物种丰富度
非生物成分
生物多样性
生态系统
生态学
生态稳定性
生物成分
理论(学习稳定性)
气候变化
地理
环境资源管理
自然(考古学)
生物
环境科学
计算机科学
机器学习
考古
作者
Enrique Valencia,Francesco de Bello,Thomas Galland,Peter B. Adler,Jan Lepš,Anna E‐Vojtkó,Roel van Klink,Carlos P. Carmona,Jiří Danihelka,Jürgen Dengler,David J. Eldridge,Marc Estiarte,Ricardo García‐González,Éric Garnier,Daniel Gómez,Susan Harrison,Tomáš Herben,Ricardo Ibáñez,Anke Jentsch,Norbert Juergens
标识
DOI:10.1073/pnas.1920405117
摘要
Significance The stability of ecological communities under ongoing climate and land-use change is fundamental to the sustainable management of natural resources through its effect on critical ecosystem services. Biodiversity is hypothesized to enhance stability through compensatory effects (decreased synchrony between species). However, the relative importance and interplay between different biotic and abiotic drivers of stability remain controversial. By analyzing long-term data from natural and seminatural ecosystems across the globe, we found that the degree of synchrony among dominant species was the main driver of stability, rather than species richness per se. These biotic effects overrode environmental drivers, which influenced the stability of communities by modulating the effects of richness and synchrony.
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