Mathematical Modeling of Levitation Melting of Metals

Canadian Institute of Mining, Metallurgy and Petroleum
L. Gao K. Chattopadhyay G. F. Zhang Y. D. Yang Z. Shi A. McLean
Organization:
Canadian Institute of Mining, Metallurgy and Petroleum
Pages:
13
File Size:
1330 KB
Publication Date:
Jan 1, 2015

Abstract

Levitation melting of metals is one of the emerging applications of magnetic and electric fields in liquid metal refining. The varying magnetic field generates induced current inside the metal droplet and leads to the Joule heating effect and Lorentz force against gravity. This contactless process can avoid contamination from the crucible and can be used to produce high-purity materials. Visualization of the levitation melting process is difficult, and thus generally investigated by mathematical modeling. In the present study, a three-dimensional mathematical model of metal levitation was developed using finite element method for proper understanding of the levitation process. The effects of harmonic magnetic field frequency, coils power input, and sample size on levitation nickel droplet were investigated. Temporal evolution of temperature fields were predicted directly though the model. Levitation and balance condition of the droplet were investigated as well.
Citation

APA: L. Gao K. Chattopadhyay G. F. Zhang Y. D. Yang Z. Shi A. McLean  (2015)  Mathematical Modeling of Levitation Melting of Metals

MLA: L. Gao K. Chattopadhyay G. F. Zhang Y. D. Yang Z. Shi A. McLean Mathematical Modeling of Levitation Melting of Metals. Canadian Institute of Mining, Metallurgy and Petroleum, 2015.

Export
Purchase this Article for $25.00

Create a Guest account to purchase this file
- or -
Log in to your existing Guest account