5%Mn钢拉伸变形过程中奥氏体织构发展伴随变形诱发马氏体转变

IF 0.3 4区 材料科学 Q4 METALLURGY & METALLURGICAL ENGINEERING
Yusuke Onuki
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引用次数: 0

摘要

中锰钢是第三代高强度钢,Mn质量%为3~10。在本研究中,对fe -4.91 mn -0.092 2c(质量%)进行了单轴拉伸变形过程中的原位中子衍射实验。主要目的是研究变形诱发马氏体相变(DIMT)时奥氏体织构的变化。结果表明,取向于拉伸方向的晶粒在变形过程中趋于持续存在。此外,位错滑移引起的晶体旋转使取向晶粒的比例增加。向拉伸方向的晶粒比向拉伸方向的晶粒消耗更快。这些观察结果通过粘塑性自洽模型定性再现,另外考虑了DIMT到ε马氏体。虽然在本研究获得的衍射图中未发现ε马氏体,但先前的显微组织研究表明,相同材料的DIMT为γ→ε→α’型。相反,在低合金TRIP钢中,受拉伸变形的晶粒趋于存活,出现γ→α′型DIMT。基于本研究的结果,拉伸变形后的取向可以区分为γ→ε→α′型和γ→α′型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Texture Development in Austenite during Tensile Deformation of 5%Mn Steel Accompanied by Deformation-Induced Martensite Transformation
Medium manganese steels, containing 3~10 mass% of Mn, are considered promising as the 3rd generation high strength steel. In this study, in situ neutron diffraction experiments were conducted during uniaxial tensile deformation for Fe-4.91Mn-0.092C (mass%). The primary aim was to investigate the change of austenite texture accompanied with the deformation induced martensitic transformation (DIMT). It was observed that grains oriented <001> towards the tensile direction tend to persist during the deformation. Moreover, the fraction of <001> oriented grains increases due to crystal rotation caused by dislocation slip. Grains with <111> towards the tensile direction are consumed more rapidly than those with <001>. These observations are qualitatively reproduced by visco-plastic self-consistent model, additionally considering DIMT to ε martensite. Although ε martensite was not identified in the diffraction pattern obtained in this study, a previous microstructural study indicated the γ→ε→α’ type DIMT for the same material. In contrast, it is known that in low alloyed TRIP steels subjected to tensile deformation, grains with <111> tend to survive, where γ→α’ type DIMT occurs. Based on the results of this study, the orientation that persists after tensile deformation can distinguish between the DIMT mechanisms: γ→ε→α ’ or γ→α ’ type.
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来源期刊
CiteScore
0.70
自引率
33.30%
发文量
74
审稿时长
6-12 weeks
期刊介绍: The journal ISIJ International first appeared in 1961 under the title Tetsu-to-Hagané Overseas. The title was changed in 1966 to Transactions of The Iron and Steel Institute of Japan and again in 1989 to the current ISIJ International. The journal provides an international medium for the publication of fundamental and technological aspects of the properties, structure, characterization and modeling, processing, fabrication, and environmental issues of iron and steel, along with related engineering materials. Classification I Fundamentals of High Temperature Processes II Ironmaking III Steelmaking IV Casting and Solidification V Instrumentation, Control, and System Engineering VI Chemical and Physical Analysis VII Forming Processing and Thermomechanical Treatment VIII Welding and Joining IX Surface Treatment and Corrosion X Transformations and Microstructures XI Mechanical Properties XII Physical Properties XIII New Materials and Processes XIV Social and Environmental Engineering.
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