利用模糊逻辑控制器实现光伏直流微电网的电压稳定性

K. Manohar, K. Padma
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摘要

本文采用模糊逻辑控制器 (FLC) 来研究基于光伏的直流微电网的电压稳定性。微电网由多个光伏 (PV) 模块、一个 DC-DC 转换器和负载组成。由于间歇性光伏发电的广泛使用,电压稳定性是直流微电网的一个关键问题,而且很难实现。本研究提出了一种基于 FLC 的电压控制技术,该技术可利用光伏输出功率、DC-DC 转换器占空比和负载电流等输入因素来确定保持系统电压稳定性的最佳方案。FLC 的性能通过仿真进行了评估,旨在抵御参数波动和不确定性。仿真结果表明,所建议的基于 FLC 的控制策略能在各种运行环境下(包括不断变化的太阳辐照度和负载变化)成功保持微电网的电压稳定性。此外,FLC 的性能也优于其他控制方法。
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Voltage stability of a photovoltaic DC microgrid using fuzzy logic controller
This article employs a fuzzy logic controller (FLC) to investigate voltage stability in a PV-based DC microgrid. Several photovoltaic (PV) modules, a DC-DC converter, and loads make up the microgrid. Due to the widespread use of intermittent PV power, voltage stability is a crucial problem for DC microgrids and is difficult to accomplish. This study proposes an FLC-based voltage control technique that leverages input factors including PV output power, DC-DC converter duty cycle, and load current to identify the best course of action for preserving the system's voltage stability. The FLC's performance is assessed by simulation, and it is meant to be resilient to parameter fluctuations and uncertainties. The simulation results demonstrate that the suggested FLC-based control strategy successfully maintains the microgrid's voltage stability under a variety of operational circumstances, including changing solar irradiance and load variations. Moreover, the FLC performs better than other control methods.
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