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Multi-objective optimization strategy for distribution network considering V2G-enabled electric vehicles in building integrated energy system

机译:考虑综合能源系统中的V2G电动车辆考虑V2G电动车辆的多目标优化策略

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Based on the large-scale penetration of electric vehicles (EV) into the building cluster, a multi-objective optimal strategy considering the coordinated dispatch of EV is proposed, for improving the safe and economical operation problems of distribution network. The system power loss and node voltage excursion can be effectively reduced, by taking measures of time-of-use (TOU) price mechanism bonded with the reactive compensation of energy storage devices. Firstly, the coordinate charging/discharging load model for EV has been established, to obtain a narrowed gap between load peak and valley. Next, a multi-objective optimization model of the distribution grid is also defined, and the active power loss and node voltage fluctuation are chosen to be the objective function. For improving the efficiency of optimization process, an advanced genetic algorithm associated with elite preservation policy is used. Finally, reactive compensation capacity supplied by capacitor banks is dynamically determined according to the varying building loads. The proposed strategy is demonstrated on the IEEE 33-node test case, and the simulation results show that the power supply pressure can be obviously relieved by introducing the coordinated charging/discharging behavior of EV; in the meantime, via reasonable planning of the compensation capacitor, the remarkably lower active power loss and voltage excursion can be realized, ensuring the safe and economical operation of the distribution system.
机译:基于电动汽车(EV)的大规模渗透到建筑物集群中,提出了考虑EV协调调度的多目标最佳策略,用于改善分销网络的安全和经济运行问题。通过采用与能量存储装置的反应补偿的使用时间(TOU)价格机制,可以有效地减少系统功率损耗和节点电压偏移。首先,已经建立了EV的坐标充电/放电载荷模型,以获得负载峰和谷之间的狭窄间隙。接下来,还定义了分布网格的多目标优化模型,并且选择有功功率损耗和节点电压波动是目标函数。为了提高优化过程的效率,使用与精英保存策略相关的高级遗传算法。最后,根据电容器组提供的反应补偿能力根据变化的建筑负载动态地确定。所提出的策略在IEEE 33节点测试用例上证明,仿真结果表明,通过引入EV的协调充电/放电行为,可以显着减轻电源压力;与此同时,通过合理规划补偿电容,可以实现显着降低的有源功率损耗和电压偏移,确保分配系统的安全和经济运行。

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