A Case Study of Soybean (Glycine max L.) Under Agrivoltaic System and Modelling Simulation

Eleonora Potenza, M. Colauzzi, Stefano Amaducci
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Abstract

Agrivoltaic systems (AVs) combine agricultural activities with the electricity production from photovoltaic (PV) panels constructed on the same area of land. Goetzberger and Zastrow[1] (1982) introduced the concept of AV but only more recently the increased environmental concerns and the economic and political frameworks have stimulated a growing interest in this technology. A critical issue, hampering the development of AVs, is the selection and cultivation of species adapted to the micrometeorological conditions generated by AV. This study reports on physiological, morphological and yield data of a soybean crop grown under AV. In addition, field data were compared with results from a simulation carried out with the modelling platform developed by Amaducci et al., 2018. Morphological and physiological and yield response of tomato and potato under Agrivoltaico® system parameters influenced by growth under  AV were height, LAI and SLA, which were higher under AV than in normal “full light” (FL) conditions. Number of pods per plant decreased by 13% under AV compared to FL conditions while mean grain yield was reduced by 8%, only in one AV area was observed a slightly increase (+4.4%) in grain yield. The results on RMSE revealed that the model error was higher in two AV conditions compared to the other 3 treatments.
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农业光伏系统下的大豆(Glycine max L.)案例研究与建模模拟
农用光伏系统(AV)将农业活动与建在同一土地上的光伏板发电结合在一起。Goetzberger 和 Zastrow[1](1982 年)提出了农用光伏系统的概念,但直到最近,对环境问题的日益关注以及经济和政治框架才激发了人们对这项技术的兴趣。阻碍反车辆发展的一个关键问题是如何选择和培育适应反车辆产生的微气象条件的物种。本研究报告了在反车辆影响条件下种植的大豆作物的生理、形态和产量数据。此外,还将实地数据与 Amaducci 等人 2018 年开发的建模平台进行的模拟结果进行了比较。Agrivoltaico®系统下番茄和马铃薯的形态、生理和产量响应 受视黄醇生长影响的参数有株高、LAI和SLA,视黄醇下的株高高于正常 "全光照"(FL)条件下的株高。与 "全光照 "条件相比,视角逆境下每株豆荚数减少了 13%,平均谷物产量减少了 8%,只有在一个视角逆境区观察到谷物产量略有增加(+4.4%)。均方根误差的结果表明,与其他三种处理相比,两种 AV 条件下的模型误差更大。
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