West Js, Kimber Rbe
Department of Plant Biology and Crop Science, Rothamsted Research St Albans, UK.
South Australian Research and Development Institute (SARDI) Adelaide, South Australia, Australia.
Ann Appl Biol. 2015 Jan;166(1):4-17. doi: 10.1111/aab.12191. Epub 2015 Jan 19.
Many innovations in the development and use of air sampling devices have occurred in plant pathology since the first description of the Hirst spore trap. These include improvements in capture efficiency at relatively high air-volume collection rates, methods to enhance the ease of sample processing with downstream diagnostic methods and even full automation of sampling, diagnosis and wireless reporting of results. Other innovations have been to mount air samplers on mobile platforms such as UAVs and ground vehicles to allow sampling at different altitudes and locations in a short space of time to identify potential sources and population structure. Geographical Information Systems and the application to a network of samplers can allow a greater prediction of airborne inoculum and dispersal dynamics. This field of technology is now developing quickly as novel diagnostic methods allow increasingly rapid and accurate quantifications of airborne species and genetic traits. Sampling and interpretation of results, particularly action-thresholds, is improved by understanding components of air dispersal and dilution processes and can add greater precision in the application of crop protection products as part of integrated pest and disease management decisions. The applications of air samplers are likely to increase, with much greater adoption by growers or industry support workers to aid in crop protection decisions. The same devices are likely to improve information available for detection of allergens causing hay fever and asthma or provide valuable metadata for regional plant disease dynamics.
自从首次描述赫斯特孢子捕捉器以来,植物病理学领域在空气采样设备的开发和使用方面出现了许多创新。这些创新包括在相对高的空气体积收集率下提高捕获效率、采用便于后续诊断方法进行样本处理的方法,甚至实现采样、诊断和结果无线报告的完全自动化。其他创新包括将空气采样器安装在无人机和地面车辆等移动平台上,以便在短时间内在不同高度和地点进行采样,从而识别潜在来源和种群结构。地理信息系统以及在采样器网络中的应用可以更准确地预测空气传播的接种体和扩散动态。随着新型诊断方法能够越来越快速、准确地对空气传播物种和遗传特征进行量化,这一技术领域正在迅速发展。通过了解空气扩散和稀释过程的组成部分,可以改进结果的采样和解读,特别是行动阈值,并且在作为病虫害综合管理决策一部分的作物保护产品应用中可以提高精度。空气采样器的应用可能会增加,种植者或行业支持人员将更多地采用它们来辅助作物保护决策。同样的设备可能会改善检测引起花粉热和哮喘的过敏原的可用信息,或者为区域植物病害动态提供有价值的元数据。