Advanced Fault Detection in DC Microgrid System using Reinforcement Learning

M. K. Tan, Kar Leong Lee, Kit Guan Lim, A. Haron, P. Ibrahim, K. Teo
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Abstract

As technologies are expanding, the demand for power supply also increases. This causes the demand for power is difficult to be fulfilled as non-renewable sources are reducing. Therefore, the microgrid concept is introduced, where it is constructed with renewable energy sources, energy storage devices and loads. There are two types of microgrid, which are alternating current (AC) microgrid and direct current (DC) microgrid. Various research show that DC microgrid has more advantages over AC microgrid. However, DC microgrid is not widely used due to the lack of studies on it compared to AC microgrid. Besides, DC microgrid has one significant problem not fixed, which is the fault in the DC microgrid. Whenever a fault occurs, the whole DC microgrid will be affected rapidly. Therefore, this project aims to design a fault detector based on artificial intelligence to detect the fault and isolate the fault effectively. A fault detector based artificial intelligence should be implemented into the DC microgrid system to protect it. Two techniques in Artificial Immune System are being compared. The results showed that the improved Negative Selection Algorithm with variable sized detector has better performance than the general Negative Selection Algorithm with constant sized radius in detecting fault in DC microgrid system.
基于强化学习的直流微电网系统高级故障检测
随着技术的发展,对电力供应的需求也在增加。由于不可再生能源的减少,电力需求难以得到满足。因此,引入了微电网的概念,微电网由可再生能源、储能设备和负载组成。微电网有两种类型,即交流(AC)微电网和直流(DC)微电网。各种研究表明,直流微电网比交流微电网具有更多的优势。然而,与交流微电网相比,由于缺乏对直流微电网的研究,直流微电网的应用并不广泛。此外,直流微电网还有一个尚未解决的重大问题,即直流微电网的故障。一旦发生故障,整个直流微电网将迅速受到影响。因此,本课题旨在设计一种基于人工智能的故障检测器,有效地检测故障并隔离故障。在直流微电网系统中应用基于人工智能的故障检测技术对其进行保护。比较了人工免疫系统的两种技术。结果表明,改进的变大小检测器负选择算法在直流微电网系统故障检测中具有比一般半径定大小负选择算法更好的性能。
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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