The combination of high environmental resistance and excellent strength, elongation and energy absorption make austenitic stainless steels potentially attractive for transportation applications. In the case of metastable grades that undergo a strain induced martensitic transformation it is possible to significantly change the mechanical properties simply by changing the austenite grain size. Predicting such behaviour using physically based models is, however, extremely challenging. Here, some recent work on the coupling between grain size and mechanical response will be presented for a metastable AISI 301 LN stainless steel. Successes and continuing challenges will be highlighted
A physically based, macroscale constitutive model has been developed that can describe the complex m...
The transformation of the austenite to the martensite provides the transformation-induced plasticity...
The concept of phase reversion involving cold deformation of metastable austenite to generate strain...
Metastable austenitic stainless steels combine high formability and high strength, which are general...
There has recently been significant interest in the problem of variant selection in the strain-induc...
Austenitic metastable stainless steels have outstanding mechanical properties. Their mechanical beha...
Austenitic metastable stainless steels have outstanding mechanical properties. Their mechanical beha...
Austenitic metastable stainless steels have outstanding mechanical properties. Their mechanical beha...
The influence of the austenitic grain size on the overall stress-strain behavior in a multiphase car...
The influence of the austenitic grain size on the overall stress-strain behavior in a multiphase car...
Mechanically induced martensitic transformation and the associated transformation plasticity phenome...
Mechanically induced martensitic transformation and the associated transformation plasticity phenome...
The influence of the austenitic grain size on the overall stress-strain behavior in a multiphase car...
The influence of the austenitic grain size on the overall stress-strain behavior in a multiphase car...
The influence of the austenitic grain size on the overall stress-strain behavior in a multiphase car...
A physically based, macroscale constitutive model has been developed that can describe the complex m...
The transformation of the austenite to the martensite provides the transformation-induced plasticity...
The concept of phase reversion involving cold deformation of metastable austenite to generate strain...
Metastable austenitic stainless steels combine high formability and high strength, which are general...
There has recently been significant interest in the problem of variant selection in the strain-induc...
Austenitic metastable stainless steels have outstanding mechanical properties. Their mechanical beha...
Austenitic metastable stainless steels have outstanding mechanical properties. Their mechanical beha...
Austenitic metastable stainless steels have outstanding mechanical properties. Their mechanical beha...
The influence of the austenitic grain size on the overall stress-strain behavior in a multiphase car...
The influence of the austenitic grain size on the overall stress-strain behavior in a multiphase car...
Mechanically induced martensitic transformation and the associated transformation plasticity phenome...
Mechanically induced martensitic transformation and the associated transformation plasticity phenome...
The influence of the austenitic grain size on the overall stress-strain behavior in a multiphase car...
The influence of the austenitic grain size on the overall stress-strain behavior in a multiphase car...
The influence of the austenitic grain size on the overall stress-strain behavior in a multiphase car...
A physically based, macroscale constitutive model has been developed that can describe the complex m...
The transformation of the austenite to the martensite provides the transformation-induced plasticity...
The concept of phase reversion involving cold deformation of metastable austenite to generate strain...