Temporal asynchrony of plant and soil biota determines ecosystem multifunctional stability

The role of plant biodiversity in stabilizing ecosystem multifunctionality has been extensively studied; however, the impact of soil biota biodiversity on ecosystem multifunctional stability, particularly under multiple environmental changes, remains unexplored. By conducting an experiment with environmental changes (adding water and nitrogen to a long-term grazing experiment) and an experiment without environmental changes (an undisturbed site) in semi-arid grasslands, our research revealed that environmental changes-induced changes in temporal stability of both above- and belowground multifunctionality were mainly impacted by plant and soil biota asynchrony, rather than by species diversity. Furthermore, changes in temporal stability of above- and belowground multifunctionality, under both experiments with and without environmental changes, were mainly associated with plant and soil biota asynchrony, respectively, suggesting that the temporal asynchrony of plant and soil biota has independent and non-substitutable effects on multifunctional stability. Our findings emphasize the importance of considering both above- and belowground biodiversity or functions when evaluating the stabilizing effects of biodiversity on ecosystem functions.

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Publication Details

Journal
Global Change Biology
Published
2024-08-01
DOI
https://doi.org/10.1111/gcb.17483
Citations
11
Primary Topic
Ecosystem dynamics and resilience
Type
article
Field-Weighted Citation Impact
3.11

Funders

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article

Temporal asynchrony of plant and soil biota determines ecosystem multifunctional stability

Liji Wu, Yongfei Bai, Bing Wang, Dima Chen et al.
11 citations
Global Change Biology
Ecosystem dynamics and resilience
3.11
article

Temporal asynchrony of plant and soil biota determines ecosystem multifunctional stability

Liji Wu, Yongfei Bai, Bing Wang, Dima Chen, Shaopeng Wang, Ying Wu, Shuaifei Wang
article en
11 citations

Abstract

The role of plant biodiversity in stabilizing ecosystem multifunctionality has been extensively studied; however, the impact of soil biota biodiversity on ecosystem multifunctional stability, particularly under multiple environmental changes, remains unexplored. By conducting an experiment with environmental changes (adding water and nitrogen to a long-term grazing experiment) and an experiment without environmental changes (an undisturbed site) in semi-arid grasslands, our research revealed that environmental changes-induced changes in temporal stability of both above- and belowground multifunctionality were mainly impacted by plant and soil biota asynchrony, rather than by species diversity. Furthermore, changes in temporal stability of above- and belowground multifunctionality, under both experiments with and without environmental changes, were mainly associated with plant and soil biota asynchrony, respectively, suggesting that the temporal asynchrony of plant and soil biota has independent and non-substitutable effects on multifunctional stability. Our findings emphasize the importance of considering both above- and belowground biodiversity or functions when evaluating the stabilizing effects of biodiversity on ecosystem functions.

Global Change BiologyVol. 30(8)
China Three Gorges University (CN), Chinese Academy of Sciences (CN), Peking University (CN), Inner Mongolia University (CN), Beijing Botanical Garden (CN), Institute of Botany (CN), University of Chinese Academy of Sciences (CN)
National Natural Science Foundation of China
Life in Land
Openalex Percentile: Top 8%
Ecosystem dynamics and resilience
3.11
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