Simulation-based Solar PV Module Maximum Output Power and Dust Accumulation Profiles

K. Tsamaase, J. Sakala, E. Rakgati, I. Zibani, E. Matlotse
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Abstract

Solar photovoltaic (PV) modules performance is very important as part of the performance of over overall solar PV system. The PV performance is affected by varying factors with some of such factors being external to the PV module design and construction. Dust accumulation on PV module surface is one of such factors because it limits solar irradiance incident in the PV module surface. This paper establishes the yearly maximum output power profile of a PV module and contrast such profile with yearly dust accumulation profile at the same site. A Simulink model and excel are used in the simulation and profiles development. The results show that the maximum power output is lowest around the months of May, June and July which is winter season in the southern hemisphere and improves gradually as summer months are approached. The results also show a close relationship between wind speed and dust accumulation where monthly accumulation increases with increasing wind speed and decreases with low wind speed. The yearly dust accumulation increases cumulatively from one month to the as opposed to the maximum power profile for the year.
基于仿真的太阳能光伏组件最大输出功率和积尘分布
太阳能光伏(PV)组件的性能是整个太阳能光伏系统性能的重要组成部分。光伏性能受到各种因素的影响,其中一些因素是光伏组件设计和构造的外部因素。光伏组件表面的粉尘堆积是其中一个因素,因为它限制了光伏组件表面的太阳辐照度。本文建立了光伏组件的年最大输出功率分布图,并与同一地点的年积尘分布图进行了对比。仿真和剖面图的开发使用了Simulink模型和excel。结果表明:在南半球冬季的5、6、7月份,最大功率输出最低,随着夏季的临近,最大功率输出逐渐提高;月累积量随风速的增大而增大,随风速的减小而减小。年积尘量从一个月累积到一个月,而不是一年中最大功率剖面。
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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