Improving Satellite-Based Hotspot Detection Through Deep Learning-Enabled Smoke RecognitionWhile geostationary satellites, such as the GOES-R series, provide wildland fire hotspot readings at a high temporal resolution, they are prone to false negative readings and decreased confidence. One cause of decreased hotspot confidence is cloud contamination. Smoke produced from wildfire is often misinterpreted as cloud contamination, resulting in inaccurate and unsure sensor readings. To this end, we built a deep learning image segmentation model to identify smoke and cloud in true color satellite images. The model is pre-trained using self-supervised learning on over 10,000 GOES-R images to learn the underlying structure of satellite imagery. Then, the model is fine-tuned on a set of 130 labeled documents using supervised learning. The resulting model performs multi-class image segmentation with 85% accuracy and runs in under a minute on a standard personal computer. When paired alongside hotspot data, the model’s outputs can help increase confidence in wildfire location by identifying cases of cloud contamination that are due to smoke. The resulting model can be deployed in a stand-alone application or bundled in an Open Data Integration for wildland fire management (ODIN) application.
Document ID
20240015298
Acquisition Source
Ames Research Center
Document Type
Presentation
Authors
Sequoia Andrade (HX5 (United States) Fort Walton Beach, Florida, United States)
Peter Mehlitz (KBR (United States) Houston, Texas, United States)
Nastaran Shafiei (KBR (United States) Houston, Texas, United States)
Joseph Coughlan (Ames Research Center Mountain View, United States)
Guillaume Brat (Ames Research Center Mountain View, United States)
Date Acquired
November 28, 2024
Subject Category
Computer Programming and SoftwareEarth Resources and Remote Sensing
Meeting Information
Meeting: American Geophysical Union Annual Meeting (AGU24)