[1]干勇,王忠英.国内特殊钢连铸生产技术的现状与发展[J]. 特殊钢,2005,26(3):1-5.
[2]王一德,唐荻,党 宁.国外特殊钢产业的特点及发展趋势 [J].钢铁,2013,48(6):1-6.
[3]王忠英,兰德年,刘树洲.特殊钢连铸现状及发展[J].冶金管理,2002(S1):30-35.
[4]董瀚.对发展高品质特殊钢产业的认识[J].中国钢铁业,2011 (10):10-13.
[5]邓玉昆、陈景榕、王世章.高速工具钢[M].北京:冶金工业出版 社,2002.
[6]叶慧丽,王 琼,刘 波,等.两种生产工艺对D2冷作模具钢 组织的影响[J].热加工工艺,2021,50(21):50-53.
[7]贺 帅,李长生,韩亚辉,等.Cr8Mo2SiV冷作模具钢共晶碳化物 的粒化行为[J].机械工程材料,2020,44(S2):7-10.
[8]姜周华,康从鹏,刘福斌,等.特种冶金生产流程的发展趋势 [J].材料与冶金学报,2021,20(1):1-8+22.
[9]Hanlin Peng,Ling Hu,Licjun Li,et al.Evolution of the microstructure and mechanical properties of powder metallurgical high speed steel S390 after heat treatment [J].Journal of Alloys and Compounds,2018.740.
[10]张亮亮,周 阳,刘世锋,等.模具钢增材制造及其性能的研究进展[J].中国冶金,2022,32(3):1-8.
[11]罗 迪,邢国华,刘 宇,等.M42高速钢铸态热塑性研究 [J].物理测试,1991(3):7-10.
[12]梁伟,李晶,史成斌,等.高速钢的碳化物控制研究[J]. 钢铁钒钛,2020,41(4):130-138.
[13]丁宏,董晟全,李高宏,等.高合金钢薄壁件的消失模铸造工艺研究[J].铸造设备研究,2009(3):21-23.
[14]杜亚伟,文光华,唐 萍,等.基于ANSYS的模铸高碳钢凝固过程温度场数值模拟[J].材料科学与工程学报,2010,28(4):
586-592.
[15]徐桂丽,黄鹏,孙溪,等.高速钢制备和热处理工艺的研究现状及发展趋势[J].中国材料进展,2020,39(1):70-77.
[16]Thome R,Dahl W. On the crack susceptibility of high alloyed tool steels during continuous casting and in the temperature region of hot working[J].Steel Research,1995,66(2):63-71.
[17]罗 震.莱氏体钢的锻造[J].金属加工:热加工,2013(13):
55-56.
[18]李 晶.特殊钢中碳化物控制[M].北京:冶金工业出版社,
2019.
[19]王树奇,关庆丰,姜启川,等.莱氏体型高铬模具钢锻前碳化物形态改善的研究[J].钢铁,1999(7):46-49.
[20]刘之伟.莱氏体钢共晶碳化物不均匀度金相检验新方法[J]. 四川冶金,2000(1):60-62.
[21]陈德荣,魏瑞航,王光熙.M2高速钢连铸坯的凝固组织及质量-高速钢连铸坯内部质量究研之一[J].四川冶金,1984(1):
37-50.
[22]卢耀华,陈家昶.高碳高铬冷作模具钢连铸应用开发[J].宝钢技术,2019(2):62-68.
[23]李博斌.连铸工艺对M2高速钢碳化物析出的影响[J].河北冶金,2018(12):23-27.
[24]江川修,内藤善博,松漏周司.速统铸造仁书什马高速度鲷 ESR用電极()裂造[J].電氨裂鲷,1991,62(1):66-72.
[25]Aleksandrova NM,Galkin MP,MakushevS Y,et al.Improving the plasticity of cold working die steel in continuous casting[J]. Steel in Translation,2012,42(12):838-844.
[26]ParenKovSL,Kakabadze RV,PavloyVP,et al.Integrated technology for casting-crystallization heat treatment in the continuous casting of high speed steels[J].Metallurgist,1999,43(11):485- 489.
[27]赵志刚.高速工具钢(M2)连铸工艺基础研究[5].北京:北京 科技大学,2018.
[28]ZhangJ,ZhaoZ,Wang W,et al. Comparison of the Microstructure of M2 Steel Fabricated by Continuous Casting and with a Sand Mould[J]. Metals-Open Access Metallurgy Joumal,2019,9 (5):560.
[29]Solidification microstructure of M2 high speed steel by different casting technologies[J].China Foundry,2011,8(3):290-294.
[30]Sun H,Li L,WangJ,et al.Coordinating optimisation of F-EMS and soft reduction during bloom continuous casting process for special steel[J].Ironmaking Steelmaking,2017:1-6.
[31]李莉娟,王郢,翟启杰.脉冲磁致振荡(PMO)凝固均质化技 术在特殊钢中的应用[J].钢铁研究学报,2021,33(10):1018- 1030
[32]V.D.Fachinotti,S.L.Corre,N.Triolet,et al. Two-phase thermo-mechanical and macrosegregation modelling of binary alloys solidifcation with emphasis on the secondary cooling stage of steel slab continuous casting processes,Int.J. Numer.Meth.Eng.2006,67 (10):1341-1384.
[33]L.G.Zhu,R.V.Kumar,Shrinkage of carbon steel by thermal contraction and phase transformation during solidification,Ironmak. Steelmak,2007,34(1):71-75.
[34]T.Murao,T.Kajitani,H. Yamamura,et al. Simulation of the center-line segregation generated by the formation of bridging,ISUJ Int.2014,54(2):359-365.
[35]M. Vynnycky,S.Saleem,H. Fredriksson,An asymptotic approach to solidification shrinkage-induced macrosegregation in the continuous casting of binary alloys,Appl. Math. Model.2018,54 :605-626.
[36]S.Ogibayashi,M.Yamada,Y.Yoshida,T.Mukai,Influence of roll bending on center segregation in continuously cast slabs,ISIJ Int. 1991,31(12):1408- 1415.
|