2017
DOI: 10.1007/s11104-017-3487-3
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The role of complementarity and selection effects in P acquisition of intercropping systems

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Cited by 50 publications
(39 citation statements)
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“…Consequently, like the maize/pea intercropping [22], the grain yield, net returns and benefit to cost rations of maize/peanut intercropping may be similar or even lower than sole maize. However, the inclusion of annual legumes in cropping systems via either cereal/legume intercropping or cereal-legume rotations can significantly reduce the use of synthetic N and P fertilizer, as the legumes fix N 2 from the atmosphere to reduce the requirement for inorganic nitrogen in crop production, and secret H+ and organic acids to mobilize soil sparingly soluble P to facilitate P uptake by maize [34,35,[53][54][55][56][57]. Furthermore, such a cereal/legume intercropping system can provide significant ecological and environmental benefits by also lowering the environmental carbon footprint [38,[58][59][60], and enhancing soil and ecological sustainability and/or resilience to climate change and pest, disease and weed damage [3,4,10,[61][62][63].…”
Section: Discussionmentioning
confidence: 99%
“…Consequently, like the maize/pea intercropping [22], the grain yield, net returns and benefit to cost rations of maize/peanut intercropping may be similar or even lower than sole maize. However, the inclusion of annual legumes in cropping systems via either cereal/legume intercropping or cereal-legume rotations can significantly reduce the use of synthetic N and P fertilizer, as the legumes fix N 2 from the atmosphere to reduce the requirement for inorganic nitrogen in crop production, and secret H+ and organic acids to mobilize soil sparingly soluble P to facilitate P uptake by maize [34,35,[53][54][55][56][57]. Furthermore, such a cereal/legume intercropping system can provide significant ecological and environmental benefits by also lowering the environmental carbon footprint [38,[58][59][60], and enhancing soil and ecological sustainability and/or resilience to climate change and pest, disease and weed damage [3,4,10,[61][62][63].…”
Section: Discussionmentioning
confidence: 99%
“…Although P-mobilizing effects of legumes, particularly as cover crops, are well investigated and positive effects on other crops in the crop rotation have been postulated, these effects are still rather inconsistent, calling for further investigations to identify limiting factors (e.g., Pavinato et al [36] ). Intercropping of maize with grain legumes might be another promising option [37] .…”
Section: The Research Approachmentioning
confidence: 99%
“…悠久的历史, 从有史料记载的公元前1 世纪之前的西汉 到现在, 历经了2000多年的发展 [6] , 比较常见的有大豆 和小麦、大豆和玉米、蚕豆和玉米、鹰嘴豆和玉米、 谷子和花生、花生和玉米等间作模式 [14,15] . 引用格式: 邱巍, 王男麒, 代晶, 等.…”
Section: 在我国 作物的间作种类模式极其丰富 而且具有非常unclassified
“…相对于单作小麦或大麦, 间作促进两种作物 的生态位互补, 通过提高植株氮磷钾的累积进而提高 产量 [32] . 与之类似, 蚕豆/玉米间作的正向互补效应能 促进蚕豆的磷吸收率提高28.4%, 而鹰嘴豆/玉米间作 的正向互补和选择效应则能使鹰嘴豆的磷吸收率提高 27.6% [14] . 除此之外, 豆科/禾本科间作体系中的豆科作 物生物固氮和禾本科作物对土壤氮素利用上的互补和 促进作用, 也能显著提高禾本科作物产量, 增加作物生 产力的稳定性 [9,10] .…”
Section: 在我国 作物的间作种类模式极其丰富 而且具有非常unclassified