Designing Conservation Networks to Ensure Connectivity in a Changing Climate: Application to Spanish Forests

ABSTRACT Aim Assess the potential effects of climate change on different forest habitats; and outline a climate‐wise conservation network to sustain forest connectivity under current and future climates. Location Mainland Spain. Time Period Current and future (2071–2100). Major Taxa Studied Forest species associated with different vegetation types and dispersal abilities. Methods We fitted a Random Forest model to predict the distribution of six vegetation types under current and four future climate scenarios. We then assessed forest availability and connectivity for each climate scenario and vegetation type. To define the conservation network, we identified the key habitat patches and corridors for dynamic connectivity using multi‐temporal habitat availability indices. Finally, we analysed how much of the conservation network is expected to change due to climate shifts and how it aligns with existing protected areas. Results Forests across all vegetation types exhibited substantial northward and upward shifts. Forests adapted to cold or wet conditions (e.g., deciduous, mountain conifers and high‐mountain vegetation) declined in area and connectivity. Warm‐ and dry‐adapted forests (e.g., sclerophyllous, subsclerophyllous and hyperxerophilous vegetation) increased their ranges and/or connectivity. Rates of change in forest area and connectivity were similar within each vegetation type, except for subsclerophyllous vegetation, which lost forest area but gained connectivity. 48% of the proposed conservation network experienced shifts in the vegetation types. Current protected areas covered 41% of the conservation patches across Spain, but less than 7% within the deciduous vegetation type. Main Conclusions Projected shifts highlight the need for dynamic connectivity analyses to guide effective conservation under changing climate. Forest types exhibited distinct trends, underscoring the need for tailored strategies for each type. The proposed conservation network provides guidance for a proactive enhancement of Spanish forests' resilience. It also serves as a reference for other countries with similar conservation targets, including the European Union Nature Restoration Regulation or Biodiversity Strategy for 2030.

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Publication Details

Journal
Diversity and Distributions
Published
2025-09-01
DOI
https://doi.org/10.1111/ddi.70068
Citations
1
Primary Topic
Wildlife-Road Interactions and Conservation
Type
article
Field-Weighted Citation Impact
1.72

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article

Designing Conservation Networks to Ensure Connectivity in a Changing Climate: Application to Spanish Forests

Teresa Goicolea, Sergio González‐Ávila, Santiago Saura, Rubén G. Mateo et al.
1 citations
Diversity and Distributions
Wildlife-Road Interactions and Conservation
1.72
article

Designing Conservation Networks to Ensure Connectivity in a Changing Climate: Application to Spanish Forests

Teresa Goicolea, Sergio González‐Ávila, Santiago Saura, Rubén G. Mateo, Aitor Gastón, María José Aroca‐Fernández, Juan Ignacio García Viñas
article en
1 citations

Abstract

ABSTRACT Aim Assess the potential effects of climate change on different forest habitats; and outline a climate‐wise conservation network to sustain forest connectivity under current and future climates. Location Mainland Spain. Time Period Current and future (2071–2100). Major Taxa Studied Forest species associated with different vegetation types and dispersal abilities. Methods We fitted a Random Forest model to predict the distribution of six vegetation types under current and four future climate scenarios. We then assessed forest availability and connectivity for each climate scenario and vegetation type. To define the conservation network, we identified the key habitat patches and corridors for dynamic connectivity using multi‐temporal habitat availability indices. Finally, we analysed how much of the conservation network is expected to change due to climate shifts and how it aligns with existing protected areas. Results Forests across all vegetation types exhibited substantial northward and upward shifts. Forests adapted to cold or wet conditions (e.g., deciduous, mountain conifers and high‐mountain vegetation) declined in area and connectivity. Warm‐ and dry‐adapted forests (e.g., sclerophyllous, subsclerophyllous and hyperxerophilous vegetation) increased their ranges and/or connectivity. Rates of change in forest area and connectivity were similar within each vegetation type, except for subsclerophyllous vegetation, which lost forest area but gained connectivity. 48% of the proposed conservation network experienced shifts in the vegetation types. Current protected areas covered 41% of the conservation patches across Spain, but less than 7% within the deciduous vegetation type. Main Conclusions Projected shifts highlight the need for dynamic connectivity analyses to guide effective conservation under changing climate. Forest types exhibited distinct trends, underscoring the need for tailored strategies for each type. The proposed conservation network provides guidance for a proactive enhancement of Spanish forests' resilience. It also serves as a reference for other countries with similar conservation targets, including the European Union Nature Restoration Regulation or Biodiversity Strategy for 2030.

Diversity and DistributionsVol. 31(9)
Museo Nacional de Ciencias Naturales (ES), Universidad Autónoma de Madrid (ES), Universidad Politécnica de Madrid (ES)
European Commission, Universidad Autónoma de Madrid, Ministerio de Ciencia e Innovación, European Regional Development Fund, Agencia Estatal de Investigación
Openalex Percentile: Top 14%
Wildlife-Road Interactions and Conservation
1.72
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