Jones R A C
School of Plant Biology and Institute of Agriculture, The University of Western Australia, 35 Stirling Highway, Crawley, WA 6009, Australia; Department of Agriculture and Food, Locked Bag No. 4, Bentley Delivery Centre, WA 6983, Australia.
Virus Res. 2014 Jun 24;186:3-19. doi: 10.1016/j.virusres.2013.11.003. Epub 2013 Nov 22.
This review focuses on new or improved technologies currently being applied, or likely to be applied in the future, to worldwide research on plant virus epidemiology. Recent technological advances and innovations provide many opportunities to improve understanding of the way diverse types of plant virus epidemics develop and how to manage them. The review starts at the macro level by considering how recent innovations in remote sensing and precision agriculture can provide valuable information about (i) virus epidemics occurring at continental, regional or district scales (via satellites) and within individual crops (mostly via lightweight unmanned aerial vehicles), and (ii) exactly where to target control measures. It then considers recent improvements in information systems and innovations in modelling that improve (i) understanding of virus epidemics and ability to predict them, and (ii) delivery to end-users of critical advice on control measures, such as Internet-based Decision Support Systems. The review goes on to discuss how advances in analysis of spatiotemporal virus spread patterns within crops can help to enhance understanding of how virus epidemics develop and validate potentially useful virus control measures. At the micro level, the review then considers the many insights that advances in molecular epidemiology can provide about genetic variation within plant virus populations involved in epidemics, and how this variation drives what occurs at the macro level. Next, it describes how recent innovations in virus detection technologies are providing many opportunities to collect and analyse new types, and ever increasing amounts, of data about virus epidemics, and the genetic variability of the virus populations involved. Finally, the implications for plant virus epidemiology of technologies likely to be important in the future are considered. To address looming world food insecurity and threats to plant biodiversity resulting from climate change and rapid population growth, it is important that new and improved technologies that help understand and control epidemics of damaging plant viruses are adopted as smoothly and speedily as possible.
本综述聚焦于当前正在应用或未来可能应用于全球植物病毒流行病学研究的新技术或改进技术。近期的技术进步与创新为增进对各类植物病毒流行发展方式及其防控方法的理解提供了诸多机遇。综述首先从宏观层面展开,探讨遥感和精准农业领域的最新创新如何提供有关以下方面的有价值信息:(i)大陆、区域或地区尺度上(通过卫星)以及单个作物内部(主要通过轻型无人机)发生的病毒流行情况,以及(ii)控制措施的精准靶向位置。接着,考虑信息系统的近期改进和建模方面的创新,这些改进和创新能够提升(i)对病毒流行的理解及预测能力,以及(ii)向终端用户提供诸如基于互联网的决策支持系统等关键防控措施建议的能力。综述进而讨论作物内部时空病毒传播模式分析的进展如何有助于加深对病毒流行发展的理解,并验证潜在有用的病毒防控措施。在微观层面,综述接着考量分子流行病学进展能够提供的有关参与流行的植物病毒群体内遗传变异的诸多见解,以及这种变异如何推动宏观层面的现象发生。随后,描述病毒检测技术的近期创新如何为收集和分析有关病毒流行的新型且数量不断增加的数据以及所涉病毒群体的遗传变异性提供诸多机会。最后,探讨未来可能具有重要意义的技术对植物病毒流行病学的影响。为应对因气候变化和人口快速增长导致的迫在眉睫的世界粮食不安全问题以及对植物生物多样性的威胁,尽快顺利采用有助于理解和控制有害植物病毒流行的新技术和改进技术至关重要。