In this work we address several theoretical and computational issues which are related to the thermomechanical modeling of shape memory alloy materials. More specifically, in this paper we revisit a non-isothermal version of the theory of large deformation generalized plasticity which is suitable for describing the multiple and complex mechanisms occurring in these materials during phase transformations. We also discuss the computational implementation of a generalized plasticity based constitutive model and we demonstrate the ability of the theory in simulating the basic patterns of the experimentally observed behavior by a set of representative numerical examples
Tension-compression tests at different room temperatures and at different strain rates have been per...
Shape Memory Alloys (SMA) exhibit a complex thermomechanical behavior induced by the occurrence of p...
Our aim is to examine from the continuum thermodynamic point of view, some models predicting the pse...
In this work we address several theoretical and computational issues which are related to the thermo...
AbstractIn the present work we propose a new thermomechanically coupled material model for shape mem...
The remarkable properties of shape memory alloys have facilitated their applications in many areas o...
This article deals with the geometrically linear and nonlinear modeling of martensitic phase transit...
The remarkable properties of shape memory alloys have facilitated their applications in many areas o...
A MICROMECHANICS constitutive model has been proposed in this paper to describe the pseudoelastic an...
The phase transformation phenomenon due to the crystallographic change of shape memory alloys subjec...
International audienceThis paper presents a new thermomechanically coupled constitutive model for po...
AbstractIn this work we derive a new version of generalized plasticity theory, suitable to describe ...
This paper presents the shape memory phenomena, and their crystallographical background. Furthermor...
Many models simulating the behavior of Shape Memory Alloys (SMA) exist nowadays, in the one or three...
Due to strong thermo-mechanical coupling in shape memory alloys (SMAs), heat generation/absorption d...
Tension-compression tests at different room temperatures and at different strain rates have been per...
Shape Memory Alloys (SMA) exhibit a complex thermomechanical behavior induced by the occurrence of p...
Our aim is to examine from the continuum thermodynamic point of view, some models predicting the pse...
In this work we address several theoretical and computational issues which are related to the thermo...
AbstractIn the present work we propose a new thermomechanically coupled material model for shape mem...
The remarkable properties of shape memory alloys have facilitated their applications in many areas o...
This article deals with the geometrically linear and nonlinear modeling of martensitic phase transit...
The remarkable properties of shape memory alloys have facilitated their applications in many areas o...
A MICROMECHANICS constitutive model has been proposed in this paper to describe the pseudoelastic an...
The phase transformation phenomenon due to the crystallographic change of shape memory alloys subjec...
International audienceThis paper presents a new thermomechanically coupled constitutive model for po...
AbstractIn this work we derive a new version of generalized plasticity theory, suitable to describe ...
This paper presents the shape memory phenomena, and their crystallographical background. Furthermor...
Many models simulating the behavior of Shape Memory Alloys (SMA) exist nowadays, in the one or three...
Due to strong thermo-mechanical coupling in shape memory alloys (SMAs), heat generation/absorption d...
Tension-compression tests at different room temperatures and at different strain rates have been per...
Shape Memory Alloys (SMA) exhibit a complex thermomechanical behavior induced by the occurrence of p...
Our aim is to examine from the continuum thermodynamic point of view, some models predicting the pse...