合理的水氮调节能提高玉米-大豆的产量和水氮生产力。中国河西绿洲灌区带状间作制度研究。

IF 4 2区 生物学 Q1 PLANT SCIENCES
Haoliang Deng, Xiaofan Pan, Guang Li, Qinli Wang, Rang Xiao
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引用次数: 0

摘要

河西走廊绿洲灌区玉米-大豆带状间作种植面积逐年增加。然而,长期不合理的水资源利用和过度的单施化肥导致该种植系统的水氮利用效率显著低下。为探索玉米-大豆条子间作高产高产水氮生产力可持续生产模式,建立了3个灌溉水平(低:基准作物蒸散量的60%、中:80%、足:100%)和3个施氮水平(低:玉米230 kg ha-1、大豆29 kg ha-1;中粒:玉米340 kg hm -1,大豆57 kg hm -1;高:玉米450 kg hm -1,大豆85 kg hm -1)。不施氮的三个灌溉水平作为对照。分析了不同水氮组合对玉米-大豆带状间作系统产量、水氮生产力和品质等多项指标的影响。结果表明,灌水量和施氮量对玉米籽粒品质有显著影响。其中,中氮和足水(N2W3)组合在粗脂肪、淀粉和容重方面表现最佳。过量的灌溉和施氮导致玉米赖氨酸和粗蛋白质含量降低,大豆粗脂肪和粗淀粉含量降低。适当的灌溉和施氮显著提高了玉米-大豆带状间作系统的产量,其中N2W3处理产量最高,玉米和大豆产量分别达到14007.02和2025.39 kg hm -1,比其他处理分别提高了2.52% ~ 138.85%和5.37% ~ 191.44%。考虑到河西走廊绿洲农业区的生长环境,以及不同水氮供给对带状间作玉米、大豆产量、水氮生产力和籽粒品质的影响,当玉米、大豆的灌溉定额设定为100% ET0(参考作物蒸散量)时,目标产量最高。施氮量分别为354.78~422.51 kg ha-1和60.27~71.81 kg ha-1。为河西走廊绿洲农业区玉米-大豆带状间作提高产量和品质,实现高产和优质的双重目标提供指导。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Rational Water and Nitrogen Regulation Can Improve Yield and Water-Nitrogen Productivity of the Maize (Zea mays L.)-Soybean (Glycine max L. Merr.) Strip Intercropping System in the China Hexi Oasis Irrigation Area.

The planting area of the maize-soybean strip intercropping system has been increasing annually in the Hexi Corridor oasis irrigation area of China. However, long-term irrational water resource utilization and the excessive mono-application of fertilizers have led to significantly low water and nitrogen use efficiency in this cropping system. To explore the sustainable production model of high yield and high water-nitrogen productivity in maize-soybean strip intercropping, we established three irrigation levels (low: 60%, medium: 80%, and sufficient: 100% of reference crop evapotranspiration) and three nitrogen application levels (low: maize 230 kg ha-1, soybean 29 kg ha-1; medium: maize 340 kg ha-1, soybean 57 kg ha-1; and high: maize 450 kg ha-1, soybean 85 kg ha-1) for maize and soybean, respectively. Three irrigation levels without nitrogen application served as controls. The effects of different water-nitrogen combinations on multiple indicators of the maize-soybean strip intercropping system, including yield, water-nitrogen productivity, and quality, were analyzed. The results showed that the irrigation amount and nitrogen application rate significantly affected the kernel quality of maize. Specifically, the medium nitrogen and sufficient water (N2W3) combination achieved optimal performance in crude fat, starch, and bulk density. However, excessive irrigation and nitrogen application led to a reduction in the content of lysine and crude protein in maize, as well as crude fat and crude starch in soybean. Appropriate irrigation and nitrogen application significantly increased the yield in the maize-soybean strip intercropping system, in which the N2W3 treatment had the highest yield, with maize and soybean yields reaching 14007.02 and 2025.39 kg ha-1, respectively, which increased by 2.52% to 138.85% and 5.37% to 191.44% compared with the other treatments. Taking into account the growing environment of the oasis agricultural area in the Hexi Corridor and the effects of different water and nitrogen supplies on the yield, water-nitrogen productivity, and kernel quality of maize and soybeans in the strip intercropping system, the highest target yield can be achieved when the irrigation quotas for maize and soybeans are set at 100% ET0 (reference crop evapotranspiration), with nitrogen application rates of 354.78~422.51 kg ha-1 and 60.27~71.81 kg ha-1, respectively. This provides guidance for enhancing yield and quality in maize-soybean strip intercropping in the oasis agricultural area of the Hexi Corridor, achieving the dual objectives of high yield and superior quality.

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来源期刊
Plants-Basel
Plants-Basel Agricultural and Biological Sciences-Ecology, Evolution, Behavior and Systematics
CiteScore
6.50
自引率
11.10%
发文量
2923
审稿时长
15.4 days
期刊介绍: Plants (ISSN 2223-7747), is an international and multidisciplinary scientific open access journal that covers all key areas of plant science. It publishes review articles, regular research articles, communications, and short notes in the fields of structural, functional and experimental botany. In addition to fundamental disciplines such as morphology, systematics, physiology and ecology of plants, the journal welcomes all types of articles in the field of applied plant science.
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