Microstructure development of steel during severe plastic deformation

被引:0
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作者
Setsuo Takaki
Toshihiro Tsuchiyama
Koichi Nakashima
Hideyuki Hidaka
Kenji Kawasaki
Yuichi Futamura
机构
[1] Kyushu University,Department of Materials Science and Engineering
[2] Kyushu University,Department of Materials Science and Engineering
[3] NSK Ltd.,Corporate Research and Development Center
[4] Kyushu University,Graduate Student of Engineering
[5] Mitsubishi Heavy Industries Ltd.,Takasago Research and Development Center
来源
关键词
severe plastic deformation; microstructure development; ultra grain refinement; dislocation strengthening; grain refinement strengthening;
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摘要
The microstructure development during plastic deformation was reviewed for iron and steel which were subjected to cold rolling or mechanical milling (MM) treatment, and the change in strengthening mechanism caused by the severe plastic deformation (SPD) was also discussed in terms of ultra grain refinement behavior. The microstructure of cold-rolled iron is characterized by a typical dislocation cell structure, where the strength can be explained by dislocation strengthening. It was confirmed that the increase in dislocation density by cold working is limited at 1016m−2, which means the maximum hardness obtained by dislocation strengthening is HV3.7 GPa. However, the iron is abnormally work-hardened over the maximum dislocation strengthening by SPD of MM because of the ultra grain refinement caused by the SPD. In addition, impurity of carbon plays an important role in such grain refinement: the carbon addition leads to the formation of nano-crystallized structure in iron.
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页码:533 / 539
页数:6
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