Predicting near-future deforestation across the tropics using deep learning: insights from the forest foresight project

Abstract Tropical deforestation continues to threaten biodiversity, carbon storage, and climate regulation. While satellite-based near-real-time monitoring systems track deforestation across local to global scales, they only detect forest loss after it occurs. Proactively identifying areas at risk can help support timely mitigation efforts. As part of the Forest Foresight initiative led by the World Wide Fund for Nature (Netherlands), we developed a deep learning model to predict near-future deforestation risk. The model produces monthly risk maps at a 400-meter spatial resolution with a six-month prediction horizon, based on near-real-time deforestation alerts and various open-access geospatial datasets used as predictors. It was tested in 17 countries across humid tropical forests in South America, Africa, and Southeast Asia, and achieved an average F0.5 score of 64.8%. It demonstrates a modest performance gain over both a rule-based baseline model (4% global improvement) and an XGBoost decision forest model (1.4% improvement globally), as well as greater temporal and cross-country prediction stability. Prediction performance was highest in areas near recent deforestation and declined with increasing distance from these areas, highlighting the model’s dependence on past deforestation patterns as the main limitation. The model is less effective in predicting new deforestation events in previously undisturbed forests, such as regions where new logging roads are being developed after the prediction date. To substantially improve prediction performance, it is essential to integrate frequently updated, region-specific, and novel data sources, particularly real-time indicators of human activity, such as mobile phone movements or economic signals that anticipate near-future deforestation. Our study demonstrates that scalable, fine-resolution deforestation prediction is operationally feasible and can empower forest actors to engage in proactive conservation.

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Publication Details

Journal
Environmental Research Communications
Published
2025-11-13
DOI
https://doi.org/10.1088/2515-7620/ae1f69
Primary Topic
Conservation, Biodiversity, and Resource Management
Type
article
Field-Weighted Citation Impact
0.00

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article

Predicting near-future deforestation across the tropics using deep learning: insights from the forest foresight project

Johannes Reiche, Jorn S. Dallinga, Laura Elena Cué La Rosa, Diego Marcos et al.
Environmental Research Communications
Conservation, Biodiversity, and Resource Management
article

Predicting near-future deforestation across the tropics using deep learning: insights from the forest foresight project

Johannes Reiche, Jorn S. Dallinga, Laura Elena Cué La Rosa, Diego Marcos, Zillah Calle, Jonas van Duijvenbode
article en

Abstract

Abstract Tropical deforestation continues to threaten biodiversity, carbon storage, and climate regulation. While satellite-based near-real-time monitoring systems track deforestation across local to global scales, they only detect forest loss after it occurs. Proactively identifying areas at risk can help support timely mitigation efforts. As part of the Forest Foresight initiative led by the World Wide Fund for Nature (Netherlands), we developed a deep learning model to predict near-future deforestation risk. The model produces monthly risk maps at a 400-meter spatial resolution with a six-month prediction horizon, based on near-real-time deforestation alerts and various open-access geospatial datasets used as predictors. It was tested in 17 countries across humid tropical forests in South America, Africa, and Southeast Asia, and achieved an average F0.5 score of 64.8%. It demonstrates a modest performance gain over both a rule-based baseline model (4% global improvement) and an XGBoost decision forest model (1.4% improvement globally), as well as greater temporal and cross-country prediction stability. Prediction performance was highest in areas near recent deforestation and declined with increasing distance from these areas, highlighting the model’s dependence on past deforestation patterns as the main limitation. The model is less effective in predicting new deforestation events in previously undisturbed forests, such as regions where new logging roads are being developed after the prediction date. To substantially improve prediction performance, it is essential to integrate frequently updated, region-specific, and novel data sources, particularly real-time indicators of human activity, such as mobile phone movements or economic signals that anticipate near-future deforestation. Our study demonstrates that scalable, fine-resolution deforestation prediction is operationally feasible and can empower forest actors to engage in proactive conservation.

Environmental Research CommunicationsVol. 7(12)
WWF Colombia (CO), Université de Montpellier (FR), Centre Hospitalier Universitaire de Montpellier (FR), Services déconcentrés d'appui à la recherche Occitanie-Montpellier (FR), Wageningen University & Research (NL)
Nederlandse Organisatie voor Wetenschappelijk Onderzoek
Openalex Percentile: Top 68%
Conservation, Biodiversity, and Resource Management
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