大气对太阳能光伏板影响的识别与缓解

Sameera, M. Tariq, M. Rihan
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摘要

太阳能光伏(PV)板的输出功率变化很大,这取决于太阳通量、功率调节装置的状态、地理位置和环境因素。确定和分析这些因素对于采用适当的缓解技术以消除降低功率的影响至关重要。根据粉尘物质的类型和数量,粉尘沉积可降低高达60%的效率。太阳能电池温度每升高1摄氏度,电效率就会下降0.22%。同样,太阳辐照度每增加100 W/m2,太阳能电池温度和输出功率分别增加3.82℃和3.14 W。光伏组件的性能容易受到直接或附近(60米半径内)雷击的影响。这会导致光伏模块及其电源调节电路中的过电压瞬变。因此,本文的重点是减轻这些大气对太阳能光伏电池板的影响。
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Identification and Mitigation of Atmospheric Effects on Solar PV Panel
The power output of solar photovoltaic (PV) panels varies significantly and depends on the solar flux, the state of the power regulating apparatus, geographical locations, and environmental factors. Identifying and analysing these factors is essential for applying suitable mitigation techniques to nullify the power-reducing effects. Dust deposition reduces efficiency by up to 60%, depending on the type and amount of the dust matter. For every 1-degree Celsius increase in the solar cell temperature, the electrical efficiency drops by 0.22%. Similarly, as sun irradiation increases by 100 W/m2, the solar cell temperature and output power grow by 3.82 °C and 3.14 W, respectively. PV module performance is susceptible to being impacted by direct or nearby (in the radius of 60 meters) lightning strikes. This induces overvoltage transients in PV modules and in their power conditioning circuitry. Therefore, the focus of this paper is on mitigation of these atmospheric effects on solar PV panels.
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