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Design of Soft-Switching Inverter Power Supply Based on PWM in the Microcontroller
Subject area: Science,Engineering and Technology · Area of research: Power Electronics
Abstract
In view of the event trend of contemporary power electronic technology towards shrinking and high frequency, the high frequency switch brings the shift loss state of devices. This analysis proposes a load commutation soft- shift electrical converter supported IR2104. The load of the electrical device uses acceptable resonant parts to understand automatic electrical converter shift of the electrical converter power offer to show off the IGBT, that reduces the input and turn-off losses. At the same time, the chip is employed to know the chip of the driving circuit and reduce the scale of the electrical converter. Beneath the operational standing of the circuit via simulation package, the driving signals and also the operating state of the soft-switching tube within the circuit are simulated and analyzed. The experimental results verify that the self-turning-off of the shift tube is achieved beneath the high-frequency soft-switching operating condition. On- off loss is reduced.
Keywords
inverter power supply; high-frequency switch; soft- switching; load commutation; chip drive
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How to cite this paper
@article{1703444,
author = {R. Barath, K. Sudharshan, Q. Umarhullahussainy, J. Jayarajan},
title = {Design of Soft-Switching Inverter Power Supply Based on PWM in the Microcontroller},
journal = {Iconic Research And Engineering Journals},
year = {2022},
volume = {5},
number = {11},
pages = {75-81},
issn = {2456-8880},
url = {https://www.irejournals.com/formatedpaper/1703444.pdf},
abstract = {In view of the event trend of contemporary power electronic technology towards shrinking and high frequency, the high frequency switch brings the shift loss state of devices. This analysis proposes a load commutation soft- shift electrical converter supported IR2104. The load of the electrical device uses acceptable resonant parts to understand automatic electrical converter shift of the electrical converter power offer to show off the IGBT, that reduces the input and turn-off losses. At the same time, the chip is employed to know the chip of the driving circuit and reduce the scale of the electrical converter. Beneath the operational standing of the circuit via simulation package, the driving signals and also the operating state of the soft-switching tube within the circuit are simulated and analyzed. The experimental results verify that the self-turning-off of the shift tube is achieved beneath the high-frequency soft-switching operating condition. On- off loss is reduced.},
keywords = {inverter power supply; high-frequency switch; soft- switching; load commutation; chip drive},
month = {May},
}