Optimal Solutions for Uniform Heating of a Non-Ferrous Bar by Electromagnetic Induction, Using Numerical Modeling

Teodor Leuca; Claudiu Mich-Vancea; Stefan Nagy

doi:10.4028/www.scientific.net/MSF.670.291

Paper Titles

Investigation of the Impact of the Operational Temperature on the Performance of a Surface Permanent Magnet Motor
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Coupled Field and Circuit Model Analysis of Permanent Magnet Synchronous Machine for Direct Torque Control Optimization
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Simple-Box-9 Coil System: A Novel Approach to Design of a Square Coil System for Producing Uniform Magnetic Fields
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Normal Flux Distribution at Step-Lap Joints of Si-Fe Wound Cores
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Optimal Solutions for Uniform Heating of a Non-Ferrous Bar by Electromagnetic Induction, Using Numerical Modeling
p.291

Magnetostatic Analysis of Multiple-Connected Problems by Boundary Integral Equations
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An Enhanced Multigrid Method for Fast Numerical Computation of the Magnetic Vector Potential
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Evaluation of Hexahedral Mesh Quality for Finite Element Method in Electromagnetics
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Improvements of Feedback Control Algorism in Two-Dimensional Vector Magnetic Property Measurements
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HomeMaterials Science ForumMaterials Science Forum Vol. 670Optimal Solutions for Uniform Heating of a...

Optimal Solutions for Uniform Heating of a Non-Ferrous Bar by Electromagnetic Induction, Using Numerical Modeling

Abstract:

The paper intends to present the numerical modelling of the electromagnetic phenomena coupled with the thermal ones when processing the semi-finished products made up of non-ferrous alloy, through electromagnetic induction with the purpose of obtaining a homogenous heating of the pieces in the shortest time. The purpose of the numerical modelling in this paper is to check cheap solutions to homogenize the intensity of the magnetic field according to the geometry of the inductor, by using a magnetic field intensifier or if it is possible to use the motion of the pieces inside the inductor.

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Periodical:

Materials Science Forum (Volume 670)

Pages:

291-298

DOI:

https://doi.org/10.4028/www.scientific.net/MSF.670.291

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Online since:

December 2010

Authors:

Teodor Leuca, Claudiu Mich-Vancea, Stefan Nagy

Keywords:

Electromagnetic Field (EMF), Induction Heating (IH), Numerical Modeling, Thermal Field

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References

[1] F. Hantila, E. Demeter, Numerical Solution of Electromagnetic Field Problems, Ed. Ari Press, Bucharest, (1995).

Google Scholar

[2] T. Leuca – Elemente de teoria câmpului electromagnetic, – Ed. Universităţii din Oradea – (2002).

Google Scholar

[3] V. Fireţeanu, T. Tudorache, Numerical Simulations of Continuous Induction Heating of Magnetic Billets and Sheet Taking into Acount the Temperature Dependence of Physical Properties, Proceedings of the International Induction Heating Seminar, 2001, Padua, Italy.

Google Scholar

[4] Yu. Pleshivtseva, A. Efimov, E. Rapoport, B. Nacke, A. Nikanorov, "Optimal design and control of induction heaters for forging industry, Int. Symp. on Heating by Electromagnetic Sources, 19-22 June 2007, Padua, Italy.

Google Scholar

[5] S. Galunin, M. Zlobina, Yu. Blinov, B. Nacke, et al, Numerical optimization in design of induction heating systems, Int. Symp. on Heating by EM Sources, 23-25 June 2004, Padua, Italy.

Google Scholar

[6] V. Nemkov, R. Goldstein, R. Rufini, Optimal design of induction coil with magnetic flux controllers, Int. Symp. on Heating by Electromagnetic Sources, 19-22 June 2007, Padua, Italy.

Google Scholar

[7] http/: www. fluxtrol. com.

Google Scholar

[8] J.D. Lavers, State of the art of numerical modelling for induction processes, International Symposium on Heating by Electromagnetic Sources, pp.13-25, 19-22 June 2007, Padua, Italy.

Google Scholar

[9] http/: www. inductro. ro.

Google Scholar

[10] http/: www. cedrat. com.

Google Scholar