Pyro-socioecological zoning: A proposal for fire management in the tropical dry forest

• Integrating five dimensions of wildfire enables the delineation of pyro‑socioecological zones. • The pyro-socioecological zones show distinctive wildfire dynamics. • Global climatic drivers may obscure local wildfire mechanisms. • Understanding dominant wildfire drivers improve global fire management strategies. Tropical dry forests (TDFs) are among the most extensive and threatened ecosystems of the Neotropics, characterized by strong seasonality and high sensitivity to disturbance. Under climate change, drylands are expected to face more frequent and severe wildfires as prolonged drought and fuel dryness intensify fire activity. In TDFs, where fires are not naturally occurring, their growing prevalence has severe impacts on vegetation. Mexico hosts the largest extent of these forests, and wildfire dynamics vary considerably across its regions. To capture this variability, we defined pyro‑socioecological zones by integrating 91 freely available variables representing local, regional, and global drivers of wildfire. These variables included fuel connectivity, terrain characteristics, climate and extreme climatic events, as well as human-related drivers. We applied an ensemble of 10 different clustering approaches to delineate pyro-socioecological zones, aiming to capture the complex relationships among dominant variables across scales (i.e. Site, Landscape, Regional and Global climate, and Human dimension). Our ensemble resulted in eight pyro-socioecological zones with a confidence of 81%. Each zone was independently evaluated against wildfire dynamics (severity, extent, and frequency), revealing distinct dominant drivers. Our findings highlight the specific socioecological factors shaping wildfire regimes in TDFs, consistent with previous site‑level studies. By integrating multiple scales, our approach also indirectly identified pyro‑biocultural and pyro‑ecophysiological regions. Recognizing the dominant wildfire‑driving factors across scales provides a basis for more effective in‑site management policies. Ultimately, our framework moves beyond national one‑size‑fits‑all approaches by offering locally grounded, regionally applicable insights that strengthen resilience and guide fire management.

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Publication Details

Journal
Global Environmental Change
Published
2026-02-14
DOI
https://doi.org/10.1016/j.gloenvcha.2026.103135
Primary Topic
Fire effects on ecosystems
Type
article
Field-Weighted Citation Impact
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article

Pyro-socioecological zoning: A proposal for fire management in the tropical dry forest

Rogelio Omar Corona-Núñez, R. Isela Jasso-Flores
Global Environmental Change
Fire effects on ecosystems
article

Pyro-socioecological zoning: A proposal for fire management in the tropical dry forest

Rogelio Omar Corona-Núñez, R. Isela Jasso-Flores
article en

Abstract

• Integrating five dimensions of wildfire enables the delineation of pyro‑socioecological zones. • The pyro-socioecological zones show distinctive wildfire dynamics. • Global climatic drivers may obscure local wildfire mechanisms. • Understanding dominant wildfire drivers improve global fire management strategies. Tropical dry forests (TDFs) are among the most extensive and threatened ecosystems of the Neotropics, characterized by strong seasonality and high sensitivity to disturbance. Under climate change, drylands are expected to face more frequent and severe wildfires as prolonged drought and fuel dryness intensify fire activity. In TDFs, where fires are not naturally occurring, their growing prevalence has severe impacts on vegetation. Mexico hosts the largest extent of these forests, and wildfire dynamics vary considerably across its regions. To capture this variability, we defined pyro‑socioecological zones by integrating 91 freely available variables representing local, regional, and global drivers of wildfire. These variables included fuel connectivity, terrain characteristics, climate and extreme climatic events, as well as human-related drivers. We applied an ensemble of 10 different clustering approaches to delineate pyro-socioecological zones, aiming to capture the complex relationships among dominant variables across scales (i.e. Site, Landscape, Regional and Global climate, and Human dimension). Our ensemble resulted in eight pyro-socioecological zones with a confidence of 81%. Each zone was independently evaluated against wildfire dynamics (severity, extent, and frequency), revealing distinct dominant drivers. Our findings highlight the specific socioecological factors shaping wildfire regimes in TDFs, consistent with previous site‑level studies. By integrating multiple scales, our approach also indirectly identified pyro‑biocultural and pyro‑ecophysiological regions. Recognizing the dominant wildfire‑driving factors across scales provides a basis for more effective in‑site management policies. Ultimately, our framework moves beyond national one‑size‑fits‑all approaches by offering locally grounded, regionally applicable insights that strengthen resilience and guide fire management.

Global Environmental ChangeVol. 97
Universidad Autónoma de la Ciudad de México (MX), Universidad Autónoma Metropolitana (MX), Universidad Nacional Autónoma de México (MX)
Climate action
Openalex Percentile: Top 68%
Fire effects on ecosystems
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