利用鲨鱼气味算法改进银行电容器和分接开关的电力损耗

Teknik Pub Date : 2020-09-09 DOI:10.14710/teknik.v41i3.24818
Radiktyo Nindyo Sumarno, S. Handoko, M. Facta
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引用次数: 1

摘要

优化输电线路的一种方法是减少电力损耗。电力变压器和组电容器上的分接开关可用于调节系统电压,从而降低输电线路中的功率损耗。在规划过程中确定抽头设置和银行电容器的值是具有挑战性的。它通常是通过使用功率流法的试错机制来进行的。由于确定抽头设置和银行电容器值很难确定,因此本研究采用鲨鱼气味算法进行优化。优化的目的是在IEEE 30总线系统上得到更合适的分接开关和电容组变化值。本研究进行了分接设置优化、组电容器优化、分接设置与组电容器优化相结合的优化。通过抽头整定优化,得到无优化条件下的有功功率损耗为0.65%。在优化组电容器时,与未优化的条件相比,我们减少了0.90%的有功功率损耗。优化抽头整定与组电容组合后,有功损耗降低1.23%。通过对所有优化结果的比较,得出了通过降低最大有功损耗,实现了组分接和电容器优化的结合。在本研究中,有功损耗减少了217.2 kW。结果表明,基于测试值,与未经优化的条件相比,Shark Smell算法可以提供更好的1.23%的优化结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Improvement of Electric Power Losses Using Bank Capacitor and Tap Changer With Shark Smell Algorithm
One way to optimize the transmission line is to reduce electrical power losses. Tap changers on power transformers and bank capacitors can be used to regulate the system voltage resulting in lower power losses in the transmission line. Determining the value of tap settings and bank capacitors in the planning process is challenging to do with certainty. It is generally carried out through a trial and error mechanism using the power flow method. Since the determination of tap settings and bank capacitors values is difficult to do with certainty, this research was carried out with optimization with the shark smell algorithm. Such optimization aims to get a more appropriate tap changer and capacitor bank change values on the IEEE 30-bus system. In this study, several optimizations were carried out, namely optimization of tap settings, optimization of bank capacitors, and tap setting optimization combined with bank capacitors' optimization. Conducting tap setting optimization, we obtained an active power loss of 0.65% from the condition without optimization. In optimizing bank capacitors, we reduce active power losses of 0.90% compared to conditions without optimization. In optimizing the combination of tap setting and bank capacitors, the active power losses are reduced by 1.23%. Comparing the results of all these optimizations shows that the combination of bank tap setting and capacitor optimization is obtained by reducing the most active power losses. In this study, the reduction of active power losses resulted in 217.2 kW. The results show that the Shark Smell algorithm can provide better optimization results of 1.23% compared to conditions without optimization based on the test value.
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