A Simplified Calculation Method of Heat Source Model for Induction Heating

Line heating is used in forming the complex curve plates of ships, and this process is becoming integrated into automated tools. Induction heating equipment has become commonly used in automatic line heating. When applying automated equipment, it is necessary to calculate the relationship between th...

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Veröffentlicht in:Materials 2019-09, Vol.12 (18), p.2938
Hauptverfasser: Dong, Hongbao, Zhao, Yao, Yuan, Hua, Hu, Xiaocai, Yang, Zhen
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Zhao, Yao
Yuan, Hua
Hu, Xiaocai
Yang, Zhen
description Line heating is used in forming the complex curve plates of ships, and this process is becoming integrated into automated tools. Induction heating equipment has become commonly used in automatic line heating. When applying automated equipment, it is necessary to calculate the relationship between the heating parameters and the temperature field. Numerical methods are primarily used to accomplish the calculations for induction heating. This computation process requires repeated iterations to obtain a stable heat generation rate. Once the heat generation rate changes significantly, a recalculation takes place. Due to the relative position of the coil and plate changes during heating, the grid needs to be frequently re-divided during computation, which dramatically increases the total computation time. In this paper, through an analysis of the computation process for induction heating, the root node that restricts the computation efficiency in the conventional electromagnetic-thermal computation process was found. A method that uses a Gaussian function to represent the heat flux was proposed to replace the electromagnetic computation. The heat flux is the input for calculating the temperature field, thus avoiding the calculation of the electromagnetic analysis during induction heating. Besides, an equivalence relationship for multi-coil was proposed in this paper. By comparing the results of the experiment and the numerical method, the proposed heat source model's effectiveness was verified.
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Induction heating equipment has become commonly used in automatic line heating. When applying automated equipment, it is necessary to calculate the relationship between the heating parameters and the temperature field. Numerical methods are primarily used to accomplish the calculations for induction heating. This computation process requires repeated iterations to obtain a stable heat generation rate. Once the heat generation rate changes significantly, a recalculation takes place. Due to the relative position of the coil and plate changes during heating, the grid needs to be frequently re-divided during computation, which dramatically increases the total computation time. In this paper, through an analysis of the computation process for induction heating, the root node that restricts the computation efficiency in the conventional electromagnetic-thermal computation process was found. A method that uses a Gaussian function to represent the heat flux was proposed to replace the electromagnetic computation. The heat flux is the input for calculating the temperature field, thus avoiding the calculation of the electromagnetic analysis during induction heating. Besides, an equivalence relationship for multi-coil was proposed in this paper. By comparing the results of the experiment and the numerical method, the proposed heat source model's effectiveness was verified.</description><identifier>ISSN: 1996-1944</identifier><identifier>EISSN: 1996-1944</identifier><identifier>DOI: 10.3390/ma12182938</identifier><identifier>PMID: 31514345</identifier><language>eng</language><publisher>Switzerland: MDPI AG</publisher><subject>Coils ; Efficiency ; Electric fields ; Electromagnetic induction ; Electromagnetism ; Heat flux ; Heat generation ; Heat transfer ; Heat treating ; Heating equipment ; Induction heating ; Magnetic fields ; Mathematical models ; Methods ; Numerical analysis ; Numerical methods ; Temperature distribution</subject><ispartof>Materials, 2019-09, Vol.12 (18), p.2938</ispartof><rights>2019 by the authors. Licensee MDPI, Basel, Switzerland. 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A method that uses a Gaussian function to represent the heat flux was proposed to replace the electromagnetic computation. The heat flux is the input for calculating the temperature field, thus avoiding the calculation of the electromagnetic analysis during induction heating. Besides, an equivalence relationship for multi-coil was proposed in this paper. 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subjects Coils
Efficiency
Electric fields
Electromagnetic induction
Electromagnetism
Heat flux
Heat generation
Heat transfer
Heat treating
Heating equipment
Induction heating
Magnetic fields
Mathematical models
Methods
Numerical analysis
Numerical methods
Temperature distribution
title A Simplified Calculation Method of Heat Source Model for Induction Heating
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