Assessing Fixed and Moving Mesh Methods for Hydrodynamic Free Surface Simulation in Induction Melting

P. Garcia-Michelena*, O. Gordo-Burgoa, N. Herrero-Dorca, I. Vicario, I. Crespo, G. Arruebarrena, X. Chamorro

*Corresponding author for this work

Research output: Contribution to conferencePaperpeer-review

Abstract

This study develops a coupled finite element method (FEM) approach to optimize induction-melting processes by accurately simulating multiphysics phenomena. It integrates a magneto-hydrodynamic model to represent magnetic fields and Lorentz forces, crucial for fluid flow and pressure fields. Comparing fixed and moving mesh techniques, it assesses their effectiveness in capturing free surface deformation. Experimental validation in an aluminum induction-melting furnace confirms the model's accuracy. Insights gained contribute to advancing computational methods in metallurgical process optimization, particularly in understanding magneto-hydrodynamic behavior during induction melting.

Original languageEnglish
Pages766-767
Number of pages2
Publication statusPublished - 2024
Event75th World Foundry Congress, WFC 2024 - Deyang, China
Duration: 25 Oct 202430 Oct 2024

Conference

Conference75th World Foundry Congress, WFC 2024
Country/TerritoryChina
CityDeyang
Period25/10/2430/10/24

Keywords

  • induction melting
  • multiphysics modelling

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