并联无源谐波滤波器与失谐电抗器线间馈线减少谐波失真

L. Gumilar, Mokhammad Sholeh, Wahyu Sapto Nugroho
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摘要

当今对电力电子设备的需求越来越大。人类的每一项活动都离不开电力电子设备,如电机驱动电源、充电器、逆变器、控制系统等。这些设备的开关工作原理会产生谐波,因此它们被认为是非线性负载。电力系统中大量的电力电子设备造成了很高的谐波失真。THD和IHD是谐波的测量参数。单靠并联谐波无源滤波器不能降低高THD。因此,有必要增加失谐电抗器等附加装置作为附加设备,以提高电力谐波滤波器的性能。将失谐电抗器和并联无源谐波滤波器组合置于线间馈线母线上。这样做是为了避免在每个馈线上添加谐波滤波器。一般情况下,每个馈线都连接一个非线性负载,因此需要在每个馈线上安装谐波滤波器。在几种情况下比较了并联谐波无源滤波器(SHPF)在无失谐电抗器和有失谐电抗器时的性能。所有这些场景都是在电力系统的线间馈线条件下进行的。每一种情况都表明,在与失谐反应堆相结合后,SHPF的能力有所提高。在第一种场景中,1号馈线THD-I值为18.16%,2号馈线THD-I值为15.86%。1号喂料机THD-V值为26.9%,2号喂料机THD-V值为23.58%。在第二种情况下,1号喂料机THD-I值为9.57%,2号喂料机THD-I值为10.96%。1号喂料机THD-V值为8.87%,2号喂料机THD-V值为8.87%。在第三种场景中,1号馈线THD-I值为3.95%,2号馈线THD-I值为4.53%。1号喂料机THD-V值为2.17%,2号喂料机THD-V值为2.17%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Interline Feeder of Shunt Passive Harmonic Filter and Detuned Reactor to Reduce Harmonic Distortion
Power electronics devices are increasingly needed today. Every human activity always uses power electronic equipment such as motor drive power supply, charger, inverter, control system, etc. The principle of switching work on these equipment can cause harmonics so that they are considered as nonlinear loads. The large number of power electronic devices in the electric power system causes high harmonic distortion. THD and IHD are the measuring parameters for harmonics. High THD cannot be reduced by a shunt harmonic passive filter alone. Therefore, it is necessary to add additional devices such as a detuned reactor as additional equipment to increase the performance of the harmonic power filter. Combination of detuned reactor and shunt harmonic passive filter are placed on interline feeder bus. This interline method is done to save on adding harmonic filters to each feeder. Generally, each feeder is connected to a nonlinear load, so a harmonic filter is needed on each feeder. Several scenarios were made to compare the ability of the shunt harmonic passive filter (SHPF) when without a detuned reactor and when combined with it. All of these scenarios were carried out in the condition of the interline feeder of the electric power system. Each scenario show an increase in the ability of the SHPF after being combined with a detuned reactor. In the first scenario, the THD-I value is 18.16% in feeder number 1 and 15.86% in feeder number 2. THD-V value is 26.9% in feeder number 1 and 23.58% in feeder number 2. In the second scenario, the THD-I value is 9.57% in feeder number 1 and 10.96% in feeder number 2. THD-V value is 8.87% in feeder number 1 and 8.87% in feeder number 2. In the third scenario, the THD-I value is 3.95% in feeder number 1 and 4.53% in feeder number 2. THD-V value is 2.17% in feeder number 1 and 2.17% in feeder number 2.
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