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Enhancing system reliability by optimally integrating PHEV charging station and renewable distributed generators: A Bi-Level programming approach

机译:通过最佳地集成PHEV充电站和可再生分布式发电机来提高系统可靠性:双级编程方法

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A hybrid bi-level programming approach is presented in this paper to enhance the system reliability by optimally integrating the Vehicle Charging Stations (VCS) of Plug-in Hybrid Electric Vehicle (PHEV) and the Renewable Distributed Generation (RDG) simultaneously. A wide spectrum of requirement exists among the customers to have a continuity of supply in the presence of the fluctuating nature of RDS. Thus, a non-linear objective function is formulated to minimize the Energy Not Supplied (ENS) to the customers based on the various contingency analysis. Two notable contributions distinguish this work with existing endeavours. Firstly, Simultaneous selection of optimal place for both RDG and charging station are recognized. Succeeded by the consideration of simultaneous integration of VCS and RDG, a Hybrid Nelder-Mead Cuckoo Search (HNM-CS) algorithm based method is put into operation to minimize the ENS, which seamlessly diminishes the power loss and enhances the voltage magnitude of the system. The distribution systems of standard IEEE 33-bus and real time TamilNadu (TN) 84 bus are considered with different RDGs such as photovoltaic and fuel cell systems. Further, the operational cost of PHEVs scheduling in the VCS is analysed for a 24-h scenario. From the results obtained, the proposed method provides maximum advantage to the vehicle holder by placing and utilizing more RDGs and meanwhile it satisfies their preferences also.(c) 2021 Elsevier Ltd. All rights reserved.
机译:本文提出了一种混合的双级编程方法,以通过同时将插入式混合动力电动车(PHEV)和可再生分布式(RDG)的车辆充电站(VCS)相结合来提高系统可靠性。客户之间存在广泛的要求,在存在RDS波动性质的情况下具有供应的连续性。因此,配制非线性目标函数,以基于各种应急分析将未提供(ENS)的能量最小化。两个值得注意的贡献将这项工作区分开了现有的努力。首先,识别出用于RDG和充电站的最佳场所的同时选择。通过考虑到VCS和RDG的同时集成成功,基于混合NELDER-MED CUCKOO搜索(HNM-CS)算法的方法投入运行,以最小化ENS,这无缝地减小功率损耗并增强系统的电压幅度。标准IEEE 33总线和实时Tamilnadu(TN)84总线的分配系统被认为是不同的RDG,例如光伏和燃料电池系统。此外,分析了在VCS中调度的PHEVS调度的操作成本,用于24-H场景。从获得的结果,所提出的方法通过放置和利用更多RDG来为车辆支架提供最大的优势,并且同时它也满足他们的偏好。(c)2021 Elsevier Ltd.保留所有权利。

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