Analysis and design of LCS resonant cell based enhanced zero-voltage transition DC-DC boosting converter

An enhanced zero-voltage transition boosting converter (EZVTBC) is introduced here which belongs to higher-order family. It exhibits lower source current and load voltage ripples and also it maintains better voltage gain with respect to traditional step-up converter. The zero-voltage transi...

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Main Authors: Nagarajan Anandh, Fusic Sekaran Julius
Format: Article
Language:English
Published: Faculty of Technical Sciences in Cacak 2019-01-01
Series:Serbian Journal of Electrical Engineering
Subjects:
Online Access:http://www.doiserbia.nb.rs/img/doi/1451-4869/2019/1451-48691901105N.pdf
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spelling doaj-1abae76cc5fa4526bc097b189ea422142020-11-24T21:43:52ZengFaculty of Technical Sciences in CacakSerbian Journal of Electrical Engineering1451-48692217-71832019-01-0116110512110.2298/SJEE1901105N1451-48691901105NAnalysis and design of LCS resonant cell based enhanced zero-voltage transition DC-DC boosting converterNagarajan Anandh0Fusic Sekaran Julius1Manipal Institute of Technology, Manipal Academy of Higher Education, Department of Electrical and Electronics Engineering, Karnataka, IndiaThiagarajar College of Engineering, Department of Mechatronics Engineering, Tamil Nadu, IndiaAn enhanced zero-voltage transition boosting converter (EZVTBC) is introduced here which belongs to higher-order family. It exhibits lower source current and load voltage ripples and also it maintains better voltage gain with respect to traditional step-up converter. The zero-voltage transition is attained with an aid of a LCS resonant cell integrating Lr - Cr resonance tank network along with an extra switch. LCS resonant cell is the modified version of conventional ZVT switch cell and the salient feature of this cell is to eliminate peak current stress and conduction losses of main switch as this remains a predominant problem in hard-switched boost converter and it also improves efficiency. Initially, time domain expressions of EZVTBC are derived using Kirchhoff’s laws for different operational stages to predict the resonant transition phenomenon. The simulation is progressed in PSIM software in order to verify its soft-switching performance on a 12 - 24 V, 30 W converter and also dynamic performance of the converter has been studied with line and load variations. It is found that for rated load conditions, efficiency of the soft-switched converter is improved 5 to 10% approximately and resulted in 97%. Moreover the peak current stress and conduction losses were eliminated.http://www.doiserbia.nb.rs/img/doi/1451-4869/2019/1451-48691901105N.pdfenhanced ZVT boosting converterLCS resonant cellsoft-switchingzero-voltage transitionpeak current stress
collection DOAJ
language English
format Article
sources DOAJ
author Nagarajan Anandh
Fusic Sekaran Julius
spellingShingle Nagarajan Anandh
Fusic Sekaran Julius
Analysis and design of LCS resonant cell based enhanced zero-voltage transition DC-DC boosting converter
Serbian Journal of Electrical Engineering
enhanced ZVT boosting converter
LCS resonant cell
soft-switching
zero-voltage transition
peak current stress
author_facet Nagarajan Anandh
Fusic Sekaran Julius
author_sort Nagarajan Anandh
title Analysis and design of LCS resonant cell based enhanced zero-voltage transition DC-DC boosting converter
title_short Analysis and design of LCS resonant cell based enhanced zero-voltage transition DC-DC boosting converter
title_full Analysis and design of LCS resonant cell based enhanced zero-voltage transition DC-DC boosting converter
title_fullStr Analysis and design of LCS resonant cell based enhanced zero-voltage transition DC-DC boosting converter
title_full_unstemmed Analysis and design of LCS resonant cell based enhanced zero-voltage transition DC-DC boosting converter
title_sort analysis and design of lcs resonant cell based enhanced zero-voltage transition dc-dc boosting converter
publisher Faculty of Technical Sciences in Cacak
series Serbian Journal of Electrical Engineering
issn 1451-4869
2217-7183
publishDate 2019-01-01
description An enhanced zero-voltage transition boosting converter (EZVTBC) is introduced here which belongs to higher-order family. It exhibits lower source current and load voltage ripples and also it maintains better voltage gain with respect to traditional step-up converter. The zero-voltage transition is attained with an aid of a LCS resonant cell integrating Lr - Cr resonance tank network along with an extra switch. LCS resonant cell is the modified version of conventional ZVT switch cell and the salient feature of this cell is to eliminate peak current stress and conduction losses of main switch as this remains a predominant problem in hard-switched boost converter and it also improves efficiency. Initially, time domain expressions of EZVTBC are derived using Kirchhoff’s laws for different operational stages to predict the resonant transition phenomenon. The simulation is progressed in PSIM software in order to verify its soft-switching performance on a 12 - 24 V, 30 W converter and also dynamic performance of the converter has been studied with line and load variations. It is found that for rated load conditions, efficiency of the soft-switched converter is improved 5 to 10% approximately and resulted in 97%. Moreover the peak current stress and conduction losses were eliminated.
topic enhanced ZVT boosting converter
LCS resonant cell
soft-switching
zero-voltage transition
peak current stress
url http://www.doiserbia.nb.rs/img/doi/1451-4869/2019/1451-48691901105N.pdf
work_keys_str_mv AT nagarajananandh analysisanddesignoflcsresonantcellbasedenhancedzerovoltagetransitiondcdcboostingconverter
AT fusicsekaranjulius analysisanddesignoflcsresonantcellbasedenhancedzerovoltagetransitiondcdcboostingconverter
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