Continuous cross-period single phase shift control for dual active bridge converters

被引:0
|
作者
Veréb S. [1 ]
Futó A. [1 ]
Sütő Z. [1 ]
Balogh A. [1 ]
Varjasi I. [1 ]
机构
[1] Department of Automation and Applied Informatics, Budapest University of Technology and Economics, Magyar tudósok krt. 2. (Bldg. Q.), Budapest
来源
Renewable Energy and Power Quality Journal | 2021年 / 19卷
关键词
400HZ transformer; DAB convertor; Isolated converter; Power conversion;
D O I
10.24084/repqj19.262
中图分类号
TU318 [结构设计];
学科分类号
摘要
The dynamic load transient response of dual active bridge converters is mainly dependent on the switching frequency, leakage inductance and capacitor bank size. Traditional singe phase shift control mechanism can react slowly to a rapid load change, especially in applications where the switching frequency is low. Several control algorithms were published throughout the years, however, few of them are focusing on transient behavior. In this paper a novel control technique is presented which aims for dynamic performance. The mathematical basis of operation is presented and an appropriate control scheme is proposed, which is tested in a real application. The study reveled that the continuous cross-period single phase shift control technique has better load transient response than the traditional singe phase shift method. © 2021, European Association for the Development of Renewable Energy, Environment and Power Quality (EA4EPQ). All rights reserved.
引用
收藏
页码:222 / 228
页数:6
相关论文
共 33 条
  • [1] Adaptive dead time compensation for cross-period single phase shift control of dual active bridge converters
    Veréb S.
    Futó A.
    Sütó Z.
    Balogh A.
    Varjasi I.
    Renewable Energy and Power Quality Journal, 2020, 18 : 327 - 332
  • [2] Adaptive Dead Time Compensation for Continuous Cross-Period Single Phase-Shift Control of Dual Active Bridge Converters
    Veréb S.
    Futó A.
    Sütő Z.
    Balogh A.
    Varjasi I.
    Renewable Energy and Power Quality Journal, 2022, 20 : 256 - 262
  • [3] LCross-Period Single Phase Shift Control Technique for High Power and Low Frequency Dual Active Bridge Converters
    Vereb, Szabolcs
    Futo, Andras
    Suto, Zoltan
    Blogh, Attila
    Varjasi, Istvan
    2019 19TH INTERNATIONAL CONFERENCE ON ELECTRICAL DRIVES & POWER ELECTRONICS (EDPE), 2019, : 385 - 390
  • [4] A computationally efficient robust voltage control for a single phase dual active bridge
    Ullah, Nasim
    Farooq, Zaheer
    Zaman, Taimur
    Sami, Irfan
    Ibeas, Asier
    Techato, Kuaanan
    Chowdhury, Md Shahariar
    Muyeen, Sm
    ENERGY REPORTS, 2020, 6 : 3346 - 3356
  • [5] Single Pulse-Width-Modulation Strategy for Dual-Active Bridge Converters
    Byen, Byeng-Joo
    Jeong, Byong-Hwan
    Choe, Gyu-Ha
    JOURNAL OF POWER ELECTRONICS, 2018, 18 (01) : 137 - 146
  • [6] Transformer Current Ringing in Dual Active Bridge Converters
    Qin, Zian
    Shen, Zhan
    Blaabjerg, Frede
    Bauer, Pavol
    IEEE TRANSACTIONS ON INDUSTRIAL ELECTRONICS, 2021, 68 (12) : 12130 - 12140
  • [7] Design and Control of Series-DC Wind Farms based on Three-Phase Dual Active Bridge Converters
    Hussain, Hussain A.
    Al-Deen, Kareem A. Nour
    2022 IEEE ENERGY CONVERSION CONGRESS AND EXPOSITION (ECCE), 2022,
  • [8] Software-Based Power Sharing Control in Parallel Dual-Output Phase-Shift Full-Bridge Converters
    Pittala, Lohith Kumar
    Geng, Jiayi
    Baldisserri, Sara
    Mandrioli, Riccardo
    Ricco, Mattia
    Grandi, Gabriele
    18TH INTERNATIONAL CONFERENCE ON COMPATIBILITY, POWER ELECTRONICS AND POWER ENGINEERING, CPE-POWERENG 2024, 2024,
  • [9] Stability analysis of digitally controlled dual active bridge converters
    Shi, Ling
    Lei, Wanjun
    Li, Zhuoqiang
    Cui, Yao
    Huang, Jun
    Wang, Yue
    JOURNAL OF MODERN POWER SYSTEMS AND CLEAN ENERGY, 2018, 6 (02) : 375 - 383
  • [10] An Asymmetrical Phase-Shift Scheme of Three-Phase Dual Active Bridge With Minimum Current Root-Mean-Square Value Control
    Chen, Hui
    Ouyang, Shaodi
    Liu, Jinjun
    Li, Xianzao
    IEEE TRANSACTIONS ON POWER ELECTRONICS, 2022, 37 (12) : 14343 - 14361