基于虚拟惯性控制的车-网技术增强智能电网频率调节

A. Saxena, R. Shankar, S. Parida
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引用次数: 2

摘要

本文提出了一种基于虚拟惯性控制的车辆到电网(V2G)模式,以改善电力系统频率调节服务(FRS)。由于现代电网的惯性比以前小得多,因此维持储备电力(如电池)以减轻电网频率波动将需要非常快速和响应的监管操作。虽然电池储能系统相当昂贵,但建议将电动汽车(ev)等调节负载整合到现代低惯性电网中,以降低对储能技术的要求。此外,还研究了混合动力系统(HPS)中有意产生的延迟对控制信号的影响。它展示了一种简单而有效的策略,即随机延迟攻击。在这种攻击中,对手对一系列控制信号造成随机延迟,导致核心部分的国家迅速分化。因此,在采用V2G技术的互联重构HPS中,采用最优线性自抗扰控制(LADRC)进行频率调节。采用改进的拟对抗哈里斯鹰优化(QOHHO)策略优化控制器增益系数。此外,研究系统的重要发现验证了所提出的频率稳定方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Vehicle-to-Grid Technology with Virtual Inertia Control for Enhanced Frequency Regulation in Smart Grid
This article suggests a vehicle-to-grid (V2G) paradigm based on virtual inertia control for improving Power System Frequency Regulation Services (FRS). As modern grids have far less inertia than prior, thus maintaining reserved power (such as batteries) to mitigate grid frequency fluctuations would entail a very quick and responsive regulatory operation. Although battery energy storage systems are quite expensive, it is advocated that regulated loads such as Electric Vehicles (EVs) may be integrated into modern low-inertia power grids to lessen the required competence of energy storage technologies. Additionally, the impact of intentionally produced delays on control signals in a Hybrid Power System (HPS) is investigated. It demonstrates a straightforward yet effective tactic known as the random delay attack. An adversary causes random delays on a succession of control signals in this attack, causing the nation of the core part to rapidly diverge. As a consequence, an optimal Linear Active Disturbance Rejection Control (LADRC) is employed for frequency regulation in an interconnected restructured HPS employing V2G technology. The controller's gain coefficients are optimized using a modified Quasi-Opposition based Harris Hawks Optimization (QOHHO) strategy. Furthermore, the significant findings of the investigated system validate the presented frequency stabilization scheme.
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