Coordinated Control Strategy for Photovoltaic Power Plant with Battery Energy Storage System

Xiaolei Cheng, W. Cai, Yuan Wang, Peng Wang, Haixia Lv, Ye Li, Kaiyang Song, Jianan Nan, Shuran Liu
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引用次数: 2

Abstract

An increasing penetration of photovoltaic (PV) generation with the traditional inverter-based characteristics threatens the security and stability of power systems. As a result, different grid codes have been proposed to confine both the steady-state and dynamic behaviors of PV power stations. Some of these requirements can be easily met, while some need special design for the control strategy. PV power stations can control their ramp rates of output power and provide frequency support as well as virtual inertia to the power system by properly utilizing the Limited Power Point Tracking (LPPT) control. However, the frequency regulation and virtual inertia control fulfilled by LPPT requires PV power stations to operate at derating mode, resulting in large amount of solar energy curtailment. Thus, the installation of battery energy storage system (BESS) is extensively used for providing virtual inertia support. This paper proposed a coordinated dynamic control scheme for a PV power station equipped with the BESS system, aiming to provide frequency support and virtual inertia to the power system during disturbance. The simulation test and theoretical analysis for the impact of the developed coordinated dynamic control strategy on the power system are carried out in several case studies.
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光伏电站与蓄电池储能系统的协调控制策略
具有传统逆变器特性的光伏发电日益普及,威胁着电力系统的安全与稳定。因此,人们提出了不同的电网规范来限制光伏电站的稳态和动态行为。这些要求有的很容易满足,有的则需要对控制策略进行特殊设计。通过合理利用有限功率点跟踪(LPPT)控制,光伏电站可以控制其输出功率的斜坡速率,并为电力系统提供频率支持和虚拟惯性。然而,LPPT实现的频率调节和虚拟惯性控制需要光伏电站以降额模式运行,导致大量的太阳能弃用。因此,电池储能系统(BESS)的安装被广泛用于提供虚拟惯性支撑。本文针对安装BESS系统的光伏电站,提出了一种协调动态控制方案,目的是在扰动时为电力系统提供频率支持和虚拟惯性。通过几个实例,对所提出的协调动态控制策略对电力系统的影响进行了仿真试验和理论分析。
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