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承受更多的压力:农作物与全球变化。

More than taking the heat: crops and global change.

机构信息

Institute of Genomic Biology, University of Illinois at Urbana Champaign, IL 61801, USA.

出版信息

Curr Opin Plant Biol. 2010 Jun;13(3):241-8. doi: 10.1016/j.pbi.2010.04.008. Epub 2010 May 20.

Abstract

Grain production per unit of land will need to more than double over this century to address rising population and demand. This at a time when the procedures that have delivered increased yields over the past 50 years may have reached their ceiling for some of the world's most important crops. Rising global temperature and more frequent droughts will act to drive down yields. The projected rise in atmospheric [CO(2)] by mid-century could in theory increase crop photosynthesis by over 30%, but this is not realized in grain yields in current C(3) cultivars in the field. Emerging understanding of gene networks controlling responses to these environmental changes indicates biotechnological opportunities for adaptation. Considerably more basic research, particularly under realistic field conditions, is critical before these opportunities can be adequately understood and validated. Given the time needed between discovery in a model plant species and translation to traits or stacked changes in a commercial grain crop cultivar, there is an urgent need to vigorously pursue and develop these opportunities now.

摘要

在本世纪,为了应对人口增长和需求,单位土地的粮食产量需要增加一倍以上。而就在此时,过去 50 年来提高粮食产量的方法,可能已经达到了世界上一些最重要作物的产量上限。全球气温上升和更频繁的干旱将导致产量下降。到本世纪中叶,大气中[CO(2)]预计将增加 30%以上,而在当前 C(3)品种的田间实际谷物产量中并没有体现出来。对控制这些环境变化反应的基因网络的新认识表明,生物技术有适应的机会。在充分理解和验证这些机会之前,需要进行更多的基础研究,特别是在现实的田间条件下。鉴于从模式植物物种中发现到转化为商业谷物作物品种的特性或叠加变化之间所需的时间,现在迫切需要积极追求和开发这些机会。

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