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948 工程科学学报,第42卷,第8期 口、浸入式水口.北京:冶金工业出版社,2014) alignment of ladle shroud on transient steel quality output from [25]Morikawa K,Yoshtomi J,Asano K.The performance of newly multistrand tundish.Ironmaking Steelmaking,2011,38(2):112 developed refractories for continuous /Tehran International [41]Yu H,Choi I S,Kim MJ,et al.Development of a hydraulic shroud Conference on Refractories.Tehran,2004:4 nozzle manipulator with robust force control in continuous casting [26]Rasmussen P.Improvements to steel cleanliness at Dofasco's No.2 process.SUmL,2015,55(5):1025 melt shop /l Steelmaking Conference,Chicago,1994:219 [42]Shapland E P,King P D.Full Throttle Valve and Method of Tube [27]Becker B,Prabhu N.Trumpet ladle shroud usage at No.2 BOF/CC and Gate Change:US Patents,US4415103A.1985-10-08 of inland steel ll Steelmaking Conference Proceedings [43]Tian L.A Device to Automatically Assemble and Disassemble Washington,1991:489 Ladle Shroud:China Patent,201810127606.X.2018-07-27 [28]Zhang J S,Li J S,Yan Y,et al.A comparative study of fluid flow (田陆.一种长水口自动拆装装置:中国专利,201810127606.X and mass transfer in a trumpet-shaped ladle shroud using large 2018-07-27) eddy simulation.Metall Mater Trans B,2016,47(1):495 [44]Tian L,Bao Y P,Li J,et al.Research and application of a high- [29]Zhang J S,Yang S F,Chen Y F,et al.Comparison of multiphase sensitive slag detection system.J Univ Sci Technol Beijing,2009, flow in a continuous casting tundish using two types of 31(Suppl 1):58 industrialized ladle shrouds.JOM.2018.70(12):2886 (田陆,包燕平,李娟,等.一种高灵敏性钢包下渣检测装置的研 [30]Wen G H,Huang Y F,Tang P,et al.Influence of ladle shroud's 究与应用.北京科技大学学报,2009,31(增刊1:58) shapes on characteristics of fluid flow in tundish.J Chongging [45]Lian W J.Development of the ladle slag carry-over detection Ui,2011,34(3)69 technology in continuous casting.China Metall,2011,21(8):8 (文光华,黄永锋,唐萍,等.钢包长水口形状对中间包内钢液流 (连文敬.连铸钢包下渣检测技术的发展.中国治金,2011, 动特性的影响.重庆大学学报,2011,34(3):69) 21(8):8) [31]Zhang H,Fang Q,Deng S Y,et al.Multiphase flow in a five- [46]Chattopadhyay K,Hasan M,Isac M,et al.Physical and strand tundish using trumpet ladle shroud during steady-state mathematical modeling of inert gas-shrouded ladle nozzles and casting and ladle change-over.Stee/Res /nt,2019,90(3):1800497 their role on slag behavior and fluid flow patterns in a delta-shaped [32]Zhang JS,Yang S F,Li M Y,et al.Mathematical modelling of four-strand tundish.Metall Mater Trans B,2010,41(1):225 fluid flow inside trumpet-shaped ladle shrouds./ronmaking [47]Bao Y P,Liu J H,Xu B M.Behaviors of fine bubbles in the shroud Steelmaking,2017,44(10y:732 nozzle of ladle and tundish.J Univ Sci Technol Beijing,2003. [33]Solorio-Diaz G,Morales R D,Ramos-Banderas A.Effect of a 10(4):23 swirling ladle shroud on fluid flow and mass transfer in a water [48]Wang L H,Lee H G,Hayes P C.A new approach to molten steel model of a tundish.Int Heat Mass Transfer,2005,48(17):3574 refining using fine gas bubbles.IS//In,1996,36(1):17 [34]Wang F,Li B K,Tsukihashi F.Large eddy simulation on flow [49]Chang S,Cao X K,Zou Z S,et al.Micro-bubble formation under structure in centrifugal flow tundish./S///nt,2007,47(4):568 non-wetting conditions in a full-scale water model of a ladle [35]Morales-Higa K,Guthrie R I L,Isac M,et al.Ladle shroud as a shroud/tundish system./S//Int,2018,58(1):60 flow control device for tundish operations.Metall Mater Trans B, [50]Evans G M,Rigby G D,Honeyands T A,et al.Gas dispersion 2013,44(1):63 through porous nozzles into down-flowing liquids.Chem Eng Sci, [36]Garcia-Hernandez S,Morales R D,de Jesus Barreto J,et al. 1999,54(21):4861 Modeling study of slag emulsification during ladle change-over [51]Gao A,Wang Q,Li D J,et al.Efficiency and influencing factors of using a dissipative ladle shroud.Steel Res Int,2016,87(9):1154 electromagnetic steel-teeming technology.Acta Metall Sin,2010, [37]Zhang H,Fang Q,Luo R H,et al.Effect of ladle changeover 46(5):634 condition on transient three-phase flow in a five-strand bloom (高翱,王强,李德军,等.电磁引流技术的出钢效率及其影响因 casting tundish.Metall Mater Trans B,019,50(3):1461 素.金属学报,2010,46(5):634) [38]Ruan F,Zhao F G,Jie C,et al.Influence of immersion depth of [52]Zheng S G,Zou Q,Zhu M Y.A Method to Avoid the Entry of long nozzle on liquid steel flow characteristics in beam blank Filler Sand into Tundish:China Patent,201810564363.6.2018-10- continuous casting tundish.Contimous Cast,2015,40(3):9 09 (阮飞,赵凤光,揭畅,等.异型坯连铸长水口浸人深度对中间包 (郑淑国,邹琦,朱苗勇.一种连铸过程控制引流砂进人中间包 流动特性的影响.连铸,2015,40(3):9) 的方法:中国专利,201810564363.6.2018-10-09) [39]Das A,Chatterjee S,Mukherjee A.Efficient determination of [53]Yin R Y.The progress and propositions of Chinese steelmaking misalignment of ladle shroud using machine vision /A/STech and continuous casting since the new century.China Metall,2014, 2019-Proceedings of the Iron Steel Technology Conference. 24(8):1 Pintsburgh,2019:1479 (殷瑞钰.新世纪以来中国炼钢一连铸的进步及命题.中国冶金, [40]Chattopadhyay K,Liu F G,Isac M,et al.Effect of vertical 2014,24(8):1)口、浸入式水口. 北京: 冶金工业出版社, 2014) Morikawa  K,  Yoshtomi  J,  Asano  K.  The  performance  of  newly developed  refractories  for  continuous  // Tehran International Conference on Refractories. Tehran, 2004: 4 [25] Rasmussen P. Improvements to steel cleanliness at Dofasco’s No.2 melt shop // Steelmaking Conference, Chicago, 1994: 219 [26] Becker B, Prabhu N. Trumpet ladle shroud usage at No.2 BOF/CC of  inland  steel  // Steelmaking Conference Proceedings. Washington, 1991: 489 [27] Zhang J S, Li J S, Yan Y, et al. A comparative study of fluid flow and  mass  transfer  in  a  trumpet-shaped  ladle  shroud  using  large eddy simulation. Metall Mater Trans B, 2016, 47(1): 495 [28] Zhang J S, Yang S F, Chen Y F, et al. Comparison of multiphase flow  in  a  continuous  casting  tundish  using  two  types  of industrialized ladle shrouds. JOM, 2018, 70(12): 2886 [29] Wen G H, Huang Y F, Tang P, et al. Influence of ladle shroud ’s shapes  on  characteristics  of  fluid  flow  in  tundish. J Chongqing Univ, 2011, 34(3): 69 (文光华, 黄永锋, 唐萍, 等. 钢包长水口形状对中间包内钢液流 动特性的影响. 重庆大学学报, 2011, 34(3):69) [30] Zhang  H,  Fang  Q,  Deng  S  Y,  et  al.  Multiphase  flow  in  a  five￾strand  tundish  using  trumpet  ladle  shroud  during  steady-state casting and ladle change-over. Steel Res Int, 2019, 90(3): 1800497 [31] Zhang J S, Yang S F, Li M Y, et al. Mathematical modelling of fluid  flow  inside  trumpet-shaped  ladle  shrouds. Ironmaking Steelmaking, 2017, 44(10): 732 [32] Solorio-Díaz  G,  Morales  R  D,  Ramos-Banderas  A.  Effect  of  a swirling  ladle  shroud  on  fluid  flow  and  mass  transfer  in  a  water model of a tundish. Int J Heat Mass Transfer, 2005, 48(17): 3574 [33] Wang  F,  Li  B  K,  Tsukihashi  F.  Large  eddy  simulation  on  flow structure in centrifugal flow tundish. ISIJ Int, 2007, 47(4): 568 [34] Morales-Higa K, Guthrie R I L, Isac M, et al. Ladle shroud as a flow control device for tundish operations. Metall Mater Trans B, 2013, 44(1): 63 [35] Garcia-Hernandez  S,  Morales  R  D,  de  Jesus  Barreto  J,  et  al. Modeling  study  of  slag  emulsification  during  ladle  change-over using a dissipative ladle shroud. Steel Res Int, 2016, 87(9): 1154 [36] Zhang  H,  Fang  Q,  Luo  R  H,  et  al.  Effect  of  ladle  changeover condition  on  transient  three-phase  flow  in  a  five-strand  bloom casting tundish. Metall Mater Trans B, 2019, 50(3): 1461 [37] Ruan F, Zhao F G, Jie C, et al. Influence of immersion depth of long  nozzle  on  liquid  steel  flow  characteristics  in  beam  blank continuous casting tundish. Continuous Cast, 2015, 40(3): 9 (阮飞, 赵凤光, 揭畅, 等. 异型坯连铸长水口浸入深度对中间包 流动特性的影响. 连铸, 2015, 40(3):9) [38] Das  A,  Chatterjee  S,  Mukherjee  A.  Efficient  determination  of misalignment  of  ladle  shroud  using  machine  vision  // AISTech 2019—Proceedings of the Iron & Steel Technology Conference. Pittsburgh, 2019: 1479 [39] [40] Chattopadhyay  K,  Liu  F  G,  Isac  M,  et  al.  Effect  of  vertical alignment  of  ladle  shroud  on  transient  steel  quality  output  from multistrand tundish. Ironmaking Steelmaking, 2011, 38(2): 112 Yu H, Choi I S, Kim M J, et al. Development of a hydraulic shroud nozzle manipulator with robust force control in continuous casting process. ISIJ Int, 2015, 55(5): 1025 [41] Shapland E P, King P D. Full Throttle Valve and Method of Tube and Gate Change: US Patents, US4415103A. 1985-10-08 [42] Tian  L. A Device to Automatically Assemble and Disassemble Ladle Shroud: China Patent, 201810127606.X. 2018-07-27 (田陆. 一种长水口自动拆装装置: 中国专利, 201810127606.X. 2018-07-27) [43] Tian L, Bao Y P, Li J, et al. Research and application of a high￾sensitive slag detection system. J Univ Sci Technol Beijing, 2009, 31(Suppl 1): 58 (田陆, 包燕平, 李娟, 等. 一种高灵敏性钢包下渣检测装置的研 究与应用. 北京科技大学学报, 2009, 31(增刊1): 58) [44] Lian  W  J.  Development  of  the  ladle  slag  carry-over  detection technology in continuous casting. China Metall, 2011, 21(8): 8 (连文敬. 连铸钢包下渣检测技术的发展. 中国冶金, 2011, 21(8):8) [45] Chattopadhyay  K,  Hasan  M,  Isac  M,  et  al.  Physical  and mathematical  modeling  of  inert  gas-shrouded  ladle  nozzles  and their role on slag behavior and fluid flow patterns in a delta-shaped four-strand tundish. Metall Mater Trans B, 2010, 41(1): 225 [46] Bao Y P, Liu J H, Xu B M. Behaviors of fine bubbles in the shroud nozzle  of  ladle  and  tundish. J Univ Sci Technol Beijing,  2003, 10(4): 23 [47] Wang L H, Lee H G, Hayes P C. A new approach to molten steel refining using fine gas bubbles. ISIJ Int, 1996, 36(1): 17 [48] Chang S, Cao X K, Zou Z S, et al. Micro-bubble formation under non-wetting  conditions  in  a  full-scale  water  model  of  a  ladle shroud/tundish system. ISIJ Int, 2018, 58(1): 60 [49] Evans  G  M,  Rigby  G  D,  Honeyands  T  A,  et  al.  Gas  dispersion through porous nozzles into down-flowing liquids. Chem Eng Sci, 1999, 54(21): 4861 [50] Gao A, Wang Q, Li D J, et al. Efficiency and influencing factors of electromagnetic  steel-teeming  technology. Acta Metall Sin,  2010, 46(5): 634 (高翱, 王强, 李德军, 等. 电磁引流技术的出钢效率及其影响因 素. 金属学报, 2010, 46(5):634) [51] Zheng  S  G,  Zou  Q,  Zhu  M  Y. A Method to Avoid the Entry of Filler Sand into Tundish: China Patent, 201810564363.6. 2018-10- 09 (郑淑国, 邹琦, 朱苗勇. 一种连铸过程控制引流砂进入中间包 的方法: 中国专利, 201810564363.6. 2018-10-09) [52] Yin  R  Y.  The  progress  and  propositions  of  Chinese  steelmaking and continuous casting since the new century. China Metall, 2014, 24(8): 1 (殷瑞钰. 新世纪以来中国炼钢−连铸的进步及命题. 中国冶金, 2014, 24(8):1) [53] · 948 · 工程科学学报,第 42 卷,第 8 期
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