基于直流链路电压传感的PV-Wind混合动力集成插电式混合动力汽车智能充电

E. Chaithanya, P. Jyothsna
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引用次数: 0

摘要

插电式混合动力汽车的需求日益增加。介绍了一种将光伏-风能混合动力系统与智能充电策略相结合的插电式混合动力汽车(phev)充电站架构。随着插电式混合动力汽车数量的增加,对电网的需求明显增加。插电式混合动力车数量的激增将在高峰时段充电时引发需求的极端激增。为了避免这一问题,提出了一种smr - t充电站结构,通过控制插电式混合动力汽车的充电速率,使电网不感受到高峰负荷期间充电的影响。为插电式混合动力车充电所需的电力来自光伏-风能混合动力系统或公用事业,或两者兼而有之。插电式混合动力汽车、混合电源和电网之间的三方互动确保了可用电力的最佳利用、充电时间和电网的稳定性。该系统由PV-Wind混合系统、DC/DC升压变换器、DC/DC降压变换器和DC/AC双向变换器组成。DC/DC升压变换器的输出和DC/AC双向变换器的输入共用一条DC链路。针对上述系统,提出了基于直流链路电压传感的控制策略,以实现高效、可靠的能量传输。通过理论分析和仿真研究验证了所提方法的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Smart charging of PV-Wind hybrid integrated PHEVs based on DC link voltage sensing
The demand of plug in hybrid electric vehicle is increasing day by day. This paper introduces a charging station architecture by using a combination of PV-Wind hybrid system and smart charging strategies for plug-in hybrid electric vehicles (PHEVs). With the increasing in the number of PHEVs, the demand on the electric grid increases appreciably. The proliferation in the number of PHEVs will trigger extreme surges in demand while charging them during peak hours. To avoid this problem, a sma r t charging station architecture is proposed in which the rate of charging the PHEVs, is controlled in such a way that the effect of charging during peak load period is not felt on the grid. The power required to charge the plug in hybrids comes from PV-Wind hybrid system or the utility or both. The three way interaction between the PHEVs, hybrid source and the grid ensures optimal usage of available power, charging time and grid stability. The system consists of a PV-Wind hybrid system, DC/DC boost converter, DC/DC buck converter and DC/AC bi-directional converter. The output of DC/DC boost converter and input of DC/AC bi-directional converter share a common DC link. The control strategy is based on DC link voltage sensing is proposed for the above system for efficient and reliable energy transfer. Simulation studies are performed along with the theoretical analysis to validate the proposed method.
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