基于瞬时功率理论-模糊智能控制器 (IPT-FIC) 的并网光伏系统改进型低电压穿越策略

Soubhik Bagchi, Raj Chakraborty, Pritam Bhowmik, Priyanath Das
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摘要

过去几十年来,可再生能源(RES)的安装量大幅增加。由于可再生能源的大规模并网,许多国家不得不修改其电网规范。为了在紧急情况下平稳运行,电网规范规定逆变器必须进行低电压穿越(LVRT)操作,要求逆变器在规定的时间内保持连接,并为电网提供必要的支持。本文采用基于瞬时功率理论-模糊智能控制器(IPT-FIC)的改进型低电压穿越策略来控制并网光伏(PV)逆变器。这种增强型策略能在故障或电压骤降时为电网提供必要的有功和无功功率支持。为了使控制器更加智能、精确和快速,提出了 IPT-FIC。仿真在 MATLAB/SIMULINK 2021 环境中进行,并通过 dSPACE DS1103 驱动的硬件在环(HIL)平台验证了所提技术的可行性,准确度达到 96.67%。所提出的技术将瞬态情况下的系统响应时间缩短了 19.88%。该技术确保在 LVRT 运行期间将有功功率损耗限制在 7.91%,同时保持极短的穿越时间。
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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Instantaneous power theory-fuzzy intelligent controller (IPT-FIC) based improved low voltage ride-through strategy for grid connected photovoltaic system

The installation of Renewable Energy Sources (RESs) has increased tremendously over the past few decades. Due to the large-scale grid integration of RESs, many countries have had to modify their grid codes. For smooth operation during contingencies, the grid code mandates Low Voltage Ride-Through (LVRT) operation of the inverter, requiring it to remain connected for a stipulated duration and provide necessary support to the grid. In this article, an Instantaneous Power Theory-Fuzzy Intelligent Controller (IPT-FIC) based improved LVRT strategy is implemented to control a grid-connected Photovoltaic (PV) inverter. This enhanced strategy efficiently provides the necessary active and reactive power support to the grid during faults or voltage sags. The IPT-FIC is proposed to make the controller intelligent, accurate, and faster. Simulations were performed in a MATLAB/SIMULINK 2021 environment, and the feasibility of the proposed technique was verified through the dSPACE DS1103 driven Hardware-in-the-Loop (HIL) platform, achieving an accuracy level of 96.67%. The proposed technique improves system response time during transient scenarios by 19.88%. The technique ensures the active power loss is limited to 7.91% during LVRT operation while maintaining a very low ride-through time.

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