Modeling and Analysis of Three-Phase Active Power Filter Integrated Photovoltaic as a Reactive Power Compensator Using the Simulink Matlab Tool

Setivono, Sunny Arief Sudiro, Eri Prasetyo Wibowo
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Abstract

This paper presents an analysis of the modeling of reactive power compensation using renewable energy from sunlight through photovoltaic to eliminate harmonic signals in the electricity network with a three-phase active power system filter. Electric energy supply comes from three-phase electricity sources in the form of a sinusoid. Non-linear loads such as electronic devices and electrical equipment connected to the grid generate harmonics signals; can make the format of electrical energy distorted. This nonlinear load draws electric current in the form of non-sinusoid. This format increases Total Harmonic Distortion (THD), thereby worsening the performance of electrical equipment. An active power filter is a very effective method in reducing harmonics signals and increasing the quality performance of electricity. This power filter works by injecting compensation current into the grid. The energy that is injected comes from the direct current output voltage (DC) of the photovoltaic link stored in the capacitor via a Voltage Source Inverter (VSI) switch. The compensation current has the same format as the harmonics current but differs in 180°. The main parts of this power filter include the Reference Signal Generating Unit, PI Controller, VSI Switch Signal Ignition Gate Generator, Energy Storage Circuit (Battery), and Photovoltaic. Simulation modeling using Matlab Simulink Tools to reduce THD levels by IEEE 519 standards. Simulation results show a significant decrease in Total Harmonic Distortion (THD), where the grid before compensation contains THD of 29.74% and after injection of 2.25%. So this modeling is worth proposing as an active filter in a power system.
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基于Simulink的三相有源滤波器集成光伏无功补偿器建模与分析
本文分析了利用太阳能可再生能源通过光伏发电消除电网谐波信号的无功补偿模型,并提出了三相有源滤波器。电能以正弦波的形式来自三相电源。连接到电网的电子设备和电气设备等非线性负载产生谐波信号;可使电能的格式失真。这种非线性负载以非正弦波的形式吸收电流。这种格式增加了总谐波失真(THD),从而恶化了电气设备的性能。有源电力滤波器是降低谐波信号、提高电力质量性能的有效方法。这种电力滤波器通过向电网注入补偿电流来工作。注入的能量来自光伏链路的直流输出电压(DC),通过电压源逆变器(VSI)开关存储在电容器中。补偿电流与谐波电流格式相同,但存在180°的差异。该电源滤波器的主要组成部分包括参考信号产生单元、PI控制器、VSI开关信号点火门发生器、储能电路(电池)和光伏。利用Matlab Simulink工具进行仿真建模,降低符合IEEE 519标准的THD水平。仿真结果表明,补偿前的电网总谐波失真(THD)显著降低,补偿后的电网总谐波失真为29.74%,补偿后的电网总谐波失真为2.25%。因此,该模型可作为电力系统中的有源滤波器。
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