Finite Element (FE) modeling technology is one of the most powerful tools to design new products (i.e. autobody parts, rigid packaging, aerospace components, appliances, etc.) and processes. Among other features, the material description is an important input to the FE models. This work describes a methodology that provides phenomenological constitutive equations based on the main microstructure components of aluminum alloys including crystallographic texture, dislocation density and precipitate particle distribution. An example constitutive equation with its application to numerical sheet forming process analysis is provided in this work
Two types of anisotropy have been introduced in the Marciniak model for the prediction of forming li...
The plastic properties of an aluminium alloy are defined by its microstructure. The most important f...
The deep drawing of an aluminum alloy used in the packaging industry for the beverage can manufactur...
Finite element modeling (FEM) technology is one of the most powerful tools to design new processes a...
With advances in computer hardware and software, it is possible to model material processing, produc...
A constitutive model for aluminum alloys under hot working conditions is proposed. The elastic-visco...
International audienceFinite element formulations are commonly used to predict stress, strain and te...
Continuum constitutive descriptions of plasticity suitable for finite element simulations of sheet f...
Minimization of response times and costs and maximization of the efficiency and quality in producing...
Continuum constitutive descriptions of plasticity suitable for finite element simulations of sheet f...
Finite element models for metal forming are used to design and optimise industrial forming processes...
Abstract. This paper reviews aspects of the plastic behaviour common in sheet metals. Macroscopic an...
The paper proposes an original use of the Lagrangian particles concept for finite element computatio...
Abstract — A method is presented that incorporates microstructural information into a model of the m...
The plastic properties of an aluminium alloy are defined by its microstructure. The most important f...
Two types of anisotropy have been introduced in the Marciniak model for the prediction of forming li...
The plastic properties of an aluminium alloy are defined by its microstructure. The most important f...
The deep drawing of an aluminum alloy used in the packaging industry for the beverage can manufactur...
Finite element modeling (FEM) technology is one of the most powerful tools to design new processes a...
With advances in computer hardware and software, it is possible to model material processing, produc...
A constitutive model for aluminum alloys under hot working conditions is proposed. The elastic-visco...
International audienceFinite element formulations are commonly used to predict stress, strain and te...
Continuum constitutive descriptions of plasticity suitable for finite element simulations of sheet f...
Minimization of response times and costs and maximization of the efficiency and quality in producing...
Continuum constitutive descriptions of plasticity suitable for finite element simulations of sheet f...
Finite element models for metal forming are used to design and optimise industrial forming processes...
Abstract. This paper reviews aspects of the plastic behaviour common in sheet metals. Macroscopic an...
The paper proposes an original use of the Lagrangian particles concept for finite element computatio...
Abstract — A method is presented that incorporates microstructural information into a model of the m...
The plastic properties of an aluminium alloy are defined by its microstructure. The most important f...
Two types of anisotropy have been introduced in the Marciniak model for the prediction of forming li...
The plastic properties of an aluminium alloy are defined by its microstructure. The most important f...
The deep drawing of an aluminum alloy used in the packaging industry for the beverage can manufactur...