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·1456 工程科学学报,第43卷,第11期 intergranular corrosion resistance of 430 ferritic stainless steel.J [17]Todoroki H,Kobayashi Y.Clogging behavior of CC immersion Iron Steel Res Int,2015,22(11):1062 nozzles in stainless steels in Al deoxidation //Asia Steel 2009. 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Beijing: University of Science and Technology Beijing, 2020 ( 李璟宇. 超纯铁素体不锈钢夹杂物形成机理及精炼工艺研究 [学位论文]. 北京: 北京科技大学, 2020) [6] Cha W Y, Nagasaka T, Miki T, et al. Equilibrium between titanium and oxygen in liquid Fe−Ti alloy coexisted with titanium oxides at 1873 K. ISIJ Int, 2006, 46(7): 996 [7] Pak J J, Jo J O, Kim S I, et al. Thermodynamics of titanium and oxygen dissolved in liquid iron equilibrated with titanium oxides. ISIJ Int, 2007, 47(1): 16 [8] Seok S H, Miki T, Hino M. Ti deoxidation equilibrium in molten Fe–Cr and Fe–Cr–Ni alloys at temperatures between 1823 K and 1923 K. ISIJ Int, 2009, 49(12): 1850 [9] Pak J J, Jeong Y S, Hong I K, et al. Thermodynamics of TiN formation in Fe−Cr melts. ISIJ Int, 2005, 45(8): 1106 [10] Wada H, Pehlke R D. Nitrogen solution and titanium nitride precipitation in liquid Fe−Cr−Ni alloys. Metall Trans B, 1977, 8(2): 443 [11] Ozturk B, Matway R, Fruehan R J. Thermodynamics of inclusion formation in Fe−Cr−Ti−N alloys. Metall Mater Trans B, 1995, 26(3): 563 [12] Hou D, Jiang Z, Dong Y, et al. Thermodynamic design of electroslag remelting slag for high titanium and low aluminium stainless steel based on IMCT. Ironmaking Steelmaking, 2016, 43(7): 517 [13] Jiang Z H, Hou D, Dong Y W, et al. Effect of slag on titanium, silicon, and aluminum contents in superalloy during electroslag remelting. Metall Mater Trans B, 2016, 47(2): 1465 [14] Park D C, Jung I H, Rhee P C H, et al. Reoxidation of Al-Ti containing steels by CaO−Al2O3−MgO−SiO2 slag. ISIJ Int, 2004, 44(10): 1669 [15] Kishi M, Inoue R, Suito H. Thermodynamics of oxygen and nitrogen in liquid Fe−20mass%Cr alloy equilibrated with titania￾based slags. ISIJ Int, 1994, 34(11): 859 [16] Todoroki H, Kobayashi Y. Clogging behavior of CC immersion nozzles in stainless steels in Al deoxidation // Asia Steel 2009. Busan, 2009: 28 [17] Todoroki H, Kirihara F, Kanbe Y, et al. 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ISIJ Int, 2009, 49(9): 1290 [23] Wang C, Nuhfer N T, Sridhar S. Transient behavior of inclusion chemistry, shape, and structure in Fe–Al–Ti–O melts: Effect of titanium source and laboratory deoxidation simulation. Metall Mater Trans B, 2009, 40(6): 1005 [24] Li J Y, Cheng G G, Ruan Q, et al. Evolution behaviour of nonmetallic inclusions in Ti-bearing 11Cr stainless steel with calcium treatment. Ironmaking Steelmaking, 2020, 47(1): 31 [25] Li J Y, Cheng G G, Ruan Q, et al. Evolution mechanism of oxide inclusions in titanium-stabilized AISI 443 stainless steel. Metall Mater Trans B, 2018, 49(5): 2357 [26] Bai X F, Sun Y H, Zhang Y M. Transient evolution of inclusions during Al and Ti additions in Fe-20 mass pct Cr alloy. Metals, 2019, 9(6): 702 [27] Pan C, Hu X J, Lin P, et al. Effects of Ti and Al addition on the formation and evolution of inclusions in Fe–17Cr–9Ni austenite stainless steel. Metall Mater Trans B, 2020, 51(6): 3039 [28] Ren Y, Zhang L F, Yang W, et al. Formation and thermodynamics of Mg–Al–Ti–O complex inclusions In Mg–Al–Ti-deoxidized steel. Metall Mater Trans B, 2014, 45(6): 2057 [29] Zhang T S, Liu C J, Jiang M F. Effect of Mg on behavior and particle size of inclusions in Al–Ti deoxidized molten steels. Metall Mater Trans B, 2016, 47(4): 2253 [30] Li J Y, Cheng G G, Ruan Q, et al. Formation and evolution of oxide inclusions in titanium-stabilized 18Cr stainless steel. ISIJ Int, 2018, 58(12): 2280 [31] Zhang T S, Liu C J, Qiu J Y, et al. Effect of Ti content on the characteristics of inclusions in Al–Ti–Ca complex deoxidized steel. ISIJ Int, 2017, 57(2): 314 [32] [33] Zhang T, Liu C, Mu H, et al. Inclusion evolution after calcium · 1456 · 工程科学学报,第 43 卷,第 11 期
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