[1] Morales R, Lopez Ramirez S, Palafox Ramos J, Zacharias J, Numerical and modeling analysis of fluid flow and heat transfer of liquid steel in a tundish with different flow control devices, ISIJ Int. 1999; 39: 455-462.
[2] Jin Y, Dong X, Yang F, Cheng C, Wang W, Removal mechanism of microscale non metallic inclusions in a tundish with multi hole double baffles, Metals. 2018; 8: 611.
[3] Sahai Y, Tundish technology for casting clean steel: A review, Metall Mater Trans B. 2016; 47: 2095-2106.
[4] Mazumdar D, Guthrie R, The physical and mathematical modelling of continuous casting tundish systems, ISIJ Int. 1999; 39: 524-547.
[5] Sheng D, Mathematical modelling of multiphase flow and inclusion behavior in a single strand tundish, Metals. 2020; 10: 1213.
[6] Chattopadhyay K, Physical and Mathematical Modelling of Steelmaking Tundish Operations: A Review of the Last Decade (1999–2009), ISIJ Int. 2010; 50: 331-348.
[7] Mazumdar D, Review, analysis, and modeling of continuous casting tundish systems, Steel Res Int. 2019; 90: 1800279.
[8] Fang Q, Mazumdar D, Guthrie R, Optimization of flow, heat transfer and inclusion removal behaviors in an odd multistrand bloom casting tundish, J Mater Res Technol. 2020; 9: 347-363.
[9] Tang H, Improved Metallurgical Effect of Tundish through a Novel Induction Heating Channel for Multistrand Casting, Metals. 2021; 11: 1075.
[10] Yang B, Power curve key factor affecting metallurgical effects of an induction heating tundish, J Iron Steel Res Int. 2022; 29: 151-164.
[11] Heaslip L.J, Physical modeling and visualization of liquid steel flow behavior during continuous casting, Iron Steelmaker. 1999; 26: 33-41.
[12] Ramirez O.S.D, Thermal and Fluid Dynamic Optimization of a Five Strand Asymmetric Delta Shaped Billet Caster Tundish, Steel Res Int. 2018; 89: 1700428.
[13] Zhang J, Advances in ladle shroud as a functional device in tundish metallurgy: A review, ISIJ Int. 2019; 59: 1167-1177.
[14] Zhang H, Multiphase Flow in a Five Strand Tundish Using Trumpet Ladle Shroud during Steady State Casting and Ladle Change Over, Steel Res Int. 2019; 90: 1800497.
[15] Yang L, On the Ladle Shroud Design and Mis alignment Effects on the Fluid Flow in a Metallurgical Tundish – A CFD Model Study, E3S Web Conf. 2020; 185: 04069.
[16] Zhang J, Comparison of Multiphase Flow in a Continuous Casting Tundish Using Two Types of Industrialized Ladle Shrouds, JOM. 2018; 70: 2886-2892.
[17] Safaei H, Asadi B, The Effect of the Angle of Molten Metal Exit From the Submerged Nozzle on the Flow Inside the Casting Mold, ISSI (Iron & Steel Society of Iran). 2025; 22(1): 1-8.
[18] Yang B, Exploration of the Relationship between the Electromagnetic Field and the Hydrodynamic Phenomenon in a Channel Type Induction Heating Tundish Using a Validated Model, ISIJ Int. 2022; 62: 677-688.
[19] Chang S, Simulation of Flow and Heat Fields in a Seven strand Tundish with Gas Curtain for Molten Steel Continuous Casting, ISIJ Int. 2015; 55: 837-844.
[20] Yang B, Numerical Study on the Influence of Distributing Chamber Volume on Metallurgical Effects in Two Strand Induction Heating Tundish, Metals. 2022; 12: 509.
[21] Launder B.E, Spalding D.B, The numerical computation of turbulent flows. In: Numerical Prediction of Flow, Heat Transfer, Turbulence and Combustion, Amsterdam (NL): Elsevier. 1983: 96-116.
