Department of Biological Chemistry and Crop Protection, Rothamsted Research, Harpenden, Hertfordshire AL5 2JQ, UK.
Mol Plant Pathol. 2013 Feb;14(2):197-210. doi: 10.1111/mpp.12001. Epub 2012 Nov 16.
Every year, fungicide use to control plant disease caused by pathogenic fungi increases. The global fungicide market is now worth more than £5.3 billion, second only to the herbicide market in importance. In the UK, over 5500 tonnes of fungicide were applied to crops in 2010 (The Food and Environment Research Agency, Pesticide Usage Statistics), with 95.5% of the wheat-growing area receiving three fungicide sprays. Although dependence on fungicides to produce food securely, reliably and cheaply may be moderated in the future by further developments in crop biotechnology, modern crop protection will continue to require a diversity of solutions, including effective and safe chemical control. Therefore, investment in exploiting the increasingly available genome sequences of the most devastating fungal and oomycete phytopathogenic species should bring an array of new opportunities for chemical intervention. To date, the impact of whole genome research on the development, introduction and stewardship of fungicides has been limited, but ongoing improvements in computational analysis, molecular biology, chemical genetics, genome sequencing and transcriptomics will facilitate the development and registration of the future suite of crop protection chemicals.
每年,用于防治由病原真菌引起的植物病害的杀菌剂使用量都在增加。目前,全球杀菌剂市场价值超过 53 亿英镑,仅次于除草剂市场。在英国,2010 年有超过 5500 吨的杀菌剂被施用于农作物(食品与环境研究局,农药使用统计),95.5%的小麦种植区接受了三次杀菌剂喷雾。尽管未来通过作物生物技术的进一步发展,可能会减轻对杀菌剂的依赖,从而安全、可靠和廉价地生产食物,但现代作物保护仍将需要多种解决方案,包括有效和安全的化学控制。因此,开发越来越多的破坏性最强的真菌和卵菌植物病原菌的基因组序列,将为化学干预带来一系列新的机会。迄今为止,全基因组研究对杀菌剂的开发、引入和管理的影响有限,但计算分析、分子生物学、化学遗传学、基因组测序和转录组学的持续改进将有助于开发和注册未来一系列的作物保护化学品。