AbstractThe nonlinear partial differential equations considered here arise from the conservation laws of linear momentum and energy, and describe structural phase transitions in one-dimensional shape memory solids with non-convex Landau–Ginzburg free energy potentials. In this article the theories of analytic semigroups and real interpolation spaces for maximal accretive operators are used to show that the solutions of the model depend continuously on the admissible parameters. Also, we show that the non-physical parameters that define the free energy are identifiable from the model
AbstractWe shall prove the existence and the uniqueness of global classical solutions of the followi...
AbstractWe shall prove the existence and the uniqueness of global classical solutions of the followi...
We consider a strongly nonlinear PDE system describing solid-solid phase transitions in shape memory...
AbstractThe nonlinear partial differential equations considered here arise from the conservation law...
We propose a model to describe non-isothermal transitions from the austenite to the martensite phase...
In this paper, a system of partial differential equations modelling the dynamics of martensitic phas...
In this paper, a system of partial differential equations modelling the dynamics of martensitic phas...
. An algorithm for identification of unknown parameters of a LandauGinzburg model describing phase t...
In this paper the asymptotic behaviors for #gamma# #-># 0"+ of the following one-dimensional...
AbstractAn abstract formulation of a general mathematical model for the dynamics of shape memory all...
AbstractAn abstract formulation of a general mathematical model for the dynamics of shape memory all...
By means of the Ginzburg–Landau theory of phase transitions, we study a nonisothermal model to chara...
This paper deals with the finite element approximations of the Landau-Ginzburg model for structural ...
Modelling shape memory alloys is based on choosing state quantities E which involve the phase volume...
Modelling shape memory alloys is based on choosing state quantities $E$ which involve the phase vol...
AbstractWe shall prove the existence and the uniqueness of global classical solutions of the followi...
AbstractWe shall prove the existence and the uniqueness of global classical solutions of the followi...
We consider a strongly nonlinear PDE system describing solid-solid phase transitions in shape memory...
AbstractThe nonlinear partial differential equations considered here arise from the conservation law...
We propose a model to describe non-isothermal transitions from the austenite to the martensite phase...
In this paper, a system of partial differential equations modelling the dynamics of martensitic phas...
In this paper, a system of partial differential equations modelling the dynamics of martensitic phas...
. An algorithm for identification of unknown parameters of a LandauGinzburg model describing phase t...
In this paper the asymptotic behaviors for #gamma# #-># 0"+ of the following one-dimensional...
AbstractAn abstract formulation of a general mathematical model for the dynamics of shape memory all...
AbstractAn abstract formulation of a general mathematical model for the dynamics of shape memory all...
By means of the Ginzburg–Landau theory of phase transitions, we study a nonisothermal model to chara...
This paper deals with the finite element approximations of the Landau-Ginzburg model for structural ...
Modelling shape memory alloys is based on choosing state quantities E which involve the phase volume...
Modelling shape memory alloys is based on choosing state quantities $E$ which involve the phase vol...
AbstractWe shall prove the existence and the uniqueness of global classical solutions of the followi...
AbstractWe shall prove the existence and the uniqueness of global classical solutions of the followi...
We consider a strongly nonlinear PDE system describing solid-solid phase transitions in shape memory...