基于光伏电动汽车充电基础设施的多层建筑智能能源管理

IF 2.1 Q3 COMPUTER SCIENCE, HARDWARE & ARCHITECTURE
M. Jajini;N. Shanmuga Vadivoo;Sivasankar Gangatharan
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引用次数: 0

摘要

电动汽车(ev)的使用增加了,它导致了额外的需求以及现有的住宅需求,管理它变得具有挑战性。此外,白天在多层建筑中运行的电动汽车充电系统加快了高峰负荷。这项工作的主要目标是尽量减少系统的运行成本和转换损失。在这项工作中,微电网与双向变换器结合在一起,在dc-ac和ac-dc转换中起主要作用。光伏电源为系统提供充足的直流电,蓄电池存储直流电,在直流电不足时补充负载。通过利用遗传算法(GA)和适当的能源管理(EM)根据使用时间电价模式对电动汽车充电,大大减轻了需求增长对电网的影响。为了减轻电网在高峰时段的负荷,可中断负荷被转移到非高峰时段。电动汽车充电的其他挑战,如节能、最大峰值需求、电压不稳定和大电流消耗等问题,在现有的拓扑结构中得到了很好的解决。与标准方案相比,本文提出的拓扑节能效果显著,达到33.04%,成本降低57.27%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Intelligent Energy Management for Multistorey Building With Photovoltaic-Based Electric Vehicle Charging Infrastructure
The usage of electric vehicles (EVs) has increased and it leads to additional demand along with existing residential demand and managing it becomes challenging. Further EV charging systems that function during the daytime in multistorey buildings expedite the peak loading. The main objective of this work is to minimize the operating cost of the system and conversion losses. In this work, the microgrid incorporated with a bidirectional converter plays a major role in dc-ac and ac-dc conversion. The photo voltaic (PV) sources support the system with sufficient dc power generation and batteries store the dc power and supply the load in case of insufficiency. By utilizing a genetic algorithm (GA) and appropriate energy management (EM) to charge EVs according to time-of-use tariff patterns, the impact of growing demand on the grid is greatly mitigated. To ease the burden on the grid during peak hours, the interruptible loads are shifted to off-peak times. Other challenges of EV charging such as energy saving, maximum peak demand, voltage instability, and high current drawing issues are rectified and well presented with existing topology. When compared to the standard scheme, the energy savings in the proposed topology are much increased, reaching 33.04%, while the cost reduction is 57.27%.
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CiteScore
3.70
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