利用 PARbars 测量太阳能电池板下作物的截光情况

Frank de Ruijter, Bernardo Maestrini, Bert Meurs, Marleen Hermelink, Herman Helsen
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摘要

要分析农业光伏系统并了解作物对遮光的反应,必须测量作物的可用光量和作物的截光量。特别是在行间作物中,不同高度、相对于行间的不同位置以及随着时间的推移,光量的变化很大。标准的点测量技术很难捕捉到这种空间和时间上的光量变化。市场上销售的线量子传感器长度不够,无法覆盖农业光伏系统所需的宽度,而且成本高昂。因此,我们使用了定制的 PAR 杆:PAR 杆长 1.5 米,每隔 5 厘米就有一个面向天空的光传感器,每个时间步长提供一个总(线)辐照度值。PARbar 安装在农业光伏系统和对照组的树莓作物行的上方和下方,并用塑料薄膜覆盖,点传感器安装在空地上。根据空地辐射与顶部 PARbar 之间的差值,可以得出面板结构或塑料薄膜覆盖层的截光量,而根据顶部和底部 PARbar 之间的差值,则可以得出作物的截光量。这一信息可与作物的破坏性测量结果结合使用,以分析对叶面积和光拦截、干物质产量和衍生光合作用效率的影响。与对照系统相比,当前农业光伏系统中作物接受的光量只有对照系统的一半,但生物量总产量减少较少,因为比叶面积和光合作用效率的提高起到了补偿作用。需要进行进一步分析,以评估农业光伏系统和增加遮荫对作物的影响,并评估发电量和作物产量之间的权衡。
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Measurement of Light Interception by Crops under Solar Panels using PARbars
To analyse agrivoltaics systems and understand crop responses to shading, measurements of available light for the crop and light interception by the crop are important. Especially in row crops, there is a lot of variation in the amount of light at different heights, different positions relative to the row and over time. This spatial and temporal variation in light is difficult to capture with standard point measurement technology. Commercially available line quantum sensors are not long enough to cover the desired width within an agrivoltaics system and come at high cost. Therefore, custom made PARbars were used: bars of 1.5 m long having light sensors every 5 cm facing the sky and giving a total (line) irradiance value per time step. PARbars were installed above and below a raspberry crop row in both the agrivoltaics system and the control with a plastic foil cover, and a point sensor was installed in the open field. The difference between open field radiation and the top PARbar gives the light interception by the panel construction or the foil cover, the difference between the top and bottom PARbar gives the light interception by the crop. This information can be used in conjunction with destructive crop measurements to analyse impacts on leaf area and light interception, dry matter production and derived efficiency of photosynthesis. The crop in the current agrivoltaics system received half of the amount of light compared to the control system, but total biomass production was less reduced because of compensation by increasing specific leaf area and photosynthesis efficiency. Further analysis is needed to evaluate the agrivoltaics system and the impact of increasing shade on the crop, and to assess the trade-off between electricity production and crop production.
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Measurement of Light Interception by Crops under Solar Panels using PARbars Agrivoltaics in Germany - Status Quo and Future Developments Vertical Agrivoltaics System on Arable Crops in Central France: Feedback of the First Year of Operation New Legal Framework of Agrivoltaics in Germany Modelling Light Interception by Rows of Tall-Growing Crops in an Agri-PV System
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