利用激光诱导荧光技术远程检测葡萄栽培真菌病原菌:盆栽受感染葡萄的实验研究

Christoph Kölbl, Manu Diedrich, Elias Ellingen, Frank Duschek, Moustafa Selim, Beate Berkelmann-Löhnertz
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引用次数: 0

摘要

葡萄浆原菌(Plasmopara viticola)和葡萄赤霉(Erysiphe necator)等病原菌严重威胁葡萄的产量和质量。与其他作物生产系统不同,杀菌剂作为对策在葡萄栽培中大量应用。精准葡萄栽培的目标是通过减少杀菌剂和应用不同的技术和组合策略来优化葡萄园的性能和对环境的影响。因此,需要新的新兴技术,包括非侵入性检测,以及用于真菌发育早期和现场检测的监测和工具。方法对盆栽葡萄(Vitis vinifera cv.)的叶片进行研究。“雷司令”),并使用我们基于激光诱导荧光光谱的新型远程检测系统vinoLAS®跟踪接种叶片的发展。我们进行了为期17天的测量活动。结果接种后5 ~ 7天,可检测到白霜霉病病原菌白霜菌的叶片侵染。我们的研究结果为未来激光对峙检测在葡萄园管理中的成功应用提供了证据。因此,vinoLAS系统可以作为检测病原疾病症状的模型技术,从而监测整个葡萄园。这允许采用适当的作物保护方法和选定的热点处理进行早期对策。由于葡萄霉被认为是欧洲葡萄栽培中最具破坏性的真菌之一,通过这种监测工具绘制病害地图将有助于减少杀菌剂的使用,因此将支持实施欧洲绿色协议的主张。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Remote detection of fungal pathogens in viticulture using laser-induced fluorescence: an experimental study on infected potted vines
Introduction Pathogenic fungi, such as Plasmopara viticola and Erysiphe necator , severely threaten the annual yield of grapes in both quantity and quality. In contrast to other crop production systems, fungicides are intensively applied in viticulture as a countermeasure. The goal of precision viticulture is to optimize vineyard performance as well as the environmental impact by reducing fungicides and applying different techniques and combined strategies. Therefore, new emerging technologies are required, including non-invasive detection, as well as monitoring and tools for the early and in-field detection of fungal development. Methods In this study, we investigated leaves of potted vines ( Vitis vinifera cv. ‘Riesling’) and traced the development of the inoculated leaves using our new remote detection system vinoLAS ® , which is based on laser-induced fluorescence spectroscopy. We ran a measurement campaign over a period of 17 days. Results We were able to detect a leaf infection with P. viticola , the causal agent of downy mildew, between 5 and 7 days after inoculation. Our results provide evidence for a successful application of laser-based standoff detection in vineyard management in the future. Thus, the vinoLAS system can serve as a model technology for the detection of pathogenic disease symptoms and thus monitoring complete vineyard sites. This allows for early countermeasures with suitable crop protection approaches and selected hot-spot treatments. Discussion As P. viticola is considered one of the most damaging fungi in European viticulture, disease mapping via this monitoring tool will help to reduce fungicide applications, and will, therefore, support the implementation of the European Green Deal claims.
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