Nuccio Michael L, Potter Laura, Stiegelmeyer Suzy M, Curley Joseph, Cohn Jonathan, Wittich Peter E, Tan Xiaoping, Davis Jimena, Ni Junjian, Trullinger Jon, Hall Rick, Bate Nicholas J
Syngenta Crop Protection, LLC., 9 Davis Drive, Research Triangle Park, NC 541-8500, USA.
Syngenta Crop Protection, LLC., 9 Davis Drive, Research Triangle Park, NC 541-8500, USA
Philos Trans R Soc Lond B Biol Sci. 2017 Sep 26;372(1730). doi: 10.1098/rstb.2016.0377.
Crop productivity needs to substantially increase to meet global food and feed demand for a rapidly growing world population. Agricultural technology developers are pursuing a variety of approaches based on both traditional technologies such as genetic improvement, pest control and mechanization as well as new technologies such as genomics, gene manipulation and environmental modelling to develop crops that are capable of meeting growing demand. Photosynthesis is a key biochemical process that, many suggest, is not yet optimized for industrial agriculture or the modern global environment. We are interested in identifying control points in maize photoassimilation that are amenable to gene manipulation to improve overall productivity. Our approach encompasses: developing and using novel gene discovery techniques, translating our discoveries into traits and evaluating each trait in a stepwise manner that reflects a modern production environment. Our aim is to provide step change advancement in overall crop productivity and deliver this new technology into the hands of growers.This article is part of the themed issue 'Enhancing photosynthesis in crop plants: targets for improvement'.
为满足快速增长的全球人口对粮食和饲料的需求,作物生产力需要大幅提高。农业技术开发者正在采用多种方法,这些方法既基于传统技术,如遗传改良、病虫害防治和机械化,也基于新技术,如基因组学、基因操作和环境建模,以培育能够满足不断增长需求的作物。光合作用是一个关键的生化过程,许多人认为,它尚未针对工业化农业或现代全球环境进行优化。我们感兴趣的是确定玉米光同化作用中的控制点,这些控制点适合进行基因操作以提高整体生产力。我们的方法包括:开发和使用新颖的基因发现技术,将我们的发现转化为性状,并以反映现代生产环境的逐步方式评估每个性状。我们的目标是在整体作物生产力方面实现跨越式进步,并将这项新技术交到种植者手中。本文是主题为“提高作物光合作用:改进目标”的特刊的一部分。