Design and controller implementation of 3.3 kW bridgeless boost-fed three-level resonant converter for EV battery charging

被引:0
作者
N. J. Merlin Mary
Shelas Sathyan
机构
[1] National Institute of Technology Tiruchirappalli,
来源
Electrical Engineering | 2022年 / 104卷
关键词
Battery charger; Modified series–parallel resonant converter; Three-level; Electric vehicle; Bridgeless; Interleaved; AC–DC power converters;
D O I
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中图分类号
学科分类号
摘要
This paper presents the systematic design methodology of a 3.3 kW, level 2 battery charger with improved grid power factor for EV applications. The charging of the battery bank from the utility grid through bridgeless interleaved boost (BIB) converter and the proposed three-level modified series–parallel resonant converter is explained in detail. The proposed topology offers low voltage stress equal to half of the DC link voltage across the switches as three-level is implemented in the resonant stage. The transformer parasitics are taken into consideration and the design of resonant stage for frequency modulation is elaborated. One of the major concerns of the charging system is the grid power factor which is largely affected by power electronic switching operation. The detailed controller design procedure for power factor correction of BIB and DC link voltage regulation is elaborated in this paper. Simulation results obtained using PSIM software prove that the power factor is close to unity with less supply current total harmonic distortion as per IEC 61000-3-2 standard. The proposed resonant converter switches achieve zero voltage switching for above resonant frequency operation.
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页码:1935 / 1949
页数:14
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  • [1] Husain I(2021)Electric drive technology trends, challenges, and opportunities for future electric vehicles Proc IEEE 109 1039-1059
  • [2] Li S(2013)Single-stage resonant battery charger with inherent power factor correction for electric vehicles IEEE Trans Veh Technol 62 4336-4344
  • [3] Deng J(2020)Analysis of a synergetically controlled two-stage three-phase DC/AC buck-boost converter CPSS Trans Power Electron Appl 5 34-53
  • [4] Mi CC(2013)A high-efficient nonisolated single-stage on-board battery charger for electric vehicles IEEE Trans Power Electron 28 5746-5757
  • [5] Antivachis M(2014)Design and analysis of a full-bridge LLC-based PEV charger optimized for wide battery voltage range IEEE Trans Veh Technol 63 1603-1613
  • [6] Anderson JA(2019)An interleaved totem-pole bridgeless boost PFC converter with soft-switching capability adopting phase-shifting control IEEE Trans Power Electron 34 10610-10618
  • [7] Bortis D(2011)A high-performance single-phase bridgeless interleaved PFC converter for plug-in hybrid electric vehicle battery chargers IEEE Trans Ind Appl 47 1833-1843
  • [8] Kolar JW(2020)A single-stage interleaved resonant bridgeless boost rectifier with high-frequency isolation IEEE J Emerg Sel Top Power Electron 8 1767-1781
  • [9] Oh C(2016)Full-range soft-switching-isolated buck-boost converters with integrated interleaved boost converter and phase-shifted control IEEE Trans Power Electron 31 987-999
  • [10] Kim D(2019)Analysis and design of the soft-switched clamped-resonant interleaved boost converter CPSS Trans Power Electron Appl 4 276-287