Microstructure and mechanical properties of Fe–Mn based alloys after sub-rapid solidification

Song, Changjiang; Xia, Wenle; Zhang, Jun; Guo, Yuanyi; Zhai, Qijie

doi:10.1016/j.matdes.2013.03.094

Cited by 25 publications

(7 citation statements)

References 16 publications

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“…The similar notching effect was described for graphite in cast iron [11]. According to Song et al [61], yield strength of rapidly solidified Fe-Mn alloys decreased with ascending elongation of needle-shaped ε-martensite phase. Brittleness of high silicon steels could be caused by the presence of impurities on grain boundaries [24].…”

Section: Resultssupporting

confidence: 73%

Mechanical properties and structure of rapidly solidified bulk Fe89−xHf4Ta1Cu1Gd1SixB4 (x=0–15) and Fe74Hf4Ta1Cu1Gd1LaySi15−yB4 (y=7) alloys

Bardziński

Błyskun

2016

Materials & Design

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Section: Resultssupporting

confidence: 73%

Mechanical properties and structure of rapidly solidified bulk Fe89−xHf4Ta1Cu1Gd1SixB4 (x=0–15) and Fe74Hf4Ta1Cu1Gd1LaySi15−yB4 (y=7) alloys

Bardziński

Błyskun

2016

Materials & Design

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“…The outstanding properties of TWIP steels originate in the constituent element manganese (Mn) which has a remarkable influence on the phase composition and microstructure of TWIP steels [4][5][6], as well as the deformation mechanism by controlling the stacking fault energy (SFE) [7].…”

Section: Introductionmentioning

confidence: 99%

Microstructure and tensile properties of the laser welded TWIP steel and the deformation behavior of the fusion zone

et al. 2015

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“…Li et al 7 reported that the Fe-Mn based alloy exhibited good combination of high tensile strength (over 1 GPa) and large ductility (about 60%). Song et al 8 , using strip-casting, obtained Fe-Mn alloy strips with maximum tensile strength 1077MPa and maximum total elongation 25%, respectively.…”

Section: Introductionmentioning

confidence: 99%

Structure and Phase Transition of Fe-Mn Alloy Powders Prepared by Gas Atomization

et al. 2015

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In this paper we investigated the microstructure and phase transition of atomized Fe-(1.3, 7.9, 11.7 wt.%) Mn alloy powders. The results show that the main phases of Fe-1.3Mn, Fe-7.9Mn and Fe-11.7Mn powders are ferrite, α'-martensite+austenite, α'-martensite+ε-martensite+austenite, respectively. The δ-ferrite in the Fe-1.3Mn powder is the high-temperature δ-ferrite directly formed from liquid, companying by a small number of nanometer sized austenite particles precipitated from the ferrite matrix. In the Fe-11.7Mn powder, the γ-austenite, ε-martensite and α'-martensite are found in the same region and have the K-S orientation relationship, suggesting phase transitions of γ-austenite → ε-martensite → α'-martensite and γ → α'-martensite.

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Microstructure and mechanical properties of Fe–Mn based alloys after sub-rapid solidification

Cited by 25 publications

References 16 publications

Mechanical properties and structure of rapidly solidified bulk Fe89−xHf4Ta1Cu1Gd1SixB4 (x=0–15) and Fe74Hf4Ta1Cu1Gd1LaySi15−yB4 (y=7) alloys

Mechanical properties and structure of rapidly solidified bulk Fe89−xHf4Ta1Cu1Gd1SixB4 (x=0–15) and Fe74Hf4Ta1Cu1Gd1LaySi15−yB4 (y=7) alloys

Microstructure and tensile properties of the laser welded TWIP steel and the deformation behavior of the fusion zone

Structure and Phase Transition of Fe-Mn Alloy Powders Prepared by Gas Atomization

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