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Implementation of Shunt Active Power Filter(SAPF) algorithms

机译:并联有源电力滤波器(SAPF)算法的实现

摘要

Improving power quality has been the major research topic in last few decades due to flooding of semiconductor and other non-linear devices. The power quality of any source is judged by the some indexes defined by international bodies such harmonics factor, telephonic interference level (TIF) etc. Using the different harmonic compensation schemes we must be able to meet those index limits. This is very important in reference to performance and economy of operation. Power filters are widely used in modern electrical distribution system to eliminate the harmonics associated with it. The active power filter (APF) is one of power filters which have better dynamic performance. The APF needs an accurate control algorithm that provides robust performance under source and load unbalances. The control methods are responsible for generating the reference currents which used to trigger the Voltage Source Inverters (VSI). Thus, compensation of harmonics depends largely on the algorithm adopted. For any Shunt APF system there is various way of implementing the control block whose output goes to gate of the voltage source Inverter. Further, the harmonic and frequency has been modeled to propose a new control strategy for the shunt Active Power Filter. The Least Mean Square (LMS) algorithm is the basic estimation algorithms which estimate the parameters based on only present data. The Recursive Least Square (RLS) algorithm uses recursive method to estimate the parameters using both present and past values. In this thesis, main aim is to implement a basic control algorithm in MATLAB-SIMULINK first then the harmonic and frequency estimation part is implemented in MATLAB. Further the estimation part is implemented using the Arduino Mega 2560 Microcontroller for experimental validation.
机译:由于半导体和其他非线性设备的泛滥,提高电源质量已成为过去几十年的主要研究课题。任何来源的电能质量均由国际机构定义的一些指标来判断,例如谐波系数,电话干扰水平(TIF)等。使用不同的谐波补偿方案,我们必须能够满足那些指标限制。对于性能和经济性而言,这非常重要。电力滤波器广泛用于现代配电系统中,以消除与之相关的谐波。有源功率滤波器(APF)是具有更好动态性能的功率滤波器之一。 APF需要一种精确的控制算法,该算法可在源和负载不平衡情况下提供强大的性能。控制方法负责生成用于触发电压源逆变器(VSI)的参考电流。因此,谐波的补偿很大程度上取决于所采用的算法。对于任何并联APF系统,都有多种实现控制块的方法,该控制块的输出将到达电压源逆变器的栅极。此外,已经对谐波和频率进行建模,以提出用于并联有源功率滤波器的新控制策略。最小均方(LMS)算法是仅基于当前数据来估计参数的基本估计算法。递归最小二乘(RLS)算法使用递归方法使用当前值和过去值来估计参数。本文的主要目的是首先在MATLAB-SIMULINK中实现基本的控制算法,然后在MATLAB中实现谐波和频率估计部分。此外,估计部分是使用Arduino Mega 2560微控制器实现的,用于实验验证。

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    Gupta Rahul Kumar;

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  • 年度 2014
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