优化中国西北旱地马铃薯种植的垄沟雨水收集策略:区域方法

Agronomy Pub Date : 2024-08-11 DOI:10.3390/agronomy14081759
Lina Zhang, Siqi Ren, Feifei Pan, Jianshuo Zhou, Jingyan Jiang, Xuebiao Pan, Jing Wang, Baoru Sun, Qi Hu
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引用次数: 0

摘要

中国西北干旱和半干旱地区在马铃薯生产中发挥着重要作用,但由于降水和灌溉用水有限,产量经常受到干旱的影响。垄作雨水收集技术是一种高效且广泛应用的技术,通过改变微地形来收集雨水,满足作物的需水量,从而缓解干旱影响,提高作物产量。通过对 30 年的降水量、需水量和径流量数据进行分析,选择了适合气象条件的雨水收集方法。结果表明,该地区马铃薯的需水量超过了降水量。地膜覆盖方法在西部干旱地区表现最佳,产量和水分利用效率(WUE)的提高最为显著,同时也适用于西部半干旱地区和农牧生态区。在马铃薯旱作区,水分亏缺从东南向西北增加。具体而言,甘肃北部、宁夏北部和内蒙古中西部的缺水量超过 200 毫米,建议采用集雨与灌溉相结合的方法。相反,甘肃南部、宁夏和内蒙古中部的缺水量低于 200 毫米,可采用 1:1 或 2:1 的田埂模式,只需在必要的地区进行地膜覆盖。而在青海南部、陕西和内蒙古东部地区,则可以用平地马铃薯种植代替脊垄雨水收集。总之,雨水收集可解决缺水问题,有助于中国西北干旱和半干旱地区适应气候。地膜覆盖和脊犁技术的实施必须因地制宜。
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Optimizing Ridge–Furrow Rainwater-Harvesting Strategies for Potato Cultivation in the Drylands of Northwestern China: A Regional Approach
The arid and semi-arid region of Northwest China plays a significant role in potato production, yet yields are often hampered by drought due to limited precipitation and irrigation water. The ridge–furrow rainwater-harvesting technology is an efficient and widely used technique to relieve drought impact and improve crop yield by changing the micro-topography to harvest rainwater to meet the water demand of crops. An analysis of precipitation, water demand, and runoff data spanning 30 years guided the selection of suitable rainwater-harvesting methods tailored to meteorological conditions. The results showed that potato water demand exceeded precipitation in the region. The mulching approach performed best in the western arid region with the most significant increase in yield and water use efficiency (WUE) and was suitable for the western semi-arid region and the agro-pastoral ecotone. In the potato dryland farming areas, the water deficit increased from southeast to northwest. Specifically, northern Gansu, northern Ningxia, and midwestern Inner Mongolia experienced a water deficit of over 200 mm, and rainwater harvesting combined with irrigation was recommended. Conversely, regarding deficits below 200 mm in southern Gansu, Ningxia, and central Inner Mongolia, a 1:1 or 2:1 pattern of ridges could be applied, and mulching was needed only in the necessary areas. For the southern Qinghai, Shaanxi, and eastern Inner Mongolia regions, ridge–furrow rainwater harvesting could be replaced by flat potato cropping. In summary, rainwater harvesting addresses water deficits, aiding climate adaptation in Northwest China’s arid and semi-arid regions. The implementation of mulching and ridge–furrow technology must be location-specific.
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