This paper shows how shear bands which are produced by slip, and are initially of the width of microbands in interstitial free (IF) steel, thicken to the order of 5-7 times the thickness of microbands. The process involves the operation of two shear bands shearing in opposite senses. The importance of this process is that it is capable of increasing the misorientation of the shear band material such that in principle, shear bands can provide nuclei for recrystallization. This reconciles the observation that sometimes shear band nucleation is observed, while in others, it does not happen. © 2006 ISIJ.link_to_subscribed_fulltex
The deformation banding model predicts γ fiber orientations which are mutually rotated with respect ...
At low cold rolling reductions microbands form in grains which have either 〈1 1 0〉 or 〈1 1 1〉 parall...
Three types of AZ31 alloy samples, numbered with A, B, C, with various texture and microstructure co...
The mechanisms of shear band formation in IF steel after cold rolling to 50% reductions have been in...
When IF steel is rolled to 75% reduction in a single pass at elevated temperatures within the ferrit...
The rolling texture of Body Centered Cubic (BCC) low carbon and interstitial free (IF) steel consist...
The development of the cold rolling microstructure in an Interstitial-Free (IF) steel has been syste...
The rolling texture of Body Centered Cubic (BCC) low carbon and interstitial free (IF) steel consist...
The mechanism of the shear band formation in the high cold rolled body-centred cubic (BCC) metal is ...
Microbands form at rolling strains of ∼10% in IF steels and are of lenticular shape. Transmission el...
Strain localization is inevitable during the rolling process and this manifests itself most clearly ...
Microband formation in an IF steel during cold rolling at low strain levels (ε≤9.8 %) has been inves...
Shear bands are planar regions of microstructure that have undergone collective shape change by simp...
This paper is dedicated to the memory of Professor Sir Robert Honeycombe, who examined the first aut...
Microstructure development in an interstitial-free steel during cold rolling at low strain levels (ε...
The deformation banding model predicts γ fiber orientations which are mutually rotated with respect ...
At low cold rolling reductions microbands form in grains which have either 〈1 1 0〉 or 〈1 1 1〉 parall...
Three types of AZ31 alloy samples, numbered with A, B, C, with various texture and microstructure co...
The mechanisms of shear band formation in IF steel after cold rolling to 50% reductions have been in...
When IF steel is rolled to 75% reduction in a single pass at elevated temperatures within the ferrit...
The rolling texture of Body Centered Cubic (BCC) low carbon and interstitial free (IF) steel consist...
The development of the cold rolling microstructure in an Interstitial-Free (IF) steel has been syste...
The rolling texture of Body Centered Cubic (BCC) low carbon and interstitial free (IF) steel consist...
The mechanism of the shear band formation in the high cold rolled body-centred cubic (BCC) metal is ...
Microbands form at rolling strains of ∼10% in IF steels and are of lenticular shape. Transmission el...
Strain localization is inevitable during the rolling process and this manifests itself most clearly ...
Microband formation in an IF steel during cold rolling at low strain levels (ε≤9.8 %) has been inves...
Shear bands are planar regions of microstructure that have undergone collective shape change by simp...
This paper is dedicated to the memory of Professor Sir Robert Honeycombe, who examined the first aut...
Microstructure development in an interstitial-free steel during cold rolling at low strain levels (ε...
The deformation banding model predicts γ fiber orientations which are mutually rotated with respect ...
At low cold rolling reductions microbands form in grains which have either 〈1 1 0〉 or 〈1 1 1〉 parall...
Three types of AZ31 alloy samples, numbered with A, B, C, with various texture and microstructure co...