Orientation dependence of strain stored energy and its effect on recrystallization texture in non-oriented silicon steel

The crystal plasticity finite element simulation and experiment were used to study the orientation flow and strain stored energy accumulation of different initial texture components during cold rolling in non-oriented silicon steel. The results show that strong α and γ as well as weak λ deformation...

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Main Authors: CHU Shuang-jie, SHEN Kan-yi, SHA Yu-hui, CHEN Xi
Format: Article
Language:zho
Published: Journal of Materials Engineering 2019-08-01
Series:Cailiao gongcheng
Subjects:
Online Access:http://jme.biam.ac.cn/CN/Y2019/V47/I8/147
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author CHU Shuang-jie
SHEN Kan-yi
SHA Yu-hui
CHEN Xi
author_facet CHU Shuang-jie
SHEN Kan-yi
SHA Yu-hui
CHEN Xi
author_sort CHU Shuang-jie
collection DOAJ
description The crystal plasticity finite element simulation and experiment were used to study the orientation flow and strain stored energy accumulation of different initial texture components during cold rolling in non-oriented silicon steel. The results show that strong α and γ as well as weak λ deformation textures are formed after cold rolling. The recrystallization texture consists of γ, α, η and λ components, whose orientation densities are dependent on cold rolling reduction. With the increase of cold rolling reduction, λ recrystallization texture increases gradually, η recrystallization texture increases first and then decreases, γ recrystallization texture decreases first and then increases, while α recrystallization texture is weakened slightly. The strain stored energy during cold rolling has a significant dependence on initial grain orientation that the initial γ orientation has a similar or evidently higher strain stored energy accumulation rate below or above 50% reduction compared with initial α orientation, while λ keeps the lowest strain stored energy accumulation rate during cold rolling. Particularly, the different initial orientations rotating to an identical deformed orientation may cause an obvious difference in strain stored energy accumulation rate. The development of recrystallization texture in non-oriented silicon steel is determined by orientation flow and strain stored energy accumulation in various texture components during cold rolling.
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spelling doaj.art-f6ac8e58bc5b433ca6c5b3fb467bc3632023-01-02T22:55:37ZzhoJournal of Materials EngineeringCailiao gongcheng1001-43811001-43812019-08-0147814715310.11868/j.issn.1001-4381.2018.000541201908000541Orientation dependence of strain stored energy and its effect on recrystallization texture in non-oriented silicon steelCHU Shuang-jie0SHEN Kan-yi1SHA Yu-hui2CHEN Xi3Baoshan Iron & Steel Co., Ltd., Shanghai 201900, ChinaBaoshan Iron & Steel Co., Ltd., Shanghai 201900, ChinaKey Laboratory for Anisotropy and Texture of Materials(Ministry of Education), Northeastern University, Shenyang 110819, ChinaKey Laboratory for Anisotropy and Texture of Materials(Ministry of Education), Northeastern University, Shenyang 110819, ChinaThe crystal plasticity finite element simulation and experiment were used to study the orientation flow and strain stored energy accumulation of different initial texture components during cold rolling in non-oriented silicon steel. The results show that strong α and γ as well as weak λ deformation textures are formed after cold rolling. The recrystallization texture consists of γ, α, η and λ components, whose orientation densities are dependent on cold rolling reduction. With the increase of cold rolling reduction, λ recrystallization texture increases gradually, η recrystallization texture increases first and then decreases, γ recrystallization texture decreases first and then increases, while α recrystallization texture is weakened slightly. The strain stored energy during cold rolling has a significant dependence on initial grain orientation that the initial γ orientation has a similar or evidently higher strain stored energy accumulation rate below or above 50% reduction compared with initial α orientation, while λ keeps the lowest strain stored energy accumulation rate during cold rolling. Particularly, the different initial orientations rotating to an identical deformed orientation may cause an obvious difference in strain stored energy accumulation rate. The development of recrystallization texture in non-oriented silicon steel is determined by orientation flow and strain stored energy accumulation in various texture components during cold rolling.http://jme.biam.ac.cn/CN/Y2019/V47/I8/147non-oriented silicon steelrecrystallization texturestrain stored energyorientation flow
spellingShingle CHU Shuang-jie
SHEN Kan-yi
SHA Yu-hui
CHEN Xi
Orientation dependence of strain stored energy and its effect on recrystallization texture in non-oriented silicon steel
Cailiao gongcheng
non-oriented silicon steel
recrystallization texture
strain stored energy
orientation flow
title Orientation dependence of strain stored energy and its effect on recrystallization texture in non-oriented silicon steel
title_full Orientation dependence of strain stored energy and its effect on recrystallization texture in non-oriented silicon steel
title_fullStr Orientation dependence of strain stored energy and its effect on recrystallization texture in non-oriented silicon steel
title_full_unstemmed Orientation dependence of strain stored energy and its effect on recrystallization texture in non-oriented silicon steel
title_short Orientation dependence of strain stored energy and its effect on recrystallization texture in non-oriented silicon steel
title_sort orientation dependence of strain stored energy and its effect on recrystallization texture in non oriented silicon steel
topic non-oriented silicon steel
recrystallization texture
strain stored energy
orientation flow
url http://jme.biam.ac.cn/CN/Y2019/V47/I8/147
work_keys_str_mv AT chushuangjie orientationdependenceofstrainstoredenergyanditseffectonrecrystallizationtextureinnonorientedsiliconsteel
AT shenkanyi orientationdependenceofstrainstoredenergyanditseffectonrecrystallizationtextureinnonorientedsiliconsteel
AT shayuhui orientationdependenceofstrainstoredenergyanditseffectonrecrystallizationtextureinnonorientedsiliconsteel
AT chenxi orientationdependenceofstrainstoredenergyanditseffectonrecrystallizationtextureinnonorientedsiliconsteel