Understanding crystallographic orientation, microstructure and mechanical properties dependent interaction between recrystallization and phase transformation of a Fe–Al–Mn–Mo–C dual-phase steel

The competition mechanism of ferritic recrystallization and austenitic transformation, nucleation and growth kinetics of different crystallographic orientation components during intercritical annealing of a cold-rolling Fe–Al–Mn–Mo–C deep drawing dual-phase steel were investigated by a series of con...

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Autores principales: Hongbo Pan, Weiming Liu, Huiting Wang, Yonggang Liu, Yaqiang Tian, Ke Chen, Xiaohui Shen, Hua Zhan, Xiangyang Mao, Yangyang Xiao, D.Y. Li
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Lenguaje:EN
Publicado: Elsevier 2021
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Acceso en línea:https://doaj.org/article/877159ae93e5411b853c15293f3f14b4
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spelling oai:doaj.org-article:877159ae93e5411b853c15293f3f14b42021-11-30T04:16:18ZUnderstanding crystallographic orientation, microstructure and mechanical properties dependent interaction between recrystallization and phase transformation of a Fe–Al–Mn–Mo–C dual-phase steel2238-785410.1016/j.jmrt.2021.11.064https://doaj.org/article/877159ae93e5411b853c15293f3f14b42021-11-01T00:00:00Zhttp://www.sciencedirect.com/science/article/pii/S2238785421013430https://doaj.org/toc/2238-7854The competition mechanism of ferritic recrystallization and austenitic transformation, nucleation and growth kinetics of different crystallographic orientation components during intercritical annealing of a cold-rolling Fe–Al–Mn–Mo–C deep drawing dual-phase steel were investigated by a series of continuous annealing simulation experiments. The experiments provided an insight into the microstructural characteristics and mechanical behaviors that were caused from the interaction of primary recrystallization and phase transformation. The results show that the promoting effect of austenite transformation is greater than that of ferrite recrystallization with the increase of temperature in the two-phase region, and an appropriate soaking time is contributed to the formation and development of {111} oriented grains. Austenite formation affects morphology and size of the microstructure owing to inhibiting ferrite recrystallization and growth. From these that experimental data of the observed temperature or time-dependent mechanical properties can be interpreted. An excellent comprehensive properties with tensile strength of 480 MPa and plastic strain ratio (r value) of 1.15 can be obtained at annealing temperature of 880 °C for 300 s.Hongbo PanWeiming LiuHuiting WangYonggang LiuYaqiang TianKe ChenXiaohui ShenHua ZhanXiangyang MaoYangyang XiaoD.Y. LiElsevierarticleDeep drawing dual-phase steelIntercritical annealingFerrite recrystallizationAustenite transformationMechanical propertiesMining engineering. MetallurgyTN1-997ENJournal of Materials Research and Technology, Vol 15, Iss , Pp 6190-6203 (2021)
institution DOAJ
collection DOAJ
language EN
topic Deep drawing dual-phase steel
Intercritical annealing
Ferrite recrystallization
Austenite transformation
Mechanical properties
Mining engineering. Metallurgy
TN1-997
spellingShingle Deep drawing dual-phase steel
Intercritical annealing
Ferrite recrystallization
Austenite transformation
Mechanical properties
Mining engineering. Metallurgy
TN1-997
Hongbo Pan
Weiming Liu
Huiting Wang
Yonggang Liu
Yaqiang Tian
Ke Chen
Xiaohui Shen
Hua Zhan
Xiangyang Mao
Yangyang Xiao
D.Y. Li
Understanding crystallographic orientation, microstructure and mechanical properties dependent interaction between recrystallization and phase transformation of a Fe–Al–Mn–Mo–C dual-phase steel
description The competition mechanism of ferritic recrystallization and austenitic transformation, nucleation and growth kinetics of different crystallographic orientation components during intercritical annealing of a cold-rolling Fe–Al–Mn–Mo–C deep drawing dual-phase steel were investigated by a series of continuous annealing simulation experiments. The experiments provided an insight into the microstructural characteristics and mechanical behaviors that were caused from the interaction of primary recrystallization and phase transformation. The results show that the promoting effect of austenite transformation is greater than that of ferrite recrystallization with the increase of temperature in the two-phase region, and an appropriate soaking time is contributed to the formation and development of {111} oriented grains. Austenite formation affects morphology and size of the microstructure owing to inhibiting ferrite recrystallization and growth. From these that experimental data of the observed temperature or time-dependent mechanical properties can be interpreted. An excellent comprehensive properties with tensile strength of 480 MPa and plastic strain ratio (r value) of 1.15 can be obtained at annealing temperature of 880 °C for 300 s.
format article
author Hongbo Pan
Weiming Liu
Huiting Wang
Yonggang Liu
Yaqiang Tian
Ke Chen
Xiaohui Shen
Hua Zhan
Xiangyang Mao
Yangyang Xiao
D.Y. Li
author_facet Hongbo Pan
Weiming Liu
Huiting Wang
Yonggang Liu
Yaqiang Tian
Ke Chen
Xiaohui Shen
Hua Zhan
Xiangyang Mao
Yangyang Xiao
D.Y. Li
author_sort Hongbo Pan
title Understanding crystallographic orientation, microstructure and mechanical properties dependent interaction between recrystallization and phase transformation of a Fe–Al–Mn–Mo–C dual-phase steel
title_short Understanding crystallographic orientation, microstructure and mechanical properties dependent interaction between recrystallization and phase transformation of a Fe–Al–Mn–Mo–C dual-phase steel
title_full Understanding crystallographic orientation, microstructure and mechanical properties dependent interaction between recrystallization and phase transformation of a Fe–Al–Mn–Mo–C dual-phase steel
title_fullStr Understanding crystallographic orientation, microstructure and mechanical properties dependent interaction between recrystallization and phase transformation of a Fe–Al–Mn–Mo–C dual-phase steel
title_full_unstemmed Understanding crystallographic orientation, microstructure and mechanical properties dependent interaction between recrystallization and phase transformation of a Fe–Al–Mn–Mo–C dual-phase steel
title_sort understanding crystallographic orientation, microstructure and mechanical properties dependent interaction between recrystallization and phase transformation of a fe–al–mn–mo–c dual-phase steel
publisher Elsevier
publishDate 2021
url https://doaj.org/article/877159ae93e5411b853c15293f3f14b4
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