Optimization of the Induction Heating Process in Order to Achieve Uniform Surface Temperature
Lenka Jakubovičová, Andrej Gašparec, Peter Kopas, Milan Sága
Abstract
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Lenka Jakubovičová, Andrej Gašparec, Peter Kopas, Milan Sága
Abstract
Open-access reader
The physics of the induction heating is based on coupling of the electromagnetism and heat transfer. The main heat source during induction heating is resistive heating caused by eddy currents in the heated specimen. The geometrical position of the inductors influences the final surface temperature distribution. There are many technological processes which require uniform surface temperature like process of induction hardening. The scope of the article is to show the numerical approach to optimize geometrical dimensions of the induction heating process in order to reach uniform surface temperature on heated specimen.
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The physics of the induction heating is based on coupling of the electromagnetism and heat transfer. The main heat source during induction heating is resistive heating caused by eddy currents in the heated specimen. The geometrical position of the inductors influences the final surface temperature distribution. There are many technological processes which require uniform surface temperature like process of induction hardening. The scope of the article is to show the numerical approach to optimize geometrical dimensions of the induction heating process in order to reach uniform surface temperature on heated specimen.
Key concepts: Induction heating, Induction hardening, Eddy current, Mechanics, Materials science, Electromagnetic induction, Joule heating, Heat transfer