生态学
干旱
生物多样性
生物地理学
植被(病理学)
植物生态学
空间生态学
生物
维管植物
植物进化
生产力
特质
开花植物
植物群落
β多样性
植物覆盖
地理
物种丰富度
基因
宏观经济学
医学
经济
生物化学
病理
基因组
计算机科学
程序设计语言
作者
Fernando T. Maestre,Blas M. Benito,Miguel Berdugo,Laura Concostrina‐Zubiri,Manuel Delgado‐Baquerizo,David J. Eldridge,Emilio Guirado,Nicolas Gross,Sonia Kéfi,Yoann Le Bagousse‐Pinguet,Raúl Ochoa‐Hueso,Santiago Soliveres
摘要
Summary Despite their extent and socio‐ecological importance, a comprehensive biogeographical synthesis of drylands is lacking. Here we synthesize the biogeography of key organisms (vascular and nonvascular vegetation and soil microorganisms), attributes (functional traits, spatial patterns, plant–plant and plant–soil interactions) and processes (productivity and land cover) across global drylands. These areas have a long evolutionary history, are centers of diversification for many plant lineages and include important plant diversity hotspots. This diversity captures a strikingly high portion of the variation in leaf functional diversity observed globally. Part of this functional diversity is associated with the large variation in response and effect traits in the shrubs encroaching dryland grasslands. Aridity and its interplay with the traits of interacting plant species largely shape biogeographical patterns in plant–plant and plant–soil interactions, and in plant spatial patterns. Aridity also drives the composition of biocrust communities and vegetation productivity, which shows large geographical variation. We finish our review by discussing major research gaps, which include: studying regular vegetation spatial patterns; establishing large‐scale plant and biocrust field surveys assessing individual‐level trait measurements; knowing whether the impacts of plant–plant and plant–soil interactions on biodiversity are predictable; and assessing how elevated CO 2 modulates future aridity conditions and plant productivity.
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