Nonlinear Predictive Direct Power Control Based on Space Vector Modulation of 3-Phase 3-Level Solar PV Integrated Unified Power Quality Conditioner

A. Dahdouh, L. Mazouz, Brahim Elkhalil Youcefa
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引用次数: 1

Abstract

This paper presents a hybrid feedback linearisation-based predictive direct power control strategies of the unified power quality conditioner (UPQC) combined with a photovoltaic generator (PVG) using space vector modulation technique for power quality enhancement. The PVG-UPQC is acting as a universal conditioner for power quality enhancement and renewable energy integration simultaneously, and it mitigates harmonics in both voltage and current caused by nonlinear loads in addition to reactive power compensation. The PVG-UPQC is made up of a dc bus powered by the photovoltaic generator that connects shunt and series active power filters. The shunt filter functions as a current source and compensates for current harmonics. The series filter compensates for voltage harmonics and fluctuations such voltage sag/swell by acting as a voltage source. In order to enhance the performances of PVG-UPQC, a hybrid control method based on FL -PDPC combined with a three-level SVM controller is proposed. The aims are to deliver compensation signals faster and more accurately under a variety of load conditions, as well as eliminate voltage and current harmonics while maintaining good dynamic response. The performance of the suggested control scheme is validated by extensive simulation results obtained by Matlab/Simulink for a sensitive nonlinear load. These results are compared with those obtained with a linear PI controller proves the superiority and effectiveness of FL-PDPC controller.
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基于空间矢量调制的三相三能级太阳能光伏一体化电能质量调节器非线性预测直接功率控制
针对统一电能质量调节器(UPQC)和光伏发电机组(PVG),提出了一种基于空间矢量调制技术提高电能质量的混合反馈线性化预测直接功率控制策略。PVG-UPQC作为一种通用调节器,可同时提高电能质量和可再生能源的整合,除了无功补偿外,它还可以减轻非线性负载引起的电压和电流谐波。PVG-UPQC由光伏发电机供电的直流母线组成,该母线连接并联和串联有源电源滤波器。并联滤波器作为电流源,对电流谐波进行补偿。串联滤波器通过充当电压源来补偿电压谐波和波动,如电压凹陷/膨胀。为了提高PVG-UPQC的性能,提出了一种基于FL -PDPC与三电平SVM控制器相结合的混合控制方法。其目的是在各种负载条件下更快,更准确地提供补偿信号,以及消除电压和电流谐波,同时保持良好的动态响应。通过Matlab/Simulink对敏感非线性负载的大量仿真结果验证了所提控制方案的性能。这些结果与线性PI控制器的结果进行了比较,证明了FL-PDPC控制器的优越性和有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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