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Im, Jungho
Intelligent Remote sensing and geospatial Information Science Lab.
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Real-Time Wildfire Monitoring via Geostationary Satellite and Artificial intelligence: insights from the March 2025 South Korea Wildfires

Author(s)
Sung, TaejunLee, GaryungKim, DoeunKim, WoohyeokYang, SeyoungIm, Jungho
Issued Date
2025-08
DOI
10.7780/kjrs.2025.41.3.6
URI
https://scholarworks.unist.ac.kr/handle/201301/88653
Citation
KOREAN JOURNAL OF REMOTE SENSING, v.41, no.3, pp.565 - 580
Abstract
Abstract: In March 2025, multiple large-scale wildfires simultaneously broke out across South Korea and rapidly spread to neighboring municipalities, resulting in the most extensive wildfire damage in the nations recorded history. Despite the severity of the event, ground-based suppression systems exhibited critical limitations in early detection and timely response. While satellite-based approaches have emerged as effective alternatives, existing methods that rely heavily on brightness temperature thresholds and contextual comparisons often suffer from high false positive and false negative rates under varying environmental conditions and fire intensities. To address these challenges, this study developed a real-time wildfire detection algorithm using geostationary satellite imagery from GEO-KOMPSAT-2A and machine learning. The developed model was evaluated against existing wildfire detection products based on both polar-orbiting and geostationary satellites, using historic wildfire events that occurred in South Korea in March 2025. The model successfully detected all seven large wildfires that had failed initial suppression and achieved the highest overall performance, with a recall of0.329, precision of0.987, and Fl-score of0.494 across 79 wildfire cases, including those with burn areas under 10 hectares. Moreover, the model provided the fastest early detection, with an average detection delay of only 12.9 minutes—significantly outperforming polar-orbiting satellites, which showed delays ranging from 197.2 to 305.2 minutes. By integrating geostationary satellites with machine learning, the model preserved the inherent advantages of geostationary platforms—such as continuous monitoring and early warning—while achieving detection sensitivity comparable to that of highresolution polar-orbiting systems. These results demonstrate the potential of machine learning-based wildfire detection models to enhance the reliability and responsiveness of real-time wildfire monitoring and underscore the value of geostationary satellites in disaster management systems. © 2025 Elsevier B.V., All rights reserved.
Publisher
Korean Society of Remote Sensing
ISSN
1225-6161
Keyword (Author)
Disaster ManagementEarly WarningGeo-kompsat-2aMachine LearningReal-time MonitoringWildfire DetectionClimate Change

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