This paper presents two crystal plasticity based computational constitutive models for the intrinsic formation of plastic microstructure during monotonic loading and its altered evolution under strain path changes in metal forming operations. The formation step is modeled via a non-convex strain gradient crystal plasticity framework which could simulate the intrinsic development of the plastic microstructures. The evolution under strain path changes is modeled via phenomenologically based constitutive equations incorporated into crystal plasticity framework. The latter is capable of simulating the transient anisotropy effects (e.g. cross hardening, Bauschinger effect) depending on the change in the strain path. The paper discusses the unifi...
Metals mostly occur in polycrystalline form where each grain has a different crystallographic orient...
A multi-scale model that allows to predict the evolution of the crystallographic texture and the cor...
International audienceThis chapter discusses several types of numerical models for metallurgical evo...
This paper presents two crystal plasticity based computational constitutive models for the intrinsic...
In this study we investigate how to incorporate micro-scale physical phenomena into simulations on a...
A model is proposed that deals with the transient mechanical anisotropy during strain-path changes i...
This work focuses on the modeling of the evolution of anisotropy induced by the development of the d...
Metal forming processes typically involve changes of strain paths, which are accompanied by transien...
In this paper we present a Hierarchical Multi-Scale (HMS) model of coupled evolutions of crystallogr...
Sheet metal forming processes are within the core of many modern manufacturing technologies, as appl...
Multi-scale modelling offers physical insights in the relationship between microstructure and proper...
A change in strain path has a significant effect on the mechanical response of metals. Strain path c...
Due to the absence of sufficient number of slip systems in hexagonal close packed (hcp) metals to ac...
Finite element models for metal forming are used to design and optimise industrial forming processes...
Metals mostly occur in polycrystalline form where each grain has a different crystallographic orient...
A multi-scale model that allows to predict the evolution of the crystallographic texture and the cor...
International audienceThis chapter discusses several types of numerical models for metallurgical evo...
This paper presents two crystal plasticity based computational constitutive models for the intrinsic...
In this study we investigate how to incorporate micro-scale physical phenomena into simulations on a...
A model is proposed that deals with the transient mechanical anisotropy during strain-path changes i...
This work focuses on the modeling of the evolution of anisotropy induced by the development of the d...
Metal forming processes typically involve changes of strain paths, which are accompanied by transien...
In this paper we present a Hierarchical Multi-Scale (HMS) model of coupled evolutions of crystallogr...
Sheet metal forming processes are within the core of many modern manufacturing technologies, as appl...
Multi-scale modelling offers physical insights in the relationship between microstructure and proper...
A change in strain path has a significant effect on the mechanical response of metals. Strain path c...
Due to the absence of sufficient number of slip systems in hexagonal close packed (hcp) metals to ac...
Finite element models for metal forming are used to design and optimise industrial forming processes...
Metals mostly occur in polycrystalline form where each grain has a different crystallographic orient...
A multi-scale model that allows to predict the evolution of the crystallographic texture and the cor...
International audienceThis chapter discusses several types of numerical models for metallurgical evo...