{"title":"Challenges in the Planning, Construction and Farming Practices in Agrivoltaic Systems With Vertically Mounted Panels","authors":"Karl Wild, John Schueller","doi":"10.52825/agripv.v2i.980","DOIUrl":null,"url":null,"abstract":"Several challenges in planning, construction, and farming practices hinder the optimization of agrivoltaic systems (AS) and the achievement of optimal crop production. This paper identifies and addresses these issues while presenting initial solutions. One specific type of AS involves vertically mounted panels on arable or grassland sites. The installation of panel rows divides large fields into narrow units, restricting the use of farming implements with different working widths. Implement widths must align with the spacing between panel rows, which often results in residual strips or overlapping issues when field operations are carried out. Furthermore, boundary effects in AS are more pronounced, impacting yield along field borders. The presence of panel rows also complicates driving operations, requiring reduced speeds and posing collision risks between implements and panels. Soil compaction during AS construction, microclimate variations, and panel contamination by dust, or spray drift deposits further affect plant growth and solar system performance. Initial solutions are proposed to address these challenges. These include careful planning of row spacing based on the working widths of critical implements such as combines, adoption of field sprayers with foldable booms, consideration of pneumatic fertilizer spreaders, and integration of precision farming techniques to manage variability within AS. Additionally, the use of construction machinery with low soil pressure, employment of steering technologies based on global navigation satellite systems, and research on panel cleaning devices are suggested. Overall, this paper highlights the need for further research and development to overcome farming challenges in agrivoltaic systems with vertically mounted panels.","PeriodicalId":517222,"journal":{"name":"AgriVoltaics Conference Proceedings","volume":"32 17","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2024-05-23","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"AgriVoltaics Conference Proceedings","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.52825/agripv.v2i.980","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0
Abstract
Several challenges in planning, construction, and farming practices hinder the optimization of agrivoltaic systems (AS) and the achievement of optimal crop production. This paper identifies and addresses these issues while presenting initial solutions. One specific type of AS involves vertically mounted panels on arable or grassland sites. The installation of panel rows divides large fields into narrow units, restricting the use of farming implements with different working widths. Implement widths must align with the spacing between panel rows, which often results in residual strips or overlapping issues when field operations are carried out. Furthermore, boundary effects in AS are more pronounced, impacting yield along field borders. The presence of panel rows also complicates driving operations, requiring reduced speeds and posing collision risks between implements and panels. Soil compaction during AS construction, microclimate variations, and panel contamination by dust, or spray drift deposits further affect plant growth and solar system performance. Initial solutions are proposed to address these challenges. These include careful planning of row spacing based on the working widths of critical implements such as combines, adoption of field sprayers with foldable booms, consideration of pneumatic fertilizer spreaders, and integration of precision farming techniques to manage variability within AS. Additionally, the use of construction machinery with low soil pressure, employment of steering technologies based on global navigation satellite systems, and research on panel cleaning devices are suggested. Overall, this paper highlights the need for further research and development to overcome farming challenges in agrivoltaic systems with vertically mounted panels.
规划、建设和耕作实践方面的一些挑战阻碍了农业光伏系统(AS)的优化和作物产量的优化。本文指出并解决了这些问题,同时提出了初步的解决方案。一种特殊类型的光伏系统是在可耕地或草地上垂直安装电池板。面板行的安装将大块田地分割成狭窄的单元,限制了不同工作宽度的农机具的使用。机具的宽度必须与面板行之间的间距一致,这往往会导致田间作业时出现残留带或重叠问题。此外,AS 的边界效应更加明显,影响了田间边界的产量。面板行的存在也使驾驶操作复杂化,需要降低车速,并带来机具与面板碰撞的风险。AS 建造过程中的土壤压实、小气候变化以及灰尘或喷雾漂移沉积物对面板的污染都会进一步影响植物生长和太阳能系统的性能。本文提出了应对这些挑战的初步解决方案。其中包括根据联合收割机等关键机具的工作宽度仔细规划行距,采用带可折叠吊杆的田间喷洒器,考虑使用气动肥料撒布器,以及整合精准农业技术以管理 AS 内的变化。此外,还建议使用土壤压力低的工程机械,采用基于全球卫星导航系统的转向技术,以及研究面板清洁装置。总之,本文强调了进一步研究和开发的必要性,以克服垂直安装电池板的农业光伏系统所面临的耕作挑战。