Formation and control of the surface defect in hypo-peritectic steel during continuous casting: A review

Quanhui Li , Peng Lan , Haijie Wang , Hongzhou Ai , Deli Chen , Haida Wang

International Journal of Minerals, Metallurgy, and Materials ›› 2023, Vol. 30 ›› Issue (12) : 2281 -2296.

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International Journal of Minerals, Metallurgy, and Materials ›› 2023, Vol. 30 ›› Issue (12) : 2281 -2296. DOI: 10.1007/s12613-023-2716-4
Invited Review

Formation and control of the surface defect in hypo-peritectic steel during continuous casting: A review

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Abstract

Hypo-peritectic steels are widely used in various industrial fields because of their high strength, high toughness, high processability, high weldability, and low material cost. However, surface defects are liable to occur during continuous casting, which includes depression, longitudinal cracks, deep oscillation marks, and severe level fluctuation with slag entrapment. The high-efficiency production of hypo-peritectic steels by continuous casting is still a great challenge due to the limited understanding of the mechanism of peritectic solidification. This work reviews the definition and classification of hypo-peritectic steels and introduces the formation tendency of common surface defects related to peritectic solidification. New achievements in the mechanism of peritectic reaction and transformation have been listed. Finally, countermeasures to avoiding surface defects of hypo-peritectic steels duiring continuous casting are summarized. Enlightening certain points in the continuous casting of hypo-peritectic steels and the development of new techniques to overcome the present problems will be a great aid to researchers.

Keywords

hypo-peritectic steel / continuous casting / surface defect / massive transformation / grain coarsening / depression / longitudinal crack / level fluctuation / oscillation mark

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Quanhui Li, Peng Lan, Haijie Wang, Hongzhou Ai, Deli Chen, Haida Wang. Formation and control of the surface defect in hypo-peritectic steel during continuous casting: A review. International Journal of Minerals, Metallurgy, and Materials, 2023, 30(12): 2281-2296 DOI:10.1007/s12613-023-2716-4

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References

[1]

Presoly P, Pierer R, Bernhard C. Identification of defect prone peritectic steel grades by analyzing high-temperature phase transformations. Metall. Mater. Trans. A, 2013, 44(12): 5377.

[2]

Chipman J. Thermodynamics and phase diagram of the Fe–C system. Metall. Trans. B, 1972, 3(1): 55.

[3]

Suzuki M, Yamaoka Y. Influence of carbon content on solidifying shell growth of carbon steels at the initial stage of solidification. Mater. Trans., 2003, 44(5): 836.

[4]

Jo JH, Yi KW. Phase transformation modeling for hypo peritectic steel in continuous cooling. Met. Mater. Int., 2021, 27(7): 2395.

[5]

Clyne TW, Wolf M, Kurz W. The effect of melt composition on solidification cracking of steel, with particular reference to continuous casting. Metall. Trans. B, 1982, 13(2): 259.

[6]

Murakami H, Suzuki M, Kitagawa T, Miyahara S. Control of uneven solidified shell formation of hypo-peritectic carbon steels in continuous casting mold. Tetsu-to-Haanne, 1992, 78(1): 105.

[7]

FactSage version 8.3—Database FSstel, Thermfact and GTT-Technologies, 2023 [2023-11-6]. https://www.factsage.com

[8]

ThermoCalc Version 2023b—Database TCFE 13, Thermo-Calc Software, 2023 [2023-11-6]. https://www.thermocalc.com

[9]

JmatPro Version 14.0—Database General Steel, Jmatpro S oftware, 2023 [2023-11-96]. https://www.sentesoftware.co.uk/

[10]

Guo JL, Wen GH, Fu JJ, Tang P, Gu SP. Evaluation of carbon equivalent calculation of continue casting steel based on surface roughness. Iron Steel, 2019, 54(08): 187.

[11]

A.S. Normanton, V. Ludlow, A.W. Smith, et al., Improving surface quality of continuously cast semis by an understanding of shell development and growth, [in] Final Report, Technical Steel Research Series, Luxembourg, 2005, p. 349.

[12]

M.M. Wolf, Addendum I—Characteristic data on the peritectic reaction of carbon low alloy and stainless steels, [in] M.M. Wolf, ed., Continuous Casting, Vol. 9, Zürich, Switzerland, 1997, p. 59.

[13]

Sarkar R, Sengupta A, Kumar V, Choudhary SK. Effects of alloying elements on the ferrite potential of peritectic and ultra-low carbon steels. ISIJ Int., 2015, 55(4): 781.

[14]

Howe AA. Development of a computer model of dendritic microsegregation for use with multicomponent steels. Appl. Sci. Res., 1987, 44, 51.

[15]

M. Wolf, Estimation of crack susceptibility for new steel grades, [in] Proceedings of 1st European Conference on Continuous Casting, Florence, Italy, 1991, p. 2489.

[16]

Howe AA. Micro-segregation in Multicomponent Steels Involving the Peritectic Reaction, 1993, Sheffield, University of Sheffield [Dissertation]

[17]

Xia G, Narzt HP, Fürst C, et al. Investigation of mould thermal behaviour by means of mould instrumentation. Iron-making Steelmaking, 2004, 31(5): 364.

[18]

Presoly P, Xia GM, Reisinger P, Bernhard C. Continuous casting of hypo-peritectic steels: Mould thermal monitoring and DSC-analysis. BHM Berg Huttenmann. Monatsh., 2014, 159(11): 430.

[19]

Yamada H, Sakurai T, Takenouchi T. Effect of alloying elements on the peritectic temperature in low-alloy steels. Tetsu-to-Hagane, 1990, 76(3): 438.

[20]

Xu JF, He SP, Wu T, Long X, Wang Q. Effect of elements on peritectic reaction in molten steel based on thermodynamic analysis. ISIJ Int., 2012, 52(10): 1856.

[21]

Blazek K, Lanzi O, Gano PL, Kellogg D. Calculation of the peritectic range for steel alloys. Iron Steel Technol., 2008, 5, 80.

[22]

Li Y, Wang J, Lan P, Sun HB, Zeng Z, Zhang JQ. Effect of alloying elements on hypo-peritectic transformation and longitudinal cracking susceptibility of steel slabs. Iron Steel, 2013, 48(12): 73.

[23]

Ren QQ, Liu T, Baik SI, Mao ZG, Krakauer BW, Seidman DN. The effects of alloying elements on the peritectic range of Fe–C–Mn–Si steels. J. Mater. Sci., 2021, 56(10): 6448.

[24]

Wielgosz E, Kargul T. Differential scanning calorimetry study of peritectic steel grades. J. Therm. Anal. Calorim., 2015, 119(3): 1547.

[25]

P. Presoly, C. Bernhard, N. Fuchs, J. Miettinen, S. Louhenkilpi, and J. Laine, Further development and validation of IDS by means of selected experiments, [in] Proceedings of 9th ECCC European Continuous Casting Conference-ECCC, Vienna, 2017.

[26]

Klančnik G, Foder J, Jan P, Klančnik U. DTA study and thermodynamic prediction of the solidification interval of boron 500HB abrasion-resistant steel. J. Therm. Anal. Calorim., 2022, 147(3): 1999.

[27]

S.C. Moon, D. Phelan, and R. Dippenaar, New insights of the peritectic phase transition in steel through in situ measurement of thermal response in a high-temperature confocal microscope, Mater. Charact., 172(2021), art. No. 110841.

[28]

Hechu K, Slater C, Santillana B, Clark S, Sridhar S. A novel approach for interpreting the solidification behaviour of peritectic steels by combining CSLM and DSC. Mater. Charact., 2017, 133, 25.

[29]

Griesser S, Dippenaar R. Enhanced concentric solidification technique for high-temperature laser-scanning confocal microscopy. ISIJ Int., 2014, 54(3): 533.

[30]

Li YD, Zhang FB. Analysis of longitudinal cracks and optimization of mold flux for peritectic steel slab. Contin. Cast., 2021, 40(02): 57.

[31]

J.L. Guo, G.H. Wen, D.Z. Pu, and P. Tang, A novel approach for evaluating the contraction of hypo-peritectic steels during initial solidification by surface roughness, Materials, 11(2018), No. 4, art. No. 571.

[32]

Suzuki M, Hayashi H, Shibata H, Emi T, Lee IJ. Simulation of transverse crack formation on continuously cast peritectic medium carbon steel slabs. Steel Res., 1999, 70(10): 412.

[33]

Emi T, Fredriksson H. High-speed continuous casting of peritectic carbon steels. Mater. Sci. Eng. A, 2005, 413–414, 2.

[34]

Suzuki M, Yu CH, Sato H, Tsui Y, Shibata H, Emi T. Origin of heat transfer anomaly and solidifying shell deformation of peritectic steels in continuous casting. ISIJ Int., 1996, 36, S171.

[35]

Wen GH, Sridhar S, Tang P, Qi X, Liu YQ. Development of fluoride-free mold powders for peritectic steel slab casting. ISIJ Int., 2007, 47(8): 1117.

[36]

Arıkan MM. Hot ductility behavior of a peritectic steel during continuous casting. Metals, 2015, 5(2): 986.

[37]

Cai ZZ, Zhu MY. Thermo-mechanical behavior of peritectic steel solidifying in slab continuous casting mold and a new mold taper design. ISIJ Int., 2013, 53(10): 1818.

[38]

Weisgerber B, Harste K, Bleck W. Phenomenological description of the surface morphology and crack formation of continuously cast peritectic steel slabs. Steel Res. Int., 2004, 75(10): 686.

[39]

Long X, He SP, Xu JF, Huo XL, Wang Q. Properties of high basicity mold fluxes for peritectic steel slab casting. J. Iron Steel Res. Int., 2012, 19(7): 39.

[40]

Liu T, Long MJ, Chen DF, et al. Investigation of the peritectic phase transition in a commercial peritectic steel under different cooling rates using in situ observation. Metall. Mater. Trans. B, 2020, 51(1): 338.

[41]

T.P. Qu, D.Y. Wang, H.H. Wang, D. Hou, and J. Tian, Effect of magnesium treatment on the hot ductility of Ti-bearing peritectic steel, Metals, 10(2020), No. 10, art. No. 1282.

[42]

Bernhard C, Xia G. Influence of alloying elements on the thermal contraction of peritectic steels during initial solidification. Ironmaking Steelmaking, 2006, 33(1): 52.

[43]

Singh SN, Blazek KE. Heat transfer and skin formation in a continuous-casting mold as a function of steel carbon content. JOM, 1974, 26(10): 17.

[44]

Sugitani Y, Nakamura M. Influence of alloying elements on uneven solidification in continuous casting mould. Tetsu-to-Hagane, 1979, 65(12): 1702.

[45]

D. Balogun, M. Roman, R.E. Gerald, J. Huang, L. Bartlett, and R. O’Malley, Shell measurements and mold thermal mapping approach to characterize steel shell formation in peritectic grade steels, Steel Res. Int., 93(2022), No. 1, p. art(2100455).

[46]

Wolf M, Kurz W. The effect of carbon content on solidification of steel in the continuous casting mold. Metall. Trans. B, 1981, 12(1): 85.

[47]

Petry S. Advanced thermal mould monitoring. Contin. Cast., 1997, 9, 431.

[48]

Won YM, Yeo TJ, Seol DJ, Oh KH. A new criterion for internal crack formation in continuously cast steels. Metall. Mater. Trans. B, 2000, 31(4): 779.

[49]

Mizukami H, Yamanaka A, Watanabe T. Prediction of density of carbon steels. ISIJ Int., 2002, 42(4): 375.

[50]

Irving WR, Perkins A. Basic parameters affecting the quality of continuously cast slabs. Ironmaking Steelmaking, 1977, 4(5): 292.

[51]

Schmidtmann E, Pleugel L. Influence of carbon content on high-temperature strength and ductility of low alloyed steels after solidification from the melt. Arch. Eisenhuttenwes., 1980, 51(2): 49.

[52]

Kim KH, Yeo TJ, Oh KH, Lee DN. Effect of-carbon and sulfur in continuously cast strand on longitudinal surface cracks. ISIJ Int., 1996, 36(3): 284.

[53]

Matsumiya T, Saeki T, Tanaka J, Ariyoshi T. Mathematical model analysis on the formation mechanism of longitudinal, surface cracks in continuously cast slabs. Tetsu-to-Hagane, 1982, 68(13): 1782.

[54]

Jo JH, Park MS, Yi KW. Numerical analysis on crack generation behavior of hypo peritectic steel in continuous casting process. Met. Mater. Int., 2021, 27(11): 4586.

[55]

Suzuki M, Suzuki M, Yu C, Emi T. In-situ measurement of fracture strength of solidifying steel shells to predict upper limit of casting speed in continuous caster with oscillating mold. ISIJ Int., 1997, 37(4): 375.

[56]

Konishi J, Militzer M, Samarasekera IV, Brimacombe JK. Modeling the formation of longitudinal facial cracks during continuous casting of hypoperitectic steel. Metall. Mater. Trans. B, 2002, 33(3): 413.

[57]

Shin G, Kajitani T, Suzuki T, Umeda T. Mechanical properties of carbon steels during solidification. Tetsu-to-Hagane, 1992, 78(4): 587.

[58]

G. Xia, J. Zirngast, H. Hiebler, and M. Wolf, High temperature mechanical properties of in situ solidified steel measured by the new SSCT test, [in] Conference on Continuous Casting of Steel in Developing Countries, 1993, p. 200.

[59]

Toishi K, Miki Y, Kikuchi N. Simulation of crack initiation on the slab in continuous casting machine by FEM. ISIJ Int., 2019, 59(5): 865.

[60]

Yu CH, Suzuki M, Shibata H, Emi T. Simulation of crack formation on solidifying steel shell in continuous casting mold. ISIJ Int., 1996, 36, S159.

[61]

Yamanaka A, Nakajima K, Yasumoto K, Kawashima H, Nakai K. New evaluation of critical strain for internal crack formation in continuous casting. Rev. Met. Paris, 1992, 89(7–8): 627.

[62]

Ji C, Zhu MY. Risk prediction of crack formation and propagation in solidification end reduction process of continuous casting slab. J. Iron Steel Res., 2022, 34(12): 1370.

[63]

R. Krobath and C. Bernhard, Experimental quantification of critical parameters for prediction of surface crack formation in continuous casting, Steel Res. Int., 91(2020), No. 12, art. No. 2000234.

[64]

Krajewski P, Krobath R, Bernhard C, et al. A novel approach for the simulation of surface crack formation in continuous casting. BHM Berg Huttenmann. Monatsh., 2015, 160(3): 109.

[65]

Saleem S, Vynnycky M, Fredriksson H. The influence of peritectic reaction/transformation on crack susceptibility in the continuous casting of steels. Metall. Mater. Trans. B, 2017, 48(3): 1625.

[66]

Pierer RF. Formulation of a hot tearing criterion for the continuous casting process, 2007, Leoben, University of Leoben, 90 [Dissertation]

[67]

Brimacombe JK, Sorimachi K. Crack formation in the continuous casting of steel. Metall. Trans. B, 1977, 8(2): 489.

[68]

Brimacombe JK, Weinberg F, Hawbolt EB. Formation of longitudinal, midface cracks in continuously-cast slabs. Metall. Trans. B, 1979, 10(2): 279.

[69]

H. Yasuda, T. Suga, K. Ichida, T. Narumi, and K. Morishita, In situ observation of austenite coarsening induced by massive-like transformation during solidification in Fe–C alloys, IOP Conf. Ser.: Mater. Sci. Eng., 861(2020), No. 1, art. No. 012051.

[70]

Krobath R, Bernhard C, Ilie S, Six J, Hahn S, Pennerstorfer P. The role of grain boundary oxidation on surface crack formation under continuous casting conditions. BHM Berg Huttenmann. Monatsh., 2019, 164(11): 461.

[71]

D. Lee, Y.U. Heo, J.S. Lee, et al., AlN-assisted internal oxidation behavior in Al-containing high Mn steels, Mater. Charact., 189(2022), art. No. 111967.

[72]

Xia G, Bernhard C, Ilie S, Fuerst C. A study about the influence of carbon content in the steel on the casting behavior. Steel Res. Int., 2011, 82(3): 230.

[73]

Takeuchi E, Brimacombe JK. The formation of oscillation marks in the continuous casting of steel slabs. Metall. Trans. B, 1984, 15(3): 493.

[74]

Mahapatra RB, Brimacombe JK, Samarasekera IV. Mold behavior and its influence on quality in the continuous casting of steel slabs: Part II. Mold heat transfer, mold flux behavior, formation of oscillation marks, longitudinal off-corner depressions, and subsurface cracks. Metall. Trans. B, 1991, 22(6): 875.

[75]

Tomono H. Elements of Oscillation Mark Formation and Their Effect on Transverse Fine Cracks in Continuous Casting of Steel, 1979, Lausanne, Federal Institute of Technology [Dissertation]

[76]

Park JY, Ko EY, Choi J, Sohn I. Characteristics of medium carbon steel solidification and mold flux crystallization using the multi-mold simulator. Met. Mater. Int., 2014, 20(6): 1103.

[77]

Maehara Y, Yasumoto K, Tomono H, Nagamichi T, Ohmori Y. Surface cracking mechanism of continuously cast low carbon low alloy steel slabs. Mater. Sci. Technol., 1990, 6(9): 793.

[78]

Jiang ZK, Su ZJ, Xu CQ, Chen J, He JC. Abnormal mold level fluctuation during slab casting of peritectic steels. J. Iron Steel Res. Int., 2020, 27(2): 160.

[79]

A. Gantner, C.M. Chimani, and J. Watzinger, Medium slab casting of peritectic steels at Nova Hut as at high casting speeds-BHM, BHM Berg Huttenmann. Monatsh., 144(1999), No. 7, art. No. S276.

[80]

Sengupta J, Ojeda C, Thomas BG. Thermal-mechanical behaviour during initial solidification in continuous casting: Steel grade effects. Int. J. Cast Met. Res., 2009, 22(1–4): 8.

[81]

Lei H, Liu JJ, Tang GF, Zhang HW, Jiang ZK, Lv P. Deep insight into mold level fluctuation during casting different steel grades. JOM, 2023, 75(3): 914.

[82]

Lee JD, Yim CH. The mechanism of unsteady bulging and its analysis with the finite element method for continuously cast steel. ISIJ Int., 2000, 40(8): 765.

[83]

Li DP, Wu HZ, Wang HF, Li H. Growth of solidified shell in bloom continuous casting mold of hypo-peritectic steel based on a FeS tracer method. J. Iron Steel Res. Int., 2020, 27(7): 782.

[84]

Ruíz Mondragón JJ, Herrera Trejo M, de Jesús Castro Román M, Solís HT. Description of the hypo-peritectic steel solidification under continuous cooling and crack susceptibility. ISIJ Int., 2008, 48(4): 454.

[85]

Phelan D, Reid M, Dippenaar R. Kinetics of the peritectic reaction in an Fe–C alloy. Mater. Sci. Eng. A, 2008, 477(1–2): 226.

[86]

Griesser S, Bernhard C, Dippenaar R. Mechanism of the peritectic phase transition in Fe–C and Fe–Ni alloys under conditions close to chemical and thermal equilibrium. ISIJ Int., 2014, 54(2): 466.

[87]

Hillert M. Solidification and Casting of Metals, 1979, London, The Metals Society.

[88]

Pan SY, Zhu MF, Rettenmayr M. A phase-field study on the peritectic phase transition in Fe–C alloys. Acta Mater., 2017, 132, 565.

[89]

Hechu K, Slater C, Santillana B, Sridhar S. The use of infrared thermography to detect thermal instability during solidification of peritectic steels. Mater. Charact., 2019, 154, 138.

[90]

Matsuura K, Itoh Y, Narita T. A solid–liquid diffusion couple study of a peritectic reaction in iron–carbon system. ISIJ Int., 1993, 33(5): 583.

[91]

Matsuura K, Maruyama H, Itoh Y, Kudoh M, Ishii K. Rate of peritectic reaction in iron–carbon system measured by solid/liquid diffusion couple method. ISIJ Int., 1995, 35(2): 183.

[92]

Ueshima Y, Mizoguchi S, Matsumiya T, Kajioka H. Analysis of solute distribution in dendrites of carbon steel with δ/γ transformation during solidification. Metall. Trans. B, 1986, 17(4): 845.

[93]

McDonald NJ, Sridhar S. Observations of the advancing δ-ferrite/γ-austenite/liquid interface during the peritectic reaction. J. Mater. Sci., 2005, 40(9–10): 2411.

[94]

Ohno M, Matsuura K. Diffusion-controlled peritectic reaction process in carbon steel analyzed by quantitative phase-field simulation. Acta Mater., 2010, 58(18): 6134.

[95]

Phelan D, Reid M, Dippenaar R. Kinetics of the peritectic phase transformation: In-situ measurements and phase field modeling. Metall. Mater. Trans. A, 2006, 37(3): 985.

[96]

Griesser S, Bernhard C, Dippenaar R. Effect of nucleation undercooling on the kinetics and mechanism of the peritectic phase transition in steel. Acta Mater., 2014, 81, 111.

[97]

Dhindaw BK, Antonsson T, Fredriksson H, Tinoco J. Characterization of the peritectic reaction in medium-alloy steel through microsegregation and heat-of-transformation studies. Metall. Mater. Trans. A, 2004, 35(9): 2869.

[98]

Luo S, Liu GG, Wang P, Wang XH, Wang WL, Zhu MY. In situ observation and phase-field modeling of peritectic solidification of low-carbon steel. Metall. Mater. Trans. A, 2020, 51(2): 767.

[99]

Matsuura K, Kudoh M, Ohmi T. Simulation of peritectic reaction during cooling of iron–carbon alloy. ISIJ Int., 1995, 35(6): 624.

[100]

Fredriksson H. The mechanism of the peritectic reaction in iron-base alloys. Met. Sci., 1976, 10(3): 77.

[101]

Tiaden J. Phase field simulations of the peritectic solidification of Fe–C. J. Cryst. Growth, 1999, 198–199, 1275.

[102]

Tiaden J, Nestler B, Diepers HJ, Steinbach I. The multiphase-field model with an integrated concept for modelling solute diffusion. Physica D, 1998, 115(1–2): 73.

[103]

Ohno M, Matsuura K. Quantitative phase-field modeling for two-phase solidification process involving diffusion in the solid. Acta Mater., 2010, 58(17): 5749.

[104]

Ohno M. Quantitative phase-field modeling and simulations of solidification microstructures. ISIJ Int., 2020, 60(12): 2745.

[105]

Shibata H, Arai Y, Suzuki M, Emi T. Kinetics of peritectic reaction and transformation in Fe–C alloys. Metall. Mater. Trans. B, 2000, 31(5): 981.

[106]

S. Moon, R. Dippenaar, and S.Y. Kim, The peritectic phase transition of steel during the initial stages of solidification in the mold, [in] AISTech Conference, Cleveland, 2015.

[107]

Nassar H, Fredriksson H. On peritectic reactions and transformations in low-alloy steels. Metall. Mater. Trans. A, 2010, 41(11): 2776.

[108]

H. Yasuda, K. Morishita, N. Nakatsuka, et al., Dendrite fragmentation induced by massive-like δ–γ transformation in Fe–C alloys, Nat. Commun., 10(2019), No. 1, art. No. 3183.

[109]

H. Yasuda, T. Hashimoto, N. Sei, K. Morishita, and M. Yoshiya, Investigation using 4D-CT of massive-like transformation from the δ to γ phase during and after δ-solidifica-tion in carbon steels, IOP Conf. Ser.: Mater. Sci. Eng., 529(2019), No. 1, art. No. 012013.

[110]

H. Yasuda, T. Nagira, M. Yoshiya, et al., Massive transformation fromδphase toγphase in Fe–C alloys and strain induced in solidifying shell, IOP Conf. Ser.: Mater. Sci. Eng., 33(2012), art. No. 012036.

[111]

Yasuda H, Morishita K, Yoshiya M, Narumi T. Transformation from ferrite to austenite during/after solidification in peritectic steel systems: An X-ray imaging study. ISIJ Int., 2020, 60(12): 2755.

[112]

Dippenaar R, Moon S, Szekeres E. Strand Surface Cracks - The role of abnormally large prior-austenite grains. Iron Steel Technol., 2007, 4, 105.

[113]

Crowther DN, Mintz B. Influence of grain size on hot ductility of plain C–Mn steels. Mater. Sci. Technol., 1986, 2(9): 951.

[114]

Lan P, Du CW, Chen PL, Liu HS, Qiu DS, Zhang JQ. Research status of surface transverse cracking formation mechanism and control technique for continuously cast microalloyed steels. J. Iron Steel Res., 2017, 29(1): 1.

[115]

Bernhard C, Reiter J, Presslinger H. A model for predicting the austenite grain size at the surface of continuously-cast slabs. Metall. Mater. Trans. B, 2008, 39(6): 885.

[116]

Ohno M, Tsuchiya S, Matsuura K. Microstructural features and formation processes of As-cast austenite grain structures in hypoperitectic carbon steels. ISIJ Int., 2015, 55(11): 2374.

[117]

Andersen I, Grong Ø. Analytical modelling of grain growth in metals and alloys in the presence of growing and dissolving precipitates—I. Normal grain growth. Acta Metall. Mater., 1995, 43(7): 2673.

[118]

Andersen I, Grong Ø, Ryum N. Analytical modelling of grain growth in metals and alloys in the presence of growing and dissolving precipitates—II. Abnormal grain growth. Acta. Metall. Mater., 1995, 43(7): 2689.

[119]

Miettinen J, Louhenkilpi S, Holappa L. Coupled simulation of heat transfer and phase transformation in continuous casting of steel. ISIJ Int., 1996, 36, S183.

[120]

Li Y, Wen G, Luo L, Liu J, Tang P. Study of austenite grain size of microalloyed steel by simulating initial solidification during continuous casting. Ironmaking Steelmaking, 2015, 42(1): 41.

[121]

Yoshida N, Kobayashi Y, Nagai K. Prediction of as-cast austenite grain size for near-net-shape CC. Tetsu-to-Hagane, 2004, 90(4): 198.

[122]

Turnbull D. Theory of grain boundary migration rates. JOM, 1951, 3(8): 661.

[123]

Yang L, Li Y, Xue ZL, Cheng CG. Influence of Ti(C,N) precipitates on austenite growth of micro-alloyed steel during continuous casting. China Foundry, 2017, 14(5): 421.

[124]

Lee SJ, Lee YK. Prediction of austenite grain growth during austenitization of low alloy steels. Mater. Des., 2008, 29(9): 1840.

[125]

Tsuchiya S, Ohno M, Matsuura K, Isobe K. Formation mechanism of coarse columnar y grains in as-cast hyperperitectic carbon steels. Acta Mater., 2011, 59(9): 3334.

[126]

Ohno M, Tsuchiya S, Matsuura K. Formation conditions of coarse columnar austenite grain structure in peritectic carbon steels by the discontinuous grain growth mechanism. Acta Mater., 2011, 59(14): 5700.

[127]

Dippenaar R, Bernhard C, Schider S, Wieser G. Austenite grain growth and the surface quality of continuously cast steel. Metall. Mater. Trans. B, 2014, 45(2): 409.

[128]

Azizi G, Thomas BG, Asle Zaeem M. Review of peritectic solidification mechanisms and effects in steel casting. Metall. Mater. Trans. B, 2020, 51(5): 1875.

[129]

Guo JL, Wen G. Influence of alloy elements on cracking in the steel ingot during its solidification. Metals, 2019, 9(8): 836.

[130]

Li Y, Huang QJ, Zhang XH, Zhang JQ, Zhao HM, Lai CB. Mold level fluctuation and its control for slab casting of hypo-peritectic steels. Iron Steel, 2011, 46(8): 43.

[131]

Li Y, Zhang XH, Lan P, Zhang JQ. Control of mould level fluctuation through the modification of steel composition. Int. J. Miner. Metall. Mater., 2013, 20(2): 138.

[132]

Sugitani Y, Nakamura M, Watanabe T. Influence of rate of heat removal on uneven solidification in continuous casting mould. Tetsu-to-Hagane, 1981, 67(9): 1508.

[133]

Zhang J, Guo LL, Zhang L. Study on hot-top mold in slab continuous casting. Baosteel Technol., 2014, 176(4): 11.

[134]

Nakai K, Sakashita T, Hashio M, Kawasaki M, Nakajima K, Sugitani Y. Effect of mild cooling in mould upon solidified shell formation of continuously cast slab. Tetsu-to-Hagane, 1987, 73(3): 498.

[135]

Guyot V, Martin JF, Ruelle A, et al. Control of surface quality of 0.08%<C<0.12% steel slabs in continuous casting. ISIJ Int., 1996, 36, S227.

[136]

M. Wolf. Strand surface quality and the peritectic reaction—A look into the basics, [in] Steelmaking Conference Proceedings, Toronto, 81(1998), p.53.

[137]

Zhang RT, Shen MG, Zhang ZS, Miao XC, Gao C. Coupled mathematical model of thermal stress for initial shell of groove continuous casting mold. Trans. Indian Inst. Met., 2021, 74(7): 1683.

[138]

Zhang RT, Zhang ZS, Shen MG. Numerical analysis of the influence of carbon content on the initial shell of continuous casting slab. Ironmaking Steelmaking, 2018, 45(8): 747.

[139]

Xu YH, Shen MG, Miao XC, Gao JW, Zhang ZS. Simulation experiment of heat transfer in initial shell cast in mold with longitudinal narrow grooves. Iron Steel, 2008, 43(9): 20.

[140]

Zhang LF, Shen MG, Miao XC, Xu HL, Chen ZW. Thermo-mechanical coupled simulation of initial shell formation in grooved mold of slab caster. Iron Steel, 2008, 43(06): 35.

[141]

Anzai K, Saito SI, Niyama E. Effects of mold surface grooves on uneven thickness of initial solid shell. J. Jpn, Foundry Eng. Soc., 2001, 73(5): 305.

[142]

Kawamoto M, Tsukaguchi Y, Nishida N, Kanazawa T, Hiraki S. Improvement of the initial stage of solidification by using mild cooling mold powder. ISIJ Int., 1997, 37(2): 134.

[143]

Hanao M, Kawamoto M, Hara M, Murakami T, Kikuchi H, Hanazaki K. Mold flux for high speed continuous casting of hypoperitectic steel slabs. Tetsu-to-Hagane, 2002, 88(1): 23.

[144]

Hanao M, Kawamoto M, Yamanaka A. Influence of mold flux on initial solidification of hypo-peritectic steel in a continuous casting mold. ISIJ Int., 2012, 52(7): 1310.

[145]

Long X, He SP, Wang Q. Factors influencing roughness of solidified mold flux film for peritectic steel continuous casting. J. Iron Steel Res., 2017, 29(7): 551.

[146]

Long X, He SP, Wang Q, Pistorius PC. Structure of solidified films of mold flux for peritectic steel. Metall. Mater. Trans. B, 2017, 48(3): 1652.

[147]

Cao L. Surface longitudinal crack of slab and property of mold slag for continuous casting of peritectic steel. Iron Steel, 2015, 50(02): 38.

[148]

Zhang T, Yang J, Xu GJ, Liu HJ, Zhou JJ, Qin W. Effects of operating parameters on the flow field in slab continuous casting molds with narrow widths. Int. J. Miner. Metall. Mater., 2021, 28(2): 238.

[149]

Furumai K, Aramaki N, Oikawa K. Influence of heat flux different between wide and narrow face in continuous casting mould on unevenness of hypo-peritectic steel solidification at off-corner. Ironmaking Steelmaking, 2022, 49(9): 845.

[150]

Liu QL, Cao CH, Deng Y, Zheng Q, Zhang M, Luo X. High casting speed production practice of hypo-peritectic steel slab. Steelmaking, 2021, 37(04): 25.

[151]

Yoshiya M, Watanabe M, Nakajima K, et al. Concurrent γ-phase nucleation as a possible mechanism of δ-γ massive-like phase transformation in carbon steel: Numerical analysis based on effective interface energy. Mater. Trans., 2015, 56(9): 1467.

[152]

Ohba Y, Kitade SI, Takasu I. Austenite grain refining of As-cast bloom surface by reduction of oscillation mark depth. ISIJ Int., 2008, 48(3): 350.

[153]

Louhenkilpi S, Miettinen J, Holappa L. Simulation of microstructure of as-cast steels in continuous casting. ISIJ Int., 2006, 46(6): 914.

[154]

Wang WL, Wang LK, Lyu PS. Kinetics of austenite growth and bainite transformation during reheating and cooling treatments of high strength microalloyed steel produced by sub-rapid solidification. Int. J. Miner. Metall. Mater., 2023, 30(2): 354.

[155]

Fujita N, Narushima T, Iguchi Y, Ouchi C. Grain refinement of As cast austenite by dynamic recrystallization in HSLA steels. ISIJ Int., 2003, 43(7): 1063.

[156]

Yoshida N, Umezawa O, Nagai K. Analysis on refinement of Columnar.GAMMA. grain by phosphorus in continuously cast 0.1 mass% carbon steel. ISIJ Int., 2004, 44(3): 547.

[157]

An JZ, Cai ZZ, Zhu MY. Effect of titanium content on the refinement of coarse columnar austenite grains during the solidification of peritectic steel. Int. J. Miner. Metall. Mater., 2022, 29(12): 2172.

[158]

Baba N, Ohta K, Ito Y, Kato T. Prevention of slab surface transverse cracking at Kashima No. 2 caster with Surface Structure Control (SSC) cooling. Metall. Res. Technol., 2006, 103(4): 174.

[159]

Du C, Zhang J, Wen J, Li Y, Lan P. Hot ductility trough elimination through single cycle of intense cooling and reheating for microalloyed steel casting. Ironmaking Steelmaking, 2016, 43(5): 331.

[160]

Li YQ, Liu JH, Deng ZQ, Qiu ST, Zhang P, Zheng GY. Peritectic Solidification Characteristics and Mechanism of 15CrMoG Steel. Acta Metall. Sin., 2020, 56(10): 1335.

[161]

Guo JL, Wen GH, Fu JJ, Tang P, Hou ZB, Gu SP. Influence of cooling rate on the contraction of peritectic transformation during solidification of peritectic steels. Acta Metall. Sin., 2019, 55(10): 1311.

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