Change in Charpy impact toughness and carbide precipitation after ageing heat treatment of high Mn austenitic steel

References

• Sasaki T, Watanabe K, Nohara K, et al. Physical and mechanical properties of high manganese non-magnetic steel and its application to various products for commercial use. Trans Iron Steel Inst Jpn. 1982;22(12):1010–1020. in Japanese.
   Google Scholar
• Ueda K, Izumi D, Nakashima K, et al. Technical review on the welding technology and properties of high manganese steels. Proceedings of the 29th International Ocean and Polar Engineering Conference (ISOPE), Greece; 2019. p. 528–532.
   Google Scholar
• Tomota Y. Phase transformation, microstructure, and mechanical behaviour in Fe-Mn alloys. Tetsu-to-Hagane. 1991;77:315–325. in Japanese.
   Web of Science ®Google Scholar
• Tomota Y, Strum M, Morris JW Jr. The relationship between toughness and microstructure in Fe-high Mn binary alloys. Metall Mater Trans A. 1987;18A:1073–1081.
   Google Scholar
• Strum M, Morris JW Jr. Influence of post-anneal cooling treatments on suppression of cryogenic intergranular fracture in experimental Ni free high Mn austenitic steels. Adv Cryog Eng Mater. 1988;34:371–378.
   Google Scholar
• Xue KS, Rong ZL, Jing XM, et al. The improvement of low temperature toughness of high manganese austenitic steels. Adv Cryog Eng Mater. 1988;34:501.
   Google Scholar
• Takaki S, Furuya T, Tokunaga Y. Effect of Si and Al additions on the low temperature toughness and fracture mode of Fe-27Mn alloys. ISIJ Inter. 1990;30:632–638.
   Web of Science ®Google Scholar
• Sawa S. Recent non-magnetic high manganese steels. Bull Japan Inst Met. 1979;18:573–581. in Japanese.
   Google Scholar
• Koyama M, Sawaguchi T, Tsuzaki K. Deformation twinning behaviour of twinning-induced plasticity steels with different carbon concentrations. Tetsu-to-Hagane. 2014;100:1246–1252. in Japanese.
   Web of Science ®Google Scholar
• Nohara K, Habu Y. Cryogenic non-magnetic high Mn steel for accelerator superconducting magnet. Kawasaki Steel Giho. 1989;21: 245–249. in Japanese.
   Google Scholar
• Ouchi C, Sampei T, Osuka T, et al. Workability of non-magnetic low carbon high manganese steels. Nippon Kokan Giho. 1981;88: 15–26. in Japanese.
   Google Scholar
• Ohtani H, Miura M, Okada Y, et al. Various properties and products of high manganese non-magnetic steels. Sumitomo Metal Tech Rep. 1981;33(1): 1–14. in Japanese.
   Google Scholar
• Masumoto H, Suemune K, Yoshimura H, et al. Development of a high-manganese steels. Seitetsu Kenkyu. 1982;309: 47–59. in Japanese.
   Google Scholar
• Ohtani Y, Okada Y, Miura M, et al. Carbide precipitation of high Mn non-magnetic steel for toughness and corrosion resistance. Tetsu-to-Hagane. 1981;67: A89–A92. in Japanese.
   Google Scholar
• Araki H, Abe F, Noda T. Grain boundary embrittlement due to carbide precipitation in high-Mn austenitic steels for fusion reactor structures. J Japan Inst Met Mater. 1989;53:964–971.
   Google Scholar
• Saito T. Effect of alloying elements on carbide precipitation in Hadfield steel. Tetsu-to-Hagane. 1972;58(3):423–433. in Japanese.
   Google Scholar
• Ono Y, Tsuchiyama T, Takaki S. Microstructural change during isothermal aging in high manganese austenitic steels. Tetsu-to-Hagane. 1998;84(4):309–314. in Japanese.
   Web of Science ®Google Scholar
• Kim H, Park J, Jung JE, et al. Interpretation of cryogenic-temperature Charpy fracture initiation and propagation energies by microstructural evolution occurring during dynamic compressive test of austenitic Fe–(0.4, 1.0)C–18Mn steels. Mate Sci Eng, A. 2015;641:340–347.
   Google Scholar
• Luo Q, Wang HH, Li GQ, et al. On mechanical properties of novel high-Mn cryogenic steel in terms of SFE and microstructural evolution. Mater Sci Eng A. 2019;753:91–98.
   Web of Science ®Google Scholar
• Remy L, Pineau A. Twinning and Strain-induced F.C.C → H.C.P. Transformation in the Fe-Mn-Cr-C system. Mat Sci Eng. 1977;28:99–107.
   Google Scholar
• Koyama M, Sawaguchi T, Tsuzaki K. TWIP effect and plastic instability condition in an Fe-Mn-C austenitic steel. ISIJ Inter. 2013;53:323–329.
   Web of Science ®Google Scholar
• Steinmetz DR, Japel T, Wietbrock B, et al. Revealing the strain-hardening behavior of twinning-induced plasticity steels: theory, simulations, experiments. Acta Materialia. 2013;61:494–510.
   Web of Science ®Google Scholar
• Hirth JP. Thermodynamics of stacking faults. Metall Trans A. 1970;1A:2367–2374.
   Google Scholar
• Allain S Caractérisation et modélisation thermomécaniques multi-échelles des mécanismes de déformation et d’écrouissage d’aciers austénitiques à haute teneur en manganèse-Application a l’effet TWIP [Ph.D. thesis]. France: INPL, Ecole des Mines de Nancy; 2004.
   Google Scholar
• Allain S, Chateau JP, Bouaziz O, et al. A physical model of the twinning-induced plasticity effect in a high manganese austenitic steel. Mater Sci Eng A. 2004;387-389:143–147.
   Web of Science ®Google Scholar
• Allain S, Chateau JP, Bouaziz O, et al. Correlations between the calculated stacking fault energy and the plasticity mechanisms in Fe-Mn-C alloys. Mater Sci Eng A. 2004;387-389:158.
   Web of Science ®Google Scholar
• Kotani S. Effect of loading rate in reinforced concrete. Concr J. 1983;21:23–34. in Japanese.
   Google Scholar
• Nagamine N, Shima H. Effect of strain rate on constitutive rule of steel after yield under alternating cyclic loading. Proc Japan Concr Insti. 2003;25: 133–138. in Japanese.
   Google Scholar
• Maeda K, Tanaka A, Masuda H. Strain rate of steel structural frame during earthquake. Summaries Tech Pap Annu Meeting Archit Inst Japan. 1997;823–824. in Japanese.
   Google Scholar
• WES-TR28008. 2000. Method for assessment of brittle fracture in steel weldments subjected to cyclic and dynamic large strain. (in Japanese)
   Google Scholar