Effects of Yttrium on the Microstructure and Properties of 20MnSi Steel

20MnSi steel samples with different rare‐earth yttrium (Y) contents are prepared in the laboratory. Microstructure analysis is performed using the methods of microscopy and electron probe microanalysis, and the mechanical and physical properties are assessed using the tensile tester and thermal dila...

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Veröffentlicht in:Steel research international 2021-11, Vol.92 (11), p.n/a
Hauptverfasser: Zhong, Lingqiang, Wang, Zhigang, Chen, Rongchun, He, Jianguo
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He, Jianguo
description 20MnSi steel samples with different rare‐earth yttrium (Y) contents are prepared in the laboratory. Microstructure analysis is performed using the methods of microscopy and electron probe microanalysis, and the mechanical and physical properties are assessed using the tensile tester and thermal dilatometer. The results show that with increasing Y content, the thickness of the martensite layer on the surface of 20MnSi steel decreases gradually until it almost disappears, which is attributed to Y reducing martensitic transformation temperature. Y refines the size of the pearlitic lamellae, which improves the yield strength. Y‐containing composite inclusions (Y2O2S) of microsized spheres are easily formed in the steel, which assists the nucleation of ferrite, thereby resulting in an increase in the yield point elongation. In addition, the content of inclusions increases, thereby resulting in a decrease in uniform elongation. With increasing Y content, the thickness of the martensite layer on the surface of 20MnSi steel decreases gradually which is attributed to Y reducing martensitic transformation temperature. Y refines the size of the pearlitic lamellae, which improves the yield strength. Y‐containing composite inclusions assist the nucleation of ferrite, thereby resulting in an increase in the yield point elongation.
doi_str_mv 10.1002/srin.202100198
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Microstructure analysis is performed using the methods of microscopy and electron probe microanalysis, and the mechanical and physical properties are assessed using the tensile tester and thermal dilatometer. The results show that with increasing Y content, the thickness of the martensite layer on the surface of 20MnSi steel decreases gradually until it almost disappears, which is attributed to Y reducing martensitic transformation temperature. Y refines the size of the pearlitic lamellae, which improves the yield strength. Y‐containing composite inclusions (Y2O2S) of microsized spheres are easily formed in the steel, which assists the nucleation of ferrite, thereby resulting in an increase in the yield point elongation. In addition, the content of inclusions increases, thereby resulting in a decrease in uniform elongation. 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Microstructure analysis is performed using the methods of microscopy and electron probe microanalysis, and the mechanical and physical properties are assessed using the tensile tester and thermal dilatometer. The results show that with increasing Y content, the thickness of the martensite layer on the surface of 20MnSi steel decreases gradually until it almost disappears, which is attributed to Y reducing martensitic transformation temperature. Y refines the size of the pearlitic lamellae, which improves the yield strength. Y‐containing composite inclusions (Y2O2S) of microsized spheres are easily formed in the steel, which assists the nucleation of ferrite, thereby resulting in an increase in the yield point elongation. In addition, the content of inclusions increases, thereby resulting in a decrease in uniform elongation. 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source Wiley Online Library Journals Frontfile Complete
subjects 20MnSi steel
Electron probe microanalysis
Elongation
Extensometers
Inclusions
Low alloy steels
Martensite
martensitic transformation
Martensitic transformations
Microstructure
Nucleation
Physical properties
rare-earth inclusions
rare-earth steel
Thickness
Transformation temperature
Yield point
yield point elongation
Yttrium
title Effects of Yttrium on the Microstructure and Properties of 20MnSi Steel
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