可再生能源集成多微电网暂态稳定性增强:一个全面和关键的分析

Marriam Liaqat, Turki Alsuwian, Dr. Arslan Ahmed Amin, Muhammad Adnan, Adil Zulfiqar
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引用次数: 0

摘要

多微电网提供了各种好处,包括减少单个微电网的过载,在故障条件下有更多选择,以及更多地利用可再生能源。然而,多微电网的实施带来了电力系统复杂性、互联问题、双向潮流管理和潮流平衡等挑战。在这些挑战的存在下,多微电网的潮流稳定性是一个具有挑战性的问题。在此背景下,本研究评估了使用太阳能光伏、风能和统一潮流控制器(UPFC)的多微电网的暂态稳定性分析模型。与其他灵活的交流传输系统(FACTS)设备相比,UPFC提供了更强大的潮流控制策略。首先,在DIgSILENT PowerFactory软件中设计了由两个微电网组成的多微电网结构。其次,分别在UPFC、短路故障和并网情况下进行潮流计算。第三,进行了电磁瞬变(EMT)仿真。结果表明,UPFC在多微电网中具有显著的潮流稳定性。据观察,UPFC在其所在的微电网中产生了更多的瞬态稳定性。然而,它改善了多微电网中所有位置的潮流质量。此外,UPFC在故障发生期间提供了显著的暂态稳定性。研究结果为多微电网的潮流管理提供了各种见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Transient stability enhancement in renewable energy integrated multi-microgrids: A comprehensive and critical analysis
Multi-microgrids offer various benefits including the decreased overloading of a single microgrid, more options during faulty conditions, and more utilization of renewable energy resources. However, the implementation of a multi-microgrid brings the challenges such as power system complexity, interconnection issues, bidirectional power flow management, and power flow balancing. In the presence of these challenges, the power flow stability of the multi-microgrids is a challenging problem. In this context, this study evaluates a transient stability analysis model in multi-microgrids using solar photovoltaics, wind power, and a unified power flow controller (UPFC). UPFC offers a more robust power flow control strategy compared with other flexible alternating current transmission systems (FACTS) devices. First, a multi-microgrid structure consisting of the two microgrids was designed in DIgSILENT PowerFactory software. Second, the load flow calculation was performed in the absence and presence of UPFC, short circuit fault, and grid connection. Third, the electromagnetic transients (EMT) simulation was performed for all these situations. The results exhibited that the UPFC would offer significant power flow stability in the multi-microgrids. It was observed that the UPFC resulted in more transient stability in the microgrid where it was located. However, it improved the power flow quality at all the locations in the multi-microgrids. In addition, UPFC offered significant transient stability during the fault occurrence. The results offer various insights into power flow management in multi-microgrids.
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