ExplainabilitySafetyTransparencyphysics.soc-ph
Assessment of deep learning models integrated with weather and environmental variables for wildfire spread prediction and a case study of the 2023 Maui fires
Jiyeon Kim, Yingjie Hu, Negar Elhami-Khorasani, Kai Sun, Ryan Zhenqi Zhou
September 5, 2025
Natural Hazards
4 citations
Key Takeaways
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Deep learning models show promise but don't outperform traditional methods: The study found that ConvLSTM and ConvLSTM with attention were the best-performing AI models tested, yet they were outperformed by FARSITE, a non-AI fire spread model that has been in use for decades. This suggests that newer AI approaches aren't automatically superior to established methods for wildfire prediction.
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AI models offer practical advantages in flexibility: While traditional models like FARSITE achieved higher precision and F1-scores, the deep learning models demonstrated "higher flexibility for the input data," meaning they can more easily incorporate diverse weather and environmental variables. This adaptability could make AI models valuable complements to existing tools rather than replacements.
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Explainable AI helps identify critical fire factors: By combining deep learning models with explainable AI methods, researchers identified which specific weather and environmental factors were most important in the 2023 Maui fires. This transparency is crucial for fire management professionals who need to understand why a model makes predictions, not just what it predicts.
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Responsible AI requires rigorous comparative testing: The paper demonstrates the importance of systematically comparing new AI approaches against established methods using real-world data (over ten years of Hawaii wildfire records) rather than assuming advanced technology performs better. This evidence-based approach is essential before deploying AI in high-stakes applications like fire management.