Michał Bartosiewicz, Adam Cwudziński


This paper presents the numerical simulation results of the liquid steel flow in a six-strand tundish used for casting billets. The influence of using a ladle shroud, changing its immersion depth in liquid steel on the transition zone, and shaping the liquid steel volume flow were tested. Three positions of the ladle shroud immersion depth in liquid steel were checked. The computer calculation results have shown that the use and position change of the ladle shroud locally influences the shape of the liquid steel hydrodynamic structure in the tundish. The numerical simulations were carried out using the Ansys-Fluent computer program.


tundish; continuous casting of steel; numerical simulation; ladle shroud

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Bartosiewicz M., Cwudziński A.: Influence of Immersion Depth of Ladle Shroud in Liquid Steel on Range of Transition Zone for One-strand Tundish during Continuous Casting of Steel, Metallurgy and Foundry Enginerring, 42, 2 (2017), 81-88

Warzecha M., Merder T., Pfeifer H., Pieprzyca J.: Investigation of Flow Characteristics in a Six-strand CC Tundish Combining Plant Measurements, Physical and Mathematical Modeling, Steel Research International, 81, 11 (2010), 987-993

Mazumdar D., Guthrie R.I.L.: The Physical and Mathematical Modelling of Continuous Casting Tundish Systems, ISIJ International, 39, 6 (1999), 524-547

Sahai Y., Emi T.: Melt Flow Characterization in Continuous Casting Tundishes, ISIJ International, 36, 6 (1996) 667-672

Yang X., Liu S., Jiao J., Zhang M., Duan J., Li L., Liu C.: Hydrodynamic Modeling and Mathematical Simulation of Flow Fields and Temperature Profile for Molten Stainless Steel in an asymmetrical T-type Single-strand Continuous Tundish with Arch or Round Hole(s) at Dam Bottom, Steel Research International, 83, 3 (2012), 269-287

Merder T., Pieprzyca J.: Optimization fo Two-strand Industrial Tundish Work with Use of Turbulence Inhibitor: Physical and Numerical Modeling, Steel Research International, 83, 11 (2012), 1029-1038

Meijie Z., Huazhi G., Ao H., Hongxi Z., Chengji D.: Numerical Simulation and Industrial Practice of Inclusion Removal from Molten Steel by Gas Bottom-blowing in Continuous Casting Tundish, Journal of Mining Metallurgical Section B, 47, 2 (2011), 137-147

Zhang M.J., Gu H.Z., Huang A., Zhu H.X., Deng C.J.: Physical and Mathemtical Modeling of Inclusion Removal with Gas Bottom-blowing in Continuous Casting Tundish, Journal of Mining Metallurgical Section B, 47, 1 (2011), 37-44

Falkus J., Drożdż P.: Assessing Continuous Casting Tundish Operation with a New-Generation Impact Pad, Metallurgy and Foundry Engineering, 30, 1 (2004), 23-30

Solorio-Diaz G., Davila-Morales R., Barreto-Sandoval J.D.J., Vargara-Hernandez H.J., Ramos-Banderas A., Galvan S.R.: Numerical Modelling of Dissipation Phenomena in a New Ladle Shroud for Fluidynamic Control and its Effect on Inclusions removal in a Slab Tundish, Steel Research International, 85, 5 (2013), 863-874

Chattopadhyay K., Isac M., Guthrie R.I.L.: Physical and Mathematical Modelling of Inert Gas Shrouding in a Tundish, ISIJ International, 51, 4 (2011), 573-580

Wang G., Yun M., Zhang C., Xiao G.: Flow Mechnism of Molten Steel

in a Single-strand Slab Caster Tudnish Based on the Rsidence Time Distribution Curve and Data, ISIJ International, 55, 5 (2015), 984-992

Siddiqui M.I.H., Jha P.K.: Numerical Investigation of Inclusion Behaviour in a Multi-strand Tudish during Strand Blockages, Journal of The Institution of Engineers (India): Series D, 96, 2 (2015), 123-130

Cwudziński A., Jowsa J.: Numerical Simulation Heat Transfer in the Slab Tundish, Metallurgy and Foundry Engineering, 33, 2 (2007), 97-103



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