压力源
生物多样性
生态学
有机体
物种丰富度
生物
无脊椎动物
环境科学
生态系统
气候变化
基线(sea)
极端气候
栖息地
全球变化
全球变暖
嵌套
地理
环境资源管理
线性模型
滞后
航程(航空)
通才与专种
累积效应
广义线性混合模型
心理弹性
钥匙(锁)
沉积物
全球生物多样性
概念模型
生物群
作者
Willem Kaijser,Michelle Musiol,Andrea R. Schneider,Sebastian Prati,Verena S. Brauer,Rike Bayer,Sebastian Birk,Mario Brauns,Louisa Dunne,Julian Enss,Luan Farias,Christian K. Feld,Lena Feldhaus,Svenja M. Gillmann,Kamil Hupało,Stephen E. Osakpolor,Sarah L M Olberg,Iris Madge Pimentel,Ralf B. Schäfer,Christian Schlautmann
标识
DOI:10.1038/s41559-025-02884-4
摘要
Abstract Freshwater ecosystems, particularly rivers, are experiencing the most rapid biodiversity declines of any biome, driven by several interacting stressors operating across local to global scales. Despite growing research on these interactions, the lack of systematic quantification of individual stressor gradients limits our ability to disentangle their cumulative effects. Here we present a global synthesis of stressor–response relationships across five key riverine organism groups—prokaryotes, algae, macrophytes, invertebrates and fish. We screened 22,120 papers and extracted 276 studies with 1,332 stressor–response relationships. We used generalized linear mixed models and Bayesian meta-analyses to quantify the response to the seven most prevalent stressors. Consistently across taxa, biodiversity loss (taxon richness and evenness) reflected elevated salinity, oxygen depletion and fine sediment accumulation, while the association with nutrient enrichment and warming varied among groups. Predictive tools, including hypothetical outcome plots and partial dependence plots, revealed the interplay of stressors and predicted biodiversity response to stress increase. Our findings establish a quantitative baseline for a continuous global synthesis, refining predictions of anthropogenic stressor impacts, identifying key research gaps and informing conservation strategies for freshwater ecosystems.
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