Climate warming reshapes seasonal flowering but stabilizes species interactions in a Tibetan alpine grassland

Climate warming commonly drives asymmetric shifts in flowering phenology among species, potentially disrupting plant-plant interactions and threatening ecosystem stability. However, the mechanisms driving these species-specific phenological responses, and the extent to which resulting asynchrony destabilizes interspecific interactions, remain poorly understood. Using a 3-yr in situ warming experiment in a Tibetan alpine grassland, we monitored seasonal flowering patterns of 29 species and quantified interaction potentials across 812 species pairs from their flowering-time overlap. Warming advanced the start of the flowering season in 75.9% of species and the end of the flowering season in 69.0%, with greater phenological shifts in late- than early-flowering species, in insect- than wind-pollinated species, and with more similar shifts in closely related species than in distantly related species. By contrast, warming significantly altered the interaction potential in only 6.8% of species pairs (55/812), independent of the pairwise phylogenetic distance. Our results advance understanding of species-specific phenological shifts in alpine grasslands and reveal that warming may induce substantial phenological reassembly without necessarily disrupting plant-plant interactions, suggesting resilience of ecological networks to phenological change.

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Publication Details

Journal
New Phytologist
Published
2025-09-02
DOI
https://doi.org/10.1111/nph.70537
Citations
1
Primary Topic
Plant and animal studies
Type
article
Field-Weighted Citation Impact
3.03

Funders

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article

Climate warming reshapes seasonal flowering but stabilizes species interactions in a Tibetan alpine grassland

Shijie Ning, Lijuan Sun, Jin He, Chao Song et al.
1 citations
New Phytologist
Plant and animal studies
3.03
article

Climate warming reshapes seasonal flowering but stabilizes species interactions in a Tibetan alpine grassland

Shijie Ning, Lijuan Sun, Jin He, Chao Song, Chunyan Lu, Xin Jing, Zhenhua Zhang, Jianbin Wang, Hao Wang, Huiying Liu, Jun Ma, Huimin Zhou, Juanjuan Zhang
article en
1 citations

Abstract

Climate warming commonly drives asymmetric shifts in flowering phenology among species, potentially disrupting plant-plant interactions and threatening ecosystem stability. However, the mechanisms driving these species-specific phenological responses, and the extent to which resulting asynchrony destabilizes interspecific interactions, remain poorly understood. Using a 3-yr in situ warming experiment in a Tibetan alpine grassland, we monitored seasonal flowering patterns of 29 species and quantified interaction potentials across 812 species pairs from their flowering-time overlap. Warming advanced the start of the flowering season in 75.9% of species and the end of the flowering season in 69.0%, with greater phenological shifts in late- than early-flowering species, in insect- than wind-pollinated species, and with more similar shifts in closely related species than in distantly related species. By contrast, warming significantly altered the interaction potential in only 6.8% of species pairs (55/812), independent of the pairwise phylogenetic distance. Our results advance understanding of species-specific phenological shifts in alpine grasslands and reveal that warming may induce substantial phenological reassembly without necessarily disrupting plant-plant interactions, suggesting resilience of ecological networks to phenological change.

New PhytologistVol. 248(4)
Peking University (CN), Ministry of Agriculture (EE), Xinjiang Institute of Ecology and Geography (CN), Ecosystem Sciences (AU), East China Normal University (CN), Lanzhou University (CN)
National Natural Science Foundation of China, National Key Research and Development Program of China
Openalex Percentile: Top 8%
Plant and animal studies
3.03
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