微生物种群生物学
根际
全球变化
生物
生态学
微生物生态学
群落结构
农学
蛋白质细菌
植物群落
氮气循环
生态系统
碳循环
环境科学
陆生植物
α多样性
植物代谢
环境变化
扩增子测序
非生物成分
土壤微生物学
陆地生态系统
微生物代谢
土壤碳
适应(眼睛)
酸杆菌
表型可塑性
全球变暖
大块土
生物地球化学循环
气候变化
作者
X Xu,J J Liu,Shicong Chen,S Liu,Menghui Dong,Qingfeng Xu,Peiyao Yang,Ting Sun,Longzheng Wang,Hemu Zhang,Yang Yang,Qirong Shen,Zongzhuan Shen,R K Li
摘要
Under global change, terrestrial plants adjust their physiological metabolism alongside adaptive restructuring of rhizosphere microbial communities, yet the mechanistic links between plant phenotypic plasticity and microbial consortia remain unclear. Here, we conducted a meta-analysis of 272 global-change experimental comparisons and found that, among all global change factors examined, nitrogen addition exerted the strongest effects on both plant yield and microbial community assembly. Plant adaptive responses were more strongly associated with shifts in microbial community structure than with changes in alpha diversity. Microbial community structure reorganization was associated with increased soil carbon availability, whereas higher local microbial beta diversity constrained the magnitude of structural change. Based on a reanalysis of published amplicon sequencing datasets, we found that more stable and complex microbial networks, enriched with Proteobacteria and Actinobacteria, were associated with higher plant yield. These findings underscore plant-microbe co-adaptation under global change, highlighting microbial community structure as a key mediator linking soil environmental shifts to plant adaptive performance.
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