ENSO amplifies global vegetation resilience variability in a changing climate

A thorough understanding of vegetation resilience to climate variability is critical for sustaining ecosystem functions and terrestrial carbon sinks. Although the El Niño-Southern Oscillation (ENSO) is a key driver of global extreme weather events and vegetation dynamics, its impacts on vegetation resilience remain unclear. Here we estimate global present-day (1981-2018) and future (2015-2100) vegetation resilience using a lag-1 autocorrelation analysis of global leaf area index (LAI) time series and investigate its teleconnection to ENSO. Our findings reveal that ENSO significantly affects vegetation resilience across 53% of the global vegetated area. Within these regions, 15% are linked primarily to large-scale atmospheric synchrony with ENSO, 51% are mainly shaped by ENSO-driven local climate anomalies, and the remaining 34% are influenced by both processes. Future projections suggest that the area impacted via ENSO-driven climate anomalies may expand by 7-10%, with Eastern Siberia and northern North America newly affected. Our study provides a coherent global assessment of vegetation resilience sensitivity to ENSO, identifies teleconnected hotspots and potential influential pathways, and informs targeted restoration and climate-adaptive ecosystem governance under climate change.

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Publication Details

Journal
Nature Communications
Published
2025-12-04
DOI
https://doi.org/10.1038/s41467-025-66987-z
Primary Topic
Ecosystem dynamics and resilience
Type
article
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article

ENSO amplifies global vegetation resilience variability in a changing climate

Lindsay C. Stringer, Haicheng Zhang, Wei Zhou, Changjia Li et al.
Nature Communications
Ecosystem dynamics and resilience
article

ENSO amplifies global vegetation resilience variability in a changing climate

Lindsay C. Stringer, Haicheng Zhang, Wei Zhou, Changjia Li, Zhongci Deng, Jingyu Wang, Zhen Wang
article en

Abstract

A thorough understanding of vegetation resilience to climate variability is critical for sustaining ecosystem functions and terrestrial carbon sinks. Although the El Niño-Southern Oscillation (ENSO) is a key driver of global extreme weather events and vegetation dynamics, its impacts on vegetation resilience remain unclear. Here we estimate global present-day (1981-2018) and future (2015-2100) vegetation resilience using a lag-1 autocorrelation analysis of global leaf area index (LAI) time series and investigate its teleconnection to ENSO. Our findings reveal that ENSO significantly affects vegetation resilience across 53% of the global vegetated area. Within these regions, 15% are linked primarily to large-scale atmospheric synchrony with ENSO, 51% are mainly shaped by ENSO-driven local climate anomalies, and the remaining 34% are influenced by both processes. Future projections suggest that the area impacted via ENSO-driven climate anomalies may expand by 7-10%, with Eastern Siberia and northern North America newly affected. Our study provides a coherent global assessment of vegetation resilience sensitivity to ENSO, identifies teleconnected hotspots and potential influential pathways, and informs targeted restoration and climate-adaptive ecosystem governance under climate change.

Nature CommunicationsVol. 17(1)
Sun Yat-sen University (CN), Huazhong Agricultural University (CN), Beijing Normal University (CN), Ministry of Education (IR), Center of Hubei Cooperative Innovation for Emissions Trading System (CN), University of York (GB), Hubei University (CN)
Openalex Percentile: Top 64%
Ecosystem dynamics and resilience
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