Shutari Hussein, Ibrahim Taib, Bin Mohd Nor Nursyarizal, Alharthi Yahya Z, Abdulrab Hakim
Department of Electrical and Electronic Engineering, Universiti Teknologi PETRONAS, Seri Iskandar, 32610, Perak, Malaysia.
Department of Electrical Engineering College of Engineering, University of Hafr Albatin, Hafr Al Batin, 39524, Saudi Arabia.
Heliyon. 2024 May 31;10(12):e32032. doi: 10.1016/j.heliyon.2024.e32032. eCollection 2024 Jun 30.
The growing interest in wind power technology is motivating researchers and decision-makers to focus on maximizing wind energy extraction and enhancing the quality of power integrated into the grid. Over the past decades, significant advancements have been made in Wind Energy Conversion Systems (WECS), such as moving to variable speed wind turbines (VSWT), using various generator types, and interfacing with many power electronic converter topologies. Recently, the majority of wind turbine industries have adopted the VSWT, which is based on the permanent magnet synchronous generator (PMSG) and incorporates a fully controlled power electronic converter (FCPEC) topology due to its notable features of full controllability, ultimately enhancing the efficiency and power quality of the WECS. This paper presents a concise overview of the PMSG-VSWT system and comprehensively reviews the most recent control approaches developed for the FCPEC that play a crucial role in the operation and performance of the PMSG-VSWT system. The paper begins with a comprehensive review of the Maximum Power Extraction Algorithms (MPEA) used in the PMSG-VSWT system, as reported in esteemed research articles over recent years. It investigates the fundamental concepts of each MPEA, examining their advantages and disadvantages, providing critical comparisons, highlighting related work, and discussing the advancements achieved in this field. Subsequently, the paper reviews the prevalent control schemes for the Grid-Side Inverter and Machine-Side Rectifier (GSI/MSR) in the FCPEC. It covers common control approaches such as vector control, direct control, sliding mode control, and model productive control, including modern and intelligent techniques. Additionally, the paper details recent improvements and approaches adopted to address challenges in these common schemes, involving optimizing algorithms and adaptive techniques. The paper provides essential insights into trends, improvements, and challenges in the domain and acts as a crucial reference for researchers working with PMSG-VSWT systems.
对风力发电技术日益增长的兴趣促使研究人员和决策者专注于最大限度地提取风能,并提高并入电网的电力质量。在过去几十年中,风能转换系统(WECS)取得了重大进展,例如转向变速风力涡轮机(VSWT)、使用各种发电机类型以及与多种电力电子变流器拓扑结构相连接。最近,大多数风力涡轮机行业都采用了VSWT,它基于永磁同步发电机(PMSG),并采用了全控电力电子变流器(FCPEC)拓扑结构,因为其具有全可控性的显著特点,最终提高了WECS的效率和电能质量。本文简要概述了PMSG-VSWT系统,并全面回顾了为FCPEC开发的最新控制方法,这些方法在PMSG-VSWT系统的运行和性能中起着至关重要的作用。本文首先全面回顾了近年来著名研究文章中报道的PMSG-VSWT系统中使用的最大功率提取算法(MPEA)。它研究了每种MPEA的基本概念,分析了它们的优缺点,进行了关键比较,突出了相关工作,并讨论了该领域取得的进展。随后,本文回顾了FCPEC中电网侧逆变器和电机侧整流器(GSI/MSR)的普遍控制方案。它涵盖了矢量控制、直接控制、滑模控制和模型预测控制等常见控制方法,包括现代和智能技术。此外,本文详细介绍了为应对这些常见方案中的挑战而采用的最新改进和方法,包括优化算法和自适应技术。本文提供了该领域趋势、改进和挑战的重要见解,并为研究PMSG-VSWT系统的研究人员提供了重要参考。