Numerical Simulation of Molten Steel Flow under FC Mold Magnetic Field

- Organization:
- The Minerals, Metals and Materials Society
- Pages:
- 9
- File Size:
- 1172 KB
- Publication Date:
- Jan 1, 2005
Abstract
Keywords: FC mold, Argon, Magnetic, Solidification Fluid flow plays a significant role for steel surface quality in continuous casting. Although water models are able to model fluid flow, the flow pattern is not of practical interest since the moving solidifying shell cannot be accounted. Computer modeling has become a popular and dependable tool to analyze the complex phenomena occurring in continuous casting. In this numerical simulation we coupled momentum and energy equations considering the solidification of steel along with turbulence ?-e model. The vertical bending mold is equipped with bifurcated nozzle with 15 degrees of port angle. FC mold is supplied with DC induced magnetic fields. Influence of argon and magnetic fields on molten steel flow and heat transfer is investigated by solving momentum equations adding source terms due to multiphase ? magneto hydrodynamics. The results show that magnetic fields reduce the jet velocity from port by lower magnetic core induced field but the influence on meniscus velocity is complex to describe. Magnetic fields increase surface temperature and homogenize its distribution on surface and inside a mold.
Citation
APA:
(2005) Numerical Simulation of Molten Steel Flow under FC Mold Magnetic FieldMLA: Numerical Simulation of Molten Steel Flow under FC Mold Magnetic Field. The Minerals, Metals and Materials Society, 2005.