随机条件下基于模糊逻辑控制的新型直接功率控制改善WT-DFIG系统电能质量

IF 3.1 Q1 ENGINEERING, MULTIDISCIPLINARY INTERNATIONAL JOURNAL OF MODELLING AND SIMULATION Pub Date : 2023-10-20 DOI:10.1080/02286203.2023.2270757
Karim Fathi Sayeh, Salah Tamalouzt, Younes Sahri
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To reflect a real WECS operation, this study considers the wind’s random behaviour in successive and continuous ways throughout all WT-DFIG operating modes. Also, it takes into consideration all compensated local reactive power modes. The studied system and the proposed control were tested under MATLAB/Simulink environment. The obtained results showed the high effectiveness of the proposed control in terms of response time, robustness and ease. Consequently, C-DPC’s drawbacks are eliminated, and the ripples in compensated local reactive and produced active powers are reduced. 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引用次数: 0

摘要

摘要本文采用一种基于模糊控制器(FLC-DPC)的新型直接功率控制技术对风能转换系统(WECS)的DFIG进行控制和控制。在该策略中,模糊控制器取代了迟滞调节器和开关表。为了提高控制能力,克服传统DPC (C-DPC)技术的缺陷,该控制依赖于有功功率和无功功率的误差。通过FLC-DPC得到了适合逆变器的转子电压矢量。将所提出的控制策略应用于WT-DFIG系统,以研究其有效性。为了反映真实的wcs运行,本研究考虑了风在所有WT-DFIG运行模式中连续和连续的随机行为。同时,考虑了所有补偿的局部无功模式。在MATLAB/Simulink环境下对所研究的系统和所提出的控制方法进行了测试。实验结果表明,所提出的控制方法在响应时间、鲁棒性和易用性方面具有较高的有效性。因此,消除了C-DPC的缺点,减少了补偿的局部无功功率和产生的有功功率的波动。此外,还降低了注入电流的总谐波畸变(THDs),提高了注入电流的质量。关键词:可再生能源风电转换系统dfigdpc模糊逻辑控制披露声明作者未发现潜在利益冲突。作者简介:karim Fathi Sayeh目前是阿尔及利亚贝加亚大学可再生能源系统控制专业的博士生。他于2021年获得阿尔及利亚杰尔法大学机电工程硕士学位。他的研究领域包括人工智能,混合可再生能源系统,非线性和智能控制,以及能源管理。Salah Tamalouzt出生于贝加亚(阿尔及利亚)。他分别获得了Bejaia大学和Batna大学的电气工程工程文凭,专攻电气网络,以及电气工程硕士学位,专攻电力电子。2017年获北京大学博士学位。自2019年起,任清华大学电气工程系a级高级讲师、高级研究员。主要研究方向为电力电子学、可再生能源和混合能源系统(如光伏系统、风力系统、燃料电池、氢气)的建模、控制与管理、混合存储、多源可再生能源系统的能源管理、微电网的监督与优化、可再生能源系统的人工智能控制与优化,主要研究方向为电机和驱动器的建模与控制。Younes Sahri出生在阿尔及利亚的Mostaganem。他于2017年获得阿尔及利亚布默德斯大学工业电气工程硕士学位。他于2022年获得贝加亚大学控制与能源转换专业博士学位。他曾在贝加亚大学担任助理教授和研究员5年,研究领域为电气和粉末控制。他的研究兴趣包括可再生能源;电机;非线性智能电源控制与能量管理人工智能:模糊/神经网络、神经模糊、深度学习和强化学习;和混合能源系统。
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Improvement of power quality in WT-DFIG systems using novel direct power control based on fuzzy logic control under randomness conditions
ABSTRACTIn this paper, a novel direct power control technique founded on fuzzy logic controller (FLC-DPC) is selected to master and control the DFIG for wind energy conversion system (WECS). The fuzzy logic controller replaces both hysteresis regulators and the switching table in the proposed strategy. Seeking to enhance the control and overcome the defects associated with the conventional DPC (C-DPC) technique, this control depends on the errors of both active and reactive powers. The suitable rotor voltage vector for the inverter is obtained by FLC-DPC. The proposed control strategy is applied to the WT-DFIG system, in order to study its effectiveness. To reflect a real WECS operation, this study considers the wind’s random behaviour in successive and continuous ways throughout all WT-DFIG operating modes. Also, it takes into consideration all compensated local reactive power modes. The studied system and the proposed control were tested under MATLAB/Simulink environment. The obtained results showed the high effectiveness of the proposed control in terms of response time, robustness and ease. Consequently, C-DPC’s drawbacks are eliminated, and the ripples in compensated local reactive and produced active powers are reduced. Additionally, the total harmonic distortions (THDs) of injected currents are reduced, which improves their quality.KEYWORDS: Renewable energywind power conversion systemDFIGDPCfuzzy logic control Disclosure statementNo potential conflict of interest was reported by the author(s).Additional informationNotes on contributorsKarim Fathi SayehKarim Fathi Sayeh is currently a Ph.D. candidate in Renewable Energy Systems Control at the University of Bejaia, Algeria. He has a Master's in Electromechanical Engineering from the University of Djelfa, Algeria in 2021. His areas of research interest encompass Artificial Intelligence, Hybrid Renewable Energy Systems, Non-linear and Intelligent Control, as well as Energy Management.Salah TamalouztSalah Tamalouzt was born in Bejaia (Algeria). He received an engineering diploma in Electrical Engineering, specializing in Electrical Networks, and a Magister in Electrical Engineering, specializing in Power Electronics, from the University of Bejaia and the University of Batna, respectively. In 2017, he obtained his PhD diploma from the University of Bejaia. Since 2019, he has been a Senior Lecturer Class A and a Senior Researcher in the Electrical Engineering Department at the University. His research interests include Power Electronics, Modeling, Control and Management of Renewable Energy and Hybrid Energy Systems (such as Photovoltaic Systems, Wind Systems, Fuel Cells, Hydrogen), Hybrid Storage, Energy Management for Multi-Source Renewable Energy Systems, Supervision and Optimization of Micro-Grids, as well as Control and Optimization by Artificial Intelligence of Renewable Energy Systems, with a focus on Modeling and Control of Electric Machines and Drives.Younes SahriYounes Sahri was born in Mostaganem, Algeria. He received his Master's degree in Industrial Electrical Engineering from Université de Boumerdes, Algeria in 2017. He obtained a PhD (Doctorate) degree in Control and Energy Conversion from Université de Bejaia in 2022. He was an Assistant Professor & Researcher for 5 years at Université de Bejaia in the field of Electrical & Poder Control. His research interests include Renewable Energies; Electrical Machines; Nonlinear, Intelligent Power Control and Energy Management; Artificial Intelligence: Fuzzy/Neural Networks, Neuro-Fuzzy, Deep Learning & Reinforcement Learning; and Hybrid Energy Systems.
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来源期刊
INTERNATIONAL JOURNAL OF MODELLING AND SIMULATION
INTERNATIONAL JOURNAL OF MODELLING AND SIMULATION Engineering-Industrial and Manufacturing Engineering
CiteScore
6.10
自引率
32.30%
发文量
66
期刊介绍: This journal was first published in 1981 and covers languages, hardware, software, methodology, identification, numerical methods, graphical methods, VLSI, microcomputers in simulation, and applications in all fields. It appears quarterly.
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