基于同步器的多端口自主可重构太阳能电站(MARS)控制

P. R. V. Marthi, S. Debnath, M. Crow
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引用次数: 4

摘要

光伏电站与储能系统的集成控制已成为近年来重要的研究和发展课题。在此背景下,本文研究了将光伏和ESS集成到交流输电网和高压直流(HVdc)链路的多端口自治可重构太阳能(MARS)电站。随着电力电子资源在电网中的渗透,电网从频率或电压干扰中恢复的能力降低。因此,任何新的电网集成电力电子资源的重要目标之一是在电网受到干扰时提供先进的控制功能,如电压和频率支持。在本研究中,提出了一种基于同步器的MARS控制算法的详细实现。通过在PSCAD/EMTDC仿真平台上的仿真,对所提出的控制算法和MARS控制体系结构进行了评估,以展示其在不同工况下的性能。此外,它们在Opal-RT离线仿真模型中进行了评估,该模型也可用于执行控制硬件在环(cHIL)测试。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Synchronverter-based Control of Multi-Port Autonomous Reconfigurable Solar Plants (MARS)
Control of integrated photovoltaic (PV) plants with energy storage systems (ESSs) has become an important research and development topic in recent times. In this context, a Multi-port Autonomous Reconfigurable Solar (MARS) plant that integrates PV and ESS to alternating current transmission grid and high-voltage direct current (HVdc) link is studied in this paper. With penetration of power electronic based resources in the grid, the grid’s capability to recover from frequency or voltage disturbances are reduced. Therefore, one of the vital objectives of any new grid integrated power electronic resource is to provide advanced control functions like voltage and frequency support to the grid during disturbances. In this research work, a detailed implementation of a synchronverter-based control algorithm of MARS is presented. The proposed control algorithm and the MARS control architecture are evaluated through simulations on PSCAD/EMTDC simulation platform to showcase the performance in different operating conditions. In addition, they are evaluated in Opal-RT offline simulation models which can also be used to perform control-hardware-in-the-loop (cHIL) tests.
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