Steady State and Transient Analysis of a Grid Connected Large-Scale Solar Plant in IEEE 9-Bus Transmission Networks

Muhamad Najib Kamarudin, T. J. Hashim, N. A. Rahmat, R. Verayiah, A. Ramasamy
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Abstract

With the increasing demand for alternative renewable resources penetration into the grid to mitigate the environmental issue caused by conventional generations, it is essential for the solar PV system to remain connected to the grid regardless of various loads and fault conditions. This paper investigates the impact of a grid connected large-scale solar (LSS) PV with different sizing connected to the IEEE 9 bus system. The LSS PV model in IEEE 9 bus system has been modelled using MATLAB/Simulink and is controlled by a three-phase inverter with LCL filter. The study focuses on the stability assessment performed using steady state load flow analysis under various load conditions while transient analysis looks into fault conditions. The system was subjected to various types of transient events like single phase fault, phase to phase fault, and three phase faults. The results obtained from the steady state analysis have shown that the sizing and placement of LSS PV can improve the voltage level in the overall system in various load conditions. On the other hand, the findings from the transient analysis for the worst-case scenario of three phase fault during base load condition shows the fault was cleared within the timeframe and the system are able to recover to normal operating conditions within 150 millisecond.
并网大型太阳能电站在IEEE 9总线传输网络中的稳态和暂态分析
随着替代可再生能源并网的需求不断增加,以缓解传统发电方式造成的环境问题,无论各种负载和故障情况,太阳能光伏系统都必须保持与电网的连接。本文研究了不同尺寸的并网大型太阳能光伏(LSS)与ieee9总线系统连接的影响。利用MATLAB/Simulink对IEEE 9总线系统中的LSS PV模型进行了建模,并采用带LCL滤波器的三相逆变器进行控制。该研究侧重于在各种负载条件下使用稳态潮流分析进行稳定性评估,而暂态分析则着眼于故障条件。系统遭受了单相故障、相间故障和三相故障等各种类型的暂态事件。稳态分析结果表明,LSS光伏的尺寸和放置可以在各种负载条件下提高整个系统的电压水平。另一方面,对基载条件下三相故障最坏情况的暂态分析结果表明,故障在规定时间内被清除,系统能够在150毫秒内恢复到正常运行状态。
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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