Machine Learning Based Atmospheric Methane Concentration Estimation and Plume Complex Detection and Segmentation Using EMIT Hyperspectral Data
Date of Award
5-9-2026
Degree Name
M.S. in Electrical Engineering
Department
Department of Electrical and Computer Engineering
Advisor/Chair
Russell Hardie
Abstract
The role of hyperspectral imagers in greenhouse-gas detection is rapidly advancing, supported by the deployment of new sensors and the escalating demand for accurate climate monitoring. In 2022, NASA’s Jet Propulsion Laboratory (JPL) mounted the Earth Surface Mineral Dust Source Investigation (EMIT) hyperspectral imaging sensor on the International Space Station. In addition to the sensor’s first mission to study the effects on mineral dust suspended in the air, the instrument began detecting and characterizing greenhouse gases a month after deployment. JPL released Level 2 methane data products by applying physics-based matched-filter techniques on the Level 1 hyperspectral radiance data. These methane products include estimates of column methane concentrations and spatial delineations of identified plume complexes. These data products afford an opportunity to train and test machine learning methods to replace and/or enhance the physics-based methods and manual effort required to segment methane plumes. This paper focuses on the application of regression convolution neural networks and a semantic segmentation network for estimation of methane plume concentrations in addition to detection and segmentation of methane plumes using EMIT hyperspectral radiance data and available methane data products provided by JPL.
Keywords
Artificial Intelligence, Climate Change, Electrical Engineering, Engineering, Remote Sensing
Rights Statement
Copyright 2026, author.
Recommended Citation
Smith, Emma, "Machine Learning Based Atmospheric Methane Concentration Estimation and Plume Complex Detection and Segmentation Using EMIT Hyperspectral Data" (2026). Graduate Theses and Dissertations. 7669.
https://ecommons.udayton.edu/graduate_theses/7669

Comments
OCLC No. 1591829874