A study by researchers at Peking University’s Institute of Carbon Neutrality has unveiled how plants and animals respond differently to climate change in their seasonal biological cycles, or phenology. This large-scale analysis, led by Piao Shilong and Zhang Yao, highlights increasing mismatches between the two groups, raising concerns about the stability of ecosystems.

Published in Nature Ecology & Evolution, the study compiled an extensive dataset of phenological observations, including nearly half a million time series for plants (covering 1,629 species or genera across 248 events) and over 43,000 for animals, covering numerous species and events across four decades.

Global distribution of phenological records (s. climate change, plants, animals)
Global distribution of phenological records. a. Distribution of plant phenology observation sites; b. Distribution of animal phenology observation sites; c. Plant species; d. Plant phenology categories; e. Animal classes; f. Animal phenology categories. Credit: Lang et al. (2024) | DOI: 10.1038/s41559-024-02597-0 | Nature Ecology & Evolution

The findings show that plants exhibit a stronger response to warming, with later seasonal events such as fruiting advancing significantly over time. Nearly 30% of these changes were influenced by earlier events in the same growing season, suggesting that warming effects accumulate and amplify as seasons progress.

By contrast, animals displayed weaker and more variable phenological shifts. While insects showed slight advancements, the timing of seasonal activities in birds, mammals, and amphibians was often delayed. This variability stems from animals’ reliance on environmental cues, such as temperature or resource availability, which weakens the link between successive phenological events.

The research highlights that these divergent mechanisms may lead to increasing asynchrony between plants and animals. For instance, earlier flowering in plants might not align with the activity of pollinators, potentially disrupting trophic interactions. Such imbalances could ripple through ecosystems, affecting their overall functioning and stability.

The paper, co-authored by Lang Weiguang, Piao Shilong, and Zhang Yao, indicates the need to understand these phenological divergences to predict ecosystem responses to ongoing climate warming. The researchers emphasize that addressing such asynchrony is crucial to safeguarding ecological balance in a warming world.

Journal Reference:
Lang, W., Zhang, Y., Li, X. et al. ‘Phenological divergence between plants and animals under climate change’,Nature Ecology & Evolution (2024). DOI: 10.1038/s41559-024-02597-0

Article Source:
Press Release/Material by Peking University
Featured image credit: kuritafsheen77 | Freepik

Image
The crucial role of Atlantic-Arctic water mixing in global ocean circulation and climate stabilityClimate

The crucial role of Atlantic-Arctic water mixing in global ocean circulation and climate stability

A recent study has highlighted the significant impact of mixing Atlantic and Arctic waters on sustaining the Atlantic Meridional Overturning Circulation (AMOC), a critical component…
Adrian AlexandreAdrian AlexandreAugust 30, 2024 Full article
Image: Close-up of ripe grapes on vineyard vines ready for harvest under bright sunlight
Climate change may not force vineyards to switch grape varietiesClimate

Climate change may not force vineyards to switch grape varieties

Researchers found that the most profitable response to rising temperatures depends on how severe future warming becomes Summary: Wine producers facing more frequent extreme heat…
SourceSourceJune 8, 2026 Full article
Image: Project seeks to strengthen public policy for disaster risk management (s. Brazil)
Climate threats expose Brazil’s civil defense weaknessesClimate

Climate threats expose Brazil’s civil defense weaknesses

Research proposes action fronts to increase the organizational capacity of these units in municipalities; expanded coordination with other areas is one of the next steps…
SourceSourceMay 15, 2025 Full article