农业生态系统
根际
土壤健康
生物地球化学循环
氮气
营养循环
环境科学
土壤生物学
土壤食物网
农学
氮气循环
土壤肥力
微生物群
生态系统
生物
农业
生态学
土壤有机质
土壤水分
土壤科学
化学
细菌
遗传学
有机化学
生物信息学
作者
Jingjing Peng,Olatunde Pelumi Oladele,Xiaotong Song,Xiaotang Ju,Zhongjun Jia,Hang‐Wei Hu,Xuejun Liu,Shuikuan Bei,An‐Hui Ge,Lihua Zhang,Zhenling Cui
标识
DOI:10.15302/j-fase-2022450
摘要
● Matching nitrification inhibitors with soil properties and nitrifiers is vital to achieve a higher NUE. ● Enhancing BNF, DNRA and microbial N immobilization processes via soil amendments can greatly contribute to less chemical N fertilizer input. ● Plant-associated microbiomes are critical for plant nutrient uptake, growth and fitness. ● Coevolutionary trophic relationships among soil biota need to be considered for improving crop NUE.
Soil microbiomes drive the biogeochemical cycling of nitrogen and regulate soil N supply and loss, thus, pivotal nitrogen use efficiency (NUE). Meanwhile, there is an increasing awareness that plant associated microbiomes and soil food web interactions is vital for modulating crop productivity and N uptake. The rapid advances in modern omics-based techniques and biotechnologies make it possible to manipulate soil-plant microbiomes for improving NUE and reducing N environmental impacts. This paper summarizes current progress in research on regulating soil microbial N cycle processes for NUE improvement, plant-microbe interactions benefiting plant N uptake, and the importance of soil microbiomes in promoting soil health and crop productivity. We also proposes a potential holistic (rhizosphere-root-phyllosphere) microbe-based approach to improve NUE and reduce dependence on mineral N fertilizer in agroecosystems, toward nature-based solution for nutrient management in intensive cropping systems.
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