CFD Model Study of a New Four-Port Submerged Entry Nozzle for Decreasing the Turbulence in Slab Casting Mold
Author(s) -
Debasish Chatterjee
Publication year - 2013
Publication title -
isrn metallurgy
Language(s) - English
Resource type - Journals
ISSN - 2090-8717
DOI - 10.1155/2013/981597
Subject(s) - nozzle , turbulence , mold , volume of fluid method , slab , port (circuit theory) , computational fluid dynamics , casting , materials science , slag (welding) , breakout , ladle , mechanics , mechanical engineering , continuous casting , water model , metallurgy , flow (mathematics) , engineering , composite material , structural engineering , physics , finance , economics , quantum mechanics , molecular dynamics
In recent years, the continuous casting process in which molten metal is constantly cast into semifinished shapes has been widely adopted in the steel and nonferrous metal producing industry, mainly due to its economic advantages associated with increased yields and the elimination of intermediate processing steps. Turbulent flow in submerged entrance nozzle and mold of continuous casting is associated with costly failure such as the entrainment of slag inclusions and the formation of surface defects. A number of previously studies have analyzed the flow. A CFD model study has done to decrease the turbulence within the mold by developing a 4-port submerged entry nozzle in comparison with conventional 2-port submerged entry nozzle. VOF (volume of fluid) simulation study has been done to find out the effect of turbulence within mold on slag metal interaction, level fluctuation, and risk of breakout. In all the cases the performance of new 4-port SEN over 2-port SEN has been compared by plotting graph.
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