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通过养分和水分管理来缩小产量差距。

Closing yield gaps through nutrient and water management.

机构信息

Institute on the Environment, University of Minnesota, St. Paul, Minnesota 55108, USA.

出版信息

Nature. 2012 Oct 11;490(7419):254-7. doi: 10.1038/nature11420. Epub 2012 Aug 29.

DOI:10.1038/nature11420
PMID:22932270
Abstract

In the coming decades, a crucial challenge for humanity will be meeting future food demands without undermining further the integrity of the Earth's environmental systems. Agricultural systems are already major forces of global environmental degradation, but population growth and increasing consumption of calorie- and meat-intensive diets are expected to roughly double human food demand by 2050 (ref. 3). Responding to these pressures, there is increasing focus on 'sustainable intensification' as a means to increase yields on underperforming landscapes while simultaneously decreasing the environmental impacts of agricultural systems. However, it is unclear what such efforts might entail for the future of global agricultural landscapes. Here we present a global-scale assessment of intensification prospects from closing 'yield gaps' (differences between observed yields and those attainable in a given region), the spatial patterns of agricultural management practices and yield limitation, and the management changes that may be necessary to achieve increased yields. We find that global yield variability is heavily controlled by fertilizer use, irrigation and climate. Large production increases (45% to 70% for most crops) are possible from closing yield gaps to 100% of attainable yields, and the changes to management practices that are needed to close yield gaps vary considerably by region and current intensity. Furthermore, we find that there are large opportunities to reduce the environmental impact of agriculture by eliminating nutrient overuse, while still allowing an approximately 30% increase in production of major cereals (maize, wheat and rice). Meeting the food security and sustainability challenges of the coming decades is possible, but will require considerable changes in nutrient and water management.

摘要

在未来几十年,人类将面临一个重大挑战,那就是在不进一步破坏地球环境系统完整性的前提下,满足未来的粮食需求。农业系统已经是全球环境退化的主要力量,但预计到 2050 年,人口增长和对高热量、肉类密集型饮食的消费增加将使人类对粮食的需求增加约一倍(参考文献 3)。为应对这些压力,人们越来越关注“可持续集约化”,作为一种在表现不佳的土地上提高产量,同时减少农业系统环境影响的手段。然而,目前尚不清楚这些努力对未来全球农业景观可能意味着什么。在这里,我们对通过缩小“产量差距”(观察到的产量与给定地区可达到的产量之间的差异)、农业管理实践和产量限制的空间格局以及实现产量增加所需的管理变化来提高集约化水平的前景进行了全球评估。我们发现,肥料使用、灌溉和气候对全球产量的变化有很大的控制作用。通过将产量差距缩小到可达到产量的 100%,大多数作物的产量可能会增加 45%至 70%,而要缩小产量差距所需的管理实践的变化因地区和当前的集约化程度而有很大差异。此外,我们发现,通过消除养分过度使用,同时仍然允许主要谷物(玉米、小麦和水稻)产量增加约 30%,还有很大的机会减少农业的环境影响。满足未来几十年的粮食安全和可持续性挑战是可能的,但需要对养分和水管理进行重大改变。

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本文引用的文献

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Global food demand and the sustainable intensification of agriculture.全球粮食需求与农业可持续集约化发展。
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Nature. 2011 Oct 12;478(7369):337-42. doi: 10.1038/nature10452.
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Climate trends and global crop production since 1980.自 1980 年以来的气候趋势和全球作物产量。
符合中国未来粮食安全需求、适应社会经济发展和气候变化的膳食模式的优点。
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Optimal fertilizer rate and sowing density can improve oat quality, yield and N and P comprehensive efficiency in the Loess Plateau of China.在中国黄土高原,最佳施肥量和播种密度可提高燕麦品质、产量以及氮磷综合利用效率。
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Impacts of climate change on global agriculture accounting for adaptation.气候变化对考虑适应因素的全球农业的影响。
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