AbstractThe present work focuses on testing of 316 L (N) steel in which varying degrees of multiaxiality are introduced with variation in the stress intensity factor, Kt. The specimens were tested under varying notch geometries at 873K and 300MPa. The stress distributions from the notch root to center of the specimen are explained with Finite Element Modeling calculations simulated later with ANSYS software. Correlation of the stress distribution with microstructural features is attempted to evaluate stress offloading due to multiaxiality
Materials creep resistance is usually determined under uniaxial constant load condition while the st...
This paper describes development of a combined tensiontorsion multiaxial creep testing apparatus for...
The aim of this study is to analyse the influence of both the microstructure and defects on the high...
AbstractThe present work focuses on testing of 316 L (N) steel in which varying degrees of multiaxia...
AbstractType 316 L (N) stainless steel is one of the construction materials for Pressurized Fast Bre...
AbstractCreep tests on 316 L (N) stainless steel notched specimens with varying notch acuity were ca...
AbstractCreep tests on both plain and notched specimens having ratio of notch throat radius to notch...
International audienceThis study is devoted to the effect of a multiaxial stress state and of pre-st...
Numerous components designed for use at elevated temperatures now exhibit multiaxial stress states a...
Many engineering components, such as power plant steam pipes, aero-engine turbine discs, etc, operat...
This paper describes a novel modelling process for creep crack growth prediction of a 316 stainless ...
ASME NH high-temperature design code put limits on inelastic strain. However,there are several argum...
AbstractCreep life prediction of modified 9Cr-1Mo steel under multiaxial state of stress has been ca...
The extension of the available stress-based predictive models from uniaxial to multiaxial feature is...
A new failure ductility/multiscale constraint strain-based model to predict creep damage, rupture an...
Materials creep resistance is usually determined under uniaxial constant load condition while the st...
This paper describes development of a combined tensiontorsion multiaxial creep testing apparatus for...
The aim of this study is to analyse the influence of both the microstructure and defects on the high...
AbstractThe present work focuses on testing of 316 L (N) steel in which varying degrees of multiaxia...
AbstractType 316 L (N) stainless steel is one of the construction materials for Pressurized Fast Bre...
AbstractCreep tests on 316 L (N) stainless steel notched specimens with varying notch acuity were ca...
AbstractCreep tests on both plain and notched specimens having ratio of notch throat radius to notch...
International audienceThis study is devoted to the effect of a multiaxial stress state and of pre-st...
Numerous components designed for use at elevated temperatures now exhibit multiaxial stress states a...
Many engineering components, such as power plant steam pipes, aero-engine turbine discs, etc, operat...
This paper describes a novel modelling process for creep crack growth prediction of a 316 stainless ...
ASME NH high-temperature design code put limits on inelastic strain. However,there are several argum...
AbstractCreep life prediction of modified 9Cr-1Mo steel under multiaxial state of stress has been ca...
The extension of the available stress-based predictive models from uniaxial to multiaxial feature is...
A new failure ductility/multiscale constraint strain-based model to predict creep damage, rupture an...
Materials creep resistance is usually determined under uniaxial constant load condition while the st...
This paper describes development of a combined tensiontorsion multiaxial creep testing apparatus for...
The aim of this study is to analyse the influence of both the microstructure and defects on the high...