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Grasshopper optimization algorithm for optimal load frequency control considering Predictive Functional Modified PID controller in restructured multi-resource multi-area power system with Redox Flow Battery units

机译:蝗虫优化算法,用于考虑用氧化还原电池单元重组多资源多区域电力系统预测功能改进PID控制器的最佳负载频率控制

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摘要

Load frequency control (LFC) is a well-established issue in design and operation of power systems considering to the extension, restructuring, and complexity of the interconnected power systems and also the emergence utilization of renewable energy resources. This paper studies the frequency control of multi-area multi-source power system based on the importance of the LFC in the stability of the power system which includes various generation units of thermal, hydroelectric, wind, natural gas and diesel under the restructured environment. In this system, non-linear physical constraints, governor dead band (GDB) and generation rate constraint (GRC) are considered. In this paper, a new Predictive Functional Modified PID (PFMPID) controller is proposed that the effectiveness of this controller is verified compared to the traditional one. In order to optimize and demonstrate the superiority of the proposed control method, Grasshopper Optimization Algorithm (GOA) is proposed as a suitable solution. To further improve the performance of the under study system, the use of the Redox Flow Battery (RFB) energy storage unit has also been proposed. Since the operation evaluation of the proposed process is necessary in different system conditions, the performance of the proposed method is studied under various disturbances and simulation results are presented.
机译:负载频率控制(LFC)是考虑到互联电力系统的延长,重组和复杂性的电力系统的设计和运行中的既定问题,也是可再生能源的出现利用。本文研究了基于LFC在电力系统稳定性的基于LFC的重要性的多面积多源功率系统的频率控制,其包括在重组环境下的各种生成单位的热,水电,风,天然气和柴油机。在该系统中,考虑非线性物理约束,调速器死区(GDB)和生成速率约束(GRC)。在本文中,提出了一种新的预测功能改进的PID(PFMPID)控制器,与传统的验证了该控制器的有效性。为了优化和证明所提出的控制方法的优越性,提出了蚱蜢优化算法(GOA)作为合适的解决方案。为了进一步提高下研究系统的性能,还提出了使用氧化还原流电池(RFB)能量存储单元。由于在不同的系统条件下需要所提出的方法的操作评估,因此在各种干扰和模拟结果下研究了所提出的方法的性能。

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