Optimal design and implementation of a half-cycle generator with the range of 400 A and 100 kHz frequency

In this paper, a double-layer half-cycle generator (HCG) has been designed and built. The proposed HCG creates sinusoidal flow with 400 A peak and 5 µs pulse width which feeds RLC load with 100 kHz work frequency, within resonance mode. Previous HCGs have been designed based on saturable reactor (SR...

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Veröffentlicht in:Electrical engineering 2020-09, Vol.102 (3), p.1739-1753
Hauptverfasser: Alizadeh Pahlavani, Mohammad Reza, Shahraeini, Mojtaba, Dehestani Kolagar, Arash, Mosayebi, Mahdi
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container_end_page 1753
container_issue 3
container_start_page 1739
container_title Electrical engineering
container_volume 102
creator Alizadeh Pahlavani, Mohammad Reza
Shahraeini, Mojtaba
Dehestani Kolagar, Arash
Mosayebi, Mahdi
description In this paper, a double-layer half-cycle generator (HCG) has been designed and built. The proposed HCG creates sinusoidal flow with 400 A peak and 5 µs pulse width which feeds RLC load with 100 kHz work frequency, within resonance mode. Previous HCGs have been designed based on saturable reactor (SR). It should be noted that SR is a nonlinear element, and it will be distanced from its desirable performance upon change of temperature and under impact; however, a double-layer HCG has been proposed with no such defects. In proposed HCG, thyristor has been used instead of SR which is controllable, and it has none of aforementioned problems. Also, when SR is eliminated, its reverse retrieval needs no minority carriers. This way, sweep-out circuit may be also eliminated. From among other advantages of proposed HCG, reduction in number of circuit layers may be referred to, comparing to previous HCG. This results in reduction in number of equipment which in turn optimizes proposed HCG, in terms of volume and manufacturing costs. Finally, proposed HCG has been simulated in Matlab, while it has been implemented practically. Comparing simulation results and laboratory sample confirms correctness of relationships, in analytical design of HCG.
doi_str_mv 10.1007/s00202-020-00981-0
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subjects Circuits
Design
Economics and Management
Electrical Engineering
Electrical Machines and Networks
Energy Policy
Engineering
Minority carriers
Original Paper
Power Electronics
Production costs
Pulse duration
Reduction
Thyristors
title Optimal design and implementation of a half-cycle generator with the range of 400 A and 100 kHz frequency
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