Relationships of temperature and biodiversity with stability of natural aquatic food webs

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作者
Qinghua Zhao
Paul J. Van den Brink
Chi Xu
Shaopeng Wang
Adam T. Clark
Canan Karakoç
George Sugihara
Claire E. Widdicombe
Angus Atkinson
Shin-ichiro S. Matsuzaki
Ryuichiro Shinohara
Shuiqing He
Yingying. X. G. Wang
Frederik De Laender
机构
[1] Wageningen University & Research,Aquatic Ecology and Water Quality Management Group
[2] University of Namur,Research Unit of Environmental and Evolutionary Biology (URBE)
[3] University of Namur,Institute of Complex Systems (naXys)
[4] University of Namur,Institute of Life, Earth and the Environment (ILEE)
[5] Wageningen Environmental Research,School of Life Sciences
[6] Nanjing University,Institute of Ecology, College of Urban and Environmental Science, and Key Laboratory for Earth Surface Processes of the Ministry of Education
[7] Peking University,Institute of Biology
[8] University of Graz,Department of Biology
[9] Indiana University,Scripps Institution of Oceanography
[10] University of California-San Diego,Wildlife Ecology and Conservation Group
[11] Plymouth Marine Laboratory,Department of Biological and Environmental Science
[12] Prospect Place,undefined
[13] The Hoe,undefined
[14] National Institute for Environmental Studies,undefined
[15] Wageningen University & Research,undefined
[16] University of Jyväskylä,undefined
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摘要
Temperature and biodiversity changes occur in concert, but their joint effects on ecological stability of natural food webs are unknown. Here, we assess these relationships in 19 planktonic food webs. We estimate stability as structural stability (using the volume contraction rate) and temporal stability (using the temporal variation of species abundances). Warmer temperatures were associated with lower structural and temporal stability, while biodiversity had no consistent effects on either stability property. While species richness was associated with lower structural stability and higher temporal stability, Simpson diversity was associated with higher temporal stability. The responses of structural stability were linked to disproportionate contributions from two trophic groups (predators and consumers), while the responses of temporal stability were linked both to synchrony of all species within the food web and distinctive contributions from three trophic groups (predators, consumers, and producers). Our results suggest that, in natural ecosystems, warmer temperatures can erode ecosystem stability, while biodiversity changes may not have consistent effects.
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