Performance analysis and planning of Self-Sufficient solar PV-Powered electric vehicle charging station in dusty conditions for sustainable transport

Fahad Faraz Ahmad , Oussama Rejeb , Abdul Kadir Hamid , Maamar Bettayeb , Chaouki Ghenai
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Abstract

Electric car charging stations are in high demand as a result of the development of the e-mobility sector and the adoption of electric vehicles in transportation. This study aims to construct and analyze a stand-alone solar PV-powered electric car charging station to fulfil electric vehicle load demand and make recommendations for optimizing its operation. The goal is to achieve 3D’s i.e., Decarbonization, Digitalization and Decentralization in both the transport and power supply (electricity supply). Advancing towards attaining 3D’s goal, an off-grid solar PV-powered EV charging station was built at the University of Sharjah to meet the load demand. The EV charging station includes PV panels, inverters, energy storage devices and EV charging outlets. A solar PV system of 7.4 kWp with an energy storage capacity of 34.56 kWh is installed. A battery inverter of 4.6 kW is incorporated to meet the load demand of three electrical vehicles simultaneously. The performance of the system is monitored over a year. The EV charging station is in off-grid mode; thus, it is following the load demand for PV energy production. The findings reveal that the total energy production by the PV system is 2971.59 kWh from which the direct consumption is 383.77 kWh (12.91 %), and 2587.83 kWh (87.09 %) is stored in the energy storage devices. The total energy consumption by electric vehicles is 2379.01 kWh of which 1995.24 kWh (83.87 %) is taken from the battery bank. The PV system is working at 24.58 % of its full capacity. By elevating the daily load demand to 33 kWh, the full utilization of the solar resource can be achieved. To evaluate the adverse effect of dust, natural dust is allowed to settle down on the surface of PV panels continuously for 322 days. A linear degradation was recorded in the performance ratio from 77.92 % to 27.30 % in 218 days. Thereafter a plateau was attained and insignificant variation (min. 26.36 % and max. 33.78 %) was observed in the next 104 days. It is concluded that once a thick layer of dust forms on the surface of the PV panels, further dust accumulation becomes minimal.

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灰尘条件下自给自足太阳能光伏发电电动汽车充电站的性能分析与规划,促进可持续运输
随着电动交通领域的发展和电动汽车在交通领域的应用,电动汽车充电站的需求量很大。本研究旨在建造和分析一个独立的太阳能光伏发电电动汽车充电站,以满足电动汽车的负载需求,并提出优化其运行的建议。目标是在交通和电力供应(供电)领域实现 3D 目标,即去碳化、数字化和分散化。在实现 3D 目标的过程中,沙迦大学建立了一个离网太阳能光伏发电电动汽车充电站,以满足负荷需求。电动汽车充电站包括光伏板、逆变器、储能设备和电动汽车充电插座。安装的太阳能光伏系统功率为 7.4 kWp,储电量为 34.56 kWh。还安装了一个 4.6 千瓦的电池逆变器,以同时满足三辆电动汽车的负载需求。对系统的性能进行了为期一年的监测。电动汽车充电站采用离网模式,因此,它的光伏发电量是按照负荷需求确定的。研究结果显示,光伏系统的总发电量为 2971.59 千瓦时,其中直接消耗 383.77 千瓦时(12.91%),2587.83 千瓦时(87.09%)储存在储能设备中。电动汽车的总能耗为 2379.01 千瓦时,其中 1995.24 千瓦时(83.87%)来自电池组。光伏系统以 24.58% 的满负荷工作。通过将日负荷需求提高到 33 千瓦时,可以实现太阳能资源的充分利用。为了评估灰尘的不利影响,让天然灰尘在光伏电池板表面沉积 322 天。在 218 天内,性能比从 77.92% 直线下降到 27.30%。此后,在接下来的 104 天内,性能比达到了一个平稳点,变化不大(最小为 26.36%,最大为 33.78%)。由此得出结论,一旦光伏板表面形成厚厚的灰尘层,进一步的灰尘积累就会变得微乎其微。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Transportation Research Interdisciplinary Perspectives
Transportation Research Interdisciplinary Perspectives Engineering-Automotive Engineering
CiteScore
12.90
自引率
0.00%
发文量
185
审稿时长
22 weeks
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