Hysteresis current control of Vienna Rectifier for Electric Vehicle Charging Systems

被引:0
|
作者
Balasundaram B. [1 ]
Panchanathan S. [1 ]
机构
[1] Department of Electrical and Electronics Engineering, SRM Institute of Science and Technology, Kattankulathur,n Tamil Nadu, Chennai
关键词
Charging Stations; Electric Vehicles; Hysteresis Current Controller; Total Harmonic Distortion; Vienna Rectifier;
D O I
10.25103/jestr.172.19
中图分类号
学科分类号
摘要
The energy savings, pollution reduction, and environmental protection offered by electric vehicles are superior to those of fuel-powered vehicles. The availability of electric vehicle charging infrastructure is significantly less in India, which is becoming an impediment to the widespread use of electric vehicles due to the range and charging anxieties among the people. Modern power electronic converters play a vital role in electric vehicle charging applications. The output obtained from the converters is harmonic and distorted. The output voltage has to be enhanced to make the PI controller a hysteresis current controller for charging electric cars, and the ripples can be minimized using a Vienna rectifier. There is no harmonic content in the Vienna rectifier at the grid side, which improves the power factor and efficiency. A Vienna rectifier lowers the amount of power that switches use and increases the power density of the system for superior DC charging of electric vehicles. The THD value of the input current can be suppressed to a level below 5%. with the proposed hysteresis current controller and Vienna rectifier. The Vienna rectifier control simulation model is built in MATLAB or Simulink. © (2024) School of Science, DUTH. All rights reserved.
引用
收藏
页码:182 / 189
页数:7
相关论文
共 50 条
  • [21] Power Factor Control Algorithm for Matrix Rectifier for Battery Charging Systems of Electric Vehicles
    Kim, Jae-Chang
    Kwak, Sangshin
    Baek, Jeihoon
    2019 IEEE 89TH VEHICULAR TECHNOLOGY CONFERENCE (VTC2019-SPRING), 2019,
  • [22] Reliability Test on Vienna Rectifier for Wide Bandgap Devices in EV Charging Systems
    Balasundaram, Bharaneedharan
    Suresh, P.
    Rajendran, Parvathy
    Lee, It Ee
    Saleel, C. Ahamed
    IEEE ACCESS, 2025, 13 : 3072 - 3089
  • [23] An Intelligent Charging Control Method for Electric Vehicle Charging System
    Zheng, Liu
    Shao-Sheng, Fan
    2016 IEEE 2ND ANNUAL SOUTHERN POWER ELECTRONICS CONFERENCE (SPEC), 2016,
  • [24] Electric Vehicle Charging and Rural Distribution Systems
    Goolsby, Ryan T.
    2021 IEEE RURAL ELECTRIC POWER CONFERENCE (REPC 2021), 2021, : 3 - 7
  • [25] Impact of the Electric Vehicle Charging on the Power Systems
    Patel, Debasis Kumar
    Mansani, Swapna
    Goswami, Arup Kumar
    2022 IEEE INTERNATIONAL CONFERENCE ON POWER ELECTRONICS, DRIVES AND ENERGY SYSTEMS, PEDES, 2022,
  • [26] Electric Vehicle Charging Systems: Comprehensive Review
    Rachid, Aziz
    El Fadil, Hassan
    Gaouzi, Khawla
    Rachid, Kamal
    Lassioui, Abdellah
    El Idrissi, Zakariae
    Koundi, Mohamed
    ENERGIES, 2023, 16 (01)
  • [27] Intelligent Monitoring Systems for Electric Vehicle Charging
    Martins, Jaime A.
    Rodrigues, Joao M. F.
    APPLIED SCIENCES-BASEL, 2025, 15 (05):
  • [28] Simulation of Electric Vehicle Inductive Charging Systems
    Wang, Shuo
    Dorrell, David
    2015 IEEE 11TH INTERNATIONAL CONFERENCE ON POWER ELECTRONICS AND DRIVE SYSTEMS (PEDS 2015), 2015, : 399 - 404
  • [29] Flexible load control in electric power systems with distributed energy resources and electric vehicle charging
    Georgiev, Metody
    Stanev, Rad
    Krusteva, Anastassia
    2016 IEEE INTERNATIONAL POWER ELECTRONICS AND MOTION CONTROL CONFERENCE (PEMC), 2016, : 1034 - 1040
  • [30] Enabling Optimal Control Under Demand Elasticity for Electric Vehicle Charging Systems
    Fan, Guiyun
    Yang, Zhaoxing
    Jin, Haiming
    Gan, Xiaoying
    Wang, Xinbing
    IEEE TRANSACTIONS ON MOBILE COMPUTING, 2022, 21 (03) : 955 - 970