Forest Productivity Decreases in Response to Recent Changes in Vegetation Structure and Climate in the Latitudinal Extremes of the European Continent

ABSTRACT Aim Climate change is driving increasingly frequent and intense extreme climatic events, pushing many forests worldwide beyond their physiological thresholds. Despite the major role played by forests in the global carbon cycle, climate change threatens the future potential for carbon sequestration in forests. Hence, studies of recent changes in stand productivity and the underlying drivers over large areas are critical to understand and assess the forest carbon sink. We aimed to describe recent changes in forest productivity in the latitudinal extremes of the European continent and the role of climate and climate change in driving these patterns. Location Latitudinal extremes of the European continent (Spain and Sweden). Time Period From 1980s to the present. Major Taxa Studied Trees. Methods We analysed data from > 13,900 plots in Mediterranean, temperate and boreal regions using three consecutive surveys from the Spanish and Swedish National Forest Inventories (NFI). Generalised linear models were parameterised to assess how forest structure, climate and climatic anomalies (mean temperature, annual precipitation, drought, heatwaves) influenced forest productivity across two time periods. Results Despite increases in stand basal area, forest productivity declined over time. The effects of recent climate change intensified, with temperature anomalies increasingly and negatively impacting productivity in most regions. Region‐specific effects were observed: Heatwaves and reduced precipitation in the Mediterranean, intensified droughts in temperate regions and increased precipitation in boreal areas further influenced productivity dynamics. Main Conclusions Our results showed a marked decrease in forest productivity due to climatic warming over time and a differential sensitivity to extreme climatic events across regions, which will affect multiple dependent ecosystem functions. Our findings provide further evidence that altered forest productivity due to climate change may hinder the carbon sink capacity of European forests.

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Publication Details

Journal
Global Ecology and Biogeography
Published
2025-02-01
DOI
https://doi.org/10.1111/geb.70011
Citations
12
Primary Topic
Forest ecology and management
Type
article
Field-Weighted Citation Impact
27.76

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article

Forest Productivity Decreases in Response to Recent Changes in Vegetation Structure and Climate in the Latitudinal Extremes of the European Continent

Miguel Angel Zavala, Julen Astigarraga, Mariano Garcı́a, Julián Tijerín‐Triviño et al.
12 citations
Global Ecology and Biogeography
Forest ecology and management
27.76
article

Forest Productivity Decreases in Response to Recent Changes in Vegetation Structure and Climate in the Latitudinal Extremes of the European Continent

Miguel Angel Zavala, Julen Astigarraga, Mariano Garcı́a, Julián Tijerín‐Triviño, Verónica Cruz‐Alonso, Emily R. Lines, Paloma Ruiz‐Benito, Jonas Dahlgren
article en
12 citations

Abstract

ABSTRACT Aim Climate change is driving increasingly frequent and intense extreme climatic events, pushing many forests worldwide beyond their physiological thresholds. Despite the major role played by forests in the global carbon cycle, climate change threatens the future potential for carbon sequestration in forests. Hence, studies of recent changes in stand productivity and the underlying drivers over large areas are critical to understand and assess the forest carbon sink. We aimed to describe recent changes in forest productivity in the latitudinal extremes of the European continent and the role of climate and climate change in driving these patterns. Location Latitudinal extremes of the European continent (Spain and Sweden). Time Period From 1980s to the present. Major Taxa Studied Trees. Methods We analysed data from > 13,900 plots in Mediterranean, temperate and boreal regions using three consecutive surveys from the Spanish and Swedish National Forest Inventories (NFI). Generalised linear models were parameterised to assess how forest structure, climate and climatic anomalies (mean temperature, annual precipitation, drought, heatwaves) influenced forest productivity across two time periods. Results Despite increases in stand basal area, forest productivity declined over time. The effects of recent climate change intensified, with temperature anomalies increasingly and negatively impacting productivity in most regions. Region‐specific effects were observed: Heatwaves and reduced precipitation in the Mediterranean, intensified droughts in temperate regions and increased precipitation in boreal areas further influenced productivity dynamics. Main Conclusions Our results showed a marked decrease in forest productivity due to climatic warming over time and a differential sensitivity to extreme climatic events across regions, which will affect multiple dependent ecosystem functions. Our findings provide further evidence that altered forest productivity due to climate change may hinder the carbon sink capacity of European forests.

Global Ecology and BiogeographyVol. 34(2)
Universidad Complutense de Madrid (ES), Universidad de Alcalá (ES), University of Cambridge (GB), Swedish University of Agricultural Sciences (SE)
UK Research and Innovation, European Commission, Ministerio para la Transición Ecológica y el Reto Demográfico, Agencia Estatal de Investigación
Openalex Percentile: Top 0%
Forest ecology and management
27.76
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