cohesive zone, finite element fracture analysis is based upon a traction-separation rela...
Cohesive zone elements for the modeling of fracture generally use fixed cohesive properties to descr...
International audienceThe present work addresses the micromechanical modeling and the simulation of ...
The micromechanical models of damage have found increasing interest. The general advantage, compared...
International audienceModeling the fracture of a material can take two different approaches. A first...
AbstractA new traction–separation law that represents the constitutive relation of a ductile adhesiv...
This paper checks the consistency of some published exponential and bilinear mixed-mode cohesive zon...
This paper addresses the derivation of a micromechanically motivated incremental mixed-mode traction...
AbstractThis paper addresses the derivation of a micromechanically motivated incremental mixed-mode ...
In this paper, derivation and implementation of a micromechanically motivated traction separation la...
In the present paper, ductile crack growth in an aluminium alloy is numerically simulated using a co...
One of the fundamental aspects in cohesive zone modeling is the definition of the traction-separatio...
A cohesive zone model (CZM) is used for simulating ductile crack growth. Some new aspects and assump...
Following Barenblatt's idea about the modeling of cracks by the use of a cohesive zone has attracted...
which permits unrestricted use, distribution, and reproduction in any medium, provided the original ...
ABSTRACT: A cohesive zone, finite element fracture analysis is based upon a traction-separation rela...
Cohesive zone elements for the modeling of fracture generally use fixed cohesive properties to descr...
International audienceThe present work addresses the micromechanical modeling and the simulation of ...
The micromechanical models of damage have found increasing interest. The general advantage, compared...
International audienceModeling the fracture of a material can take two different approaches. A first...
AbstractA new traction–separation law that represents the constitutive relation of a ductile adhesiv...
This paper checks the consistency of some published exponential and bilinear mixed-mode cohesive zon...