Mapping war trauma: A machine learning approach to predict mental health impacts in Ukraine

This paper presents a predictive modeling system based on the use of GeoAI to estimate mental health outcomes of wartime in Ukrainian cities, utilizing spatially linked data on the environment, infrastructure, and conflict. Six self-reported psychological outcomes, symptoms of post-traumatic stress disorder, or PSD, anxiety, depression, insomnia, loneliness, and sleep duration, were collected in surveys throughout the war and analyzed in the context of more than 30 spatial predictors: cold exposure, access to heating, power outages, housing insulation, and city-level frequency of drone, missile, artillery, and shelling attacks. Predictor datasets that are derived from incident tracking, World Health Organization, and humanitarian reporting systems, and environmental indicators derived from surveys, which are harmonized using a spatial data integration protocol. In realizing the GeoAI concept, we developed a machine learning pipeline utilizing Ordinary Least Squares, Lasso, Random Forest, Gradient Boosting, and Extreme Gradient Boosting. All models were trained and tested on spatially independent training and testing splits in order to preserve the generalization properties of the models. XG Boost is also shown to be effective, with R2 values often exceeding 0.74 and MAPE values typically less than 7.2 %. Feature importance analysis revealed that key drivers of being exposed to prolonged cold, inadequate insulation, and exposure to drones or artillery were found to be dominant drivers of psychological distress. This GeoAI framework combines the strength of geospatial analytics with artificial intelligence to give precise and high-resolution location-based forecasting of mental health burdens in conflict settings. The method offers a flexible tool for a proactive humanitarian response that can target mental health services spatially based on predictions of mental health vulnerability, in contrast to retrospective clinical information, for relief agencies and public health planners. This work is a step towards incorporating GeoAI in the field of crisis epidemiology, demonstrating the ability to use GeoAI in real-time, place-based mental health planning in war-affected areas.

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Publication Details

Journal
SSM - Population Health
Published
2025-11-20
DOI
https://doi.org/10.1016/j.ssmph.2025.101879
Primary Topic
Climate Change and Health Impacts
Type
article
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article

Mapping war trauma: A machine learning approach to predict mental health impacts in Ukraine

Hossein Fathollahian, Safiyeh Tayebi, Ubydul Haque, Ayse Sert Oti
SSM - Population Health
Climate Change and Health Impacts
article

Mapping war trauma: A machine learning approach to predict mental health impacts in Ukraine

Hossein Fathollahian, Safiyeh Tayebi, Ubydul Haque, Ayse Sert Oti
article en

Abstract

This paper presents a predictive modeling system based on the use of GeoAI to estimate mental health outcomes of wartime in Ukrainian cities, utilizing spatially linked data on the environment, infrastructure, and conflict. Six self-reported psychological outcomes, symptoms of post-traumatic stress disorder, or PSD, anxiety, depression, insomnia, loneliness, and sleep duration, were collected in surveys throughout the war and analyzed in the context of more than 30 spatial predictors: cold exposure, access to heating, power outages, housing insulation, and city-level frequency of drone, missile, artillery, and shelling attacks. Predictor datasets that are derived from incident tracking, World Health Organization, and humanitarian reporting systems, and environmental indicators derived from surveys, which are harmonized using a spatial data integration protocol. In realizing the GeoAI concept, we developed a machine learning pipeline utilizing Ordinary Least Squares, Lasso, Random Forest, Gradient Boosting, and Extreme Gradient Boosting. All models were trained and tested on spatially independent training and testing splits in order to preserve the generalization properties of the models. XG Boost is also shown to be effective, with R2 values often exceeding 0.74 and MAPE values typically less than 7.2 %. Feature importance analysis revealed that key drivers of being exposed to prolonged cold, inadequate insulation, and exposure to drones or artillery were found to be dominant drivers of psychological distress. This GeoAI framework combines the strength of geospatial analytics with artificial intelligence to give precise and high-resolution location-based forecasting of mental health burdens in conflict settings. The method offers a flexible tool for a proactive humanitarian response that can target mental health services spatially based on predictions of mental health vulnerability, in contrast to retrospective clinical information, for relief agencies and public health planners. This work is a step towards incorporating GeoAI in the field of crisis epidemiology, demonstrating the ability to use GeoAI in real-time, place-based mental health planning in war-affected areas.

SSM - Population HealthVol. 32
Rutgers, The State University of New Jersey (US), University of Illinois Chicago (US), University of Chicago (US)
Openalex Percentile: Top 56%
Climate Change and Health Impacts
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