Based on Optimized Mag-thermal Coupling Method Simulation Research on Temperature Rise of Switching Power Transformer

In this study, a bidirectional mag-thermal coupling method is used to simulate the temperature rise of the switching power supply transformer. According to the loss and temperature rise characteristics of the transformer, theoretical analysis and simulation are carried out. A set of optimized windin...

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Veröffentlicht in:Journal of physics. Conference series 2020-10, Vol.1639 (1), p.12074
Hauptverfasser: Qian, Jiahao, Wang, Xuming, Huang, Liqiu, Xu, Hong, Lou, Jianyong
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container_title Journal of physics. Conference series
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creator Qian, Jiahao
Wang, Xuming
Huang, Liqiu
Xu, Hong
Lou, Jianyong
description In this study, a bidirectional mag-thermal coupling method is used to simulate the temperature rise of the switching power supply transformer. According to the loss and temperature rise characteristics of the transformer, theoretical analysis and simulation are carried out. A set of optimized windings and design methods based on the upper limit of temperature rise are proposed. The simulation results show that the optimized windings reduce the winding loss, and improve the efficiency of the transformer by 5%, and reduce the temperature rise by 10%. The average temperature rise curve is consistent with the experimental ones of the transformer. Compared with unidirectional coupling, the method greatly improves the simulation accuracy by 4%. This research has certain guiding significance for the thermal design of switching power transformer.
doi_str_mv 10.1088/1742-6596/1639/1/012074
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subjects Coils (windings)
Design optimization
Physics
Simulation
Switching
Thermal coupling
Thermal design
Thermal simulation
Transformers
title Based on Optimized Mag-thermal Coupling Method Simulation Research on Temperature Rise of Switching Power Transformer
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