Explainable Comparison of Feature-Based and Deep Learning Models for TROPOMI Methane Plume Screening

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Main Authors: Kurchaba, Solomiia, Maasakkers, Joannes D., Schuit, Berend J., Aben, Ilse
Format: Preprint
Published: 2026
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author Kurchaba, Solomiia
Maasakkers, Joannes D.
Schuit, Berend J.
Aben, Ilse
author_facet Kurchaba, Solomiia
Maasakkers, Joannes D.
Schuit, Berend J.
Aben, Ilse
contents Continuous and global detection of large methane emissions is a crucial step for global warming mitigation. Satellite observations, such as from S5P/TROPOMI, combined with plume detection algorithms, can play a key role in this effort. However, not all TROPOMI plume detections that look like methane emission plumes are the result of actual emissions. A significant part of the plume-like features in the data are retrieval artifacts. Such artifacts could be the result of variations in elevation or albedo gradients, high concentrations of aerosols, coastal lines, water bodies, etc. Previous work approached the problem of plume-artifact classification by means of a Support Vector Machine Classifier (SVC), trained on an extensive set of observation-based scalar features designed by domain experts. However, such an approach limits the information scope received by the algorithm to what is deemed to be important by the experts, breaks the spatial relationship between pixels, and loses information during the process of statistical aggregation. In this study, we compare feature-based (SVC, Random Forest, XGBoost) and image-based (ResNet-18, ResNet-34) models for methane plume-artifact classification under balanced and imbalanced evaluation settings. To interpret the results, we apply SHAP-based explainability to both model families. Our findings provide practical guidance for model selection in operational methane-screening workflows such as the CAMS Methane Hotspot Explorer.
format Preprint
id arxiv_https___arxiv_org_abs_2605_27236
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Explainable Comparison of Feature-Based and Deep Learning Models for TROPOMI Methane Plume Screening
Kurchaba, Solomiia
Maasakkers, Joannes D.
Schuit, Berend J.
Aben, Ilse
Machine Learning
Atmospheric and Oceanic Physics
Continuous and global detection of large methane emissions is a crucial step for global warming mitigation. Satellite observations, such as from S5P/TROPOMI, combined with plume detection algorithms, can play a key role in this effort. However, not all TROPOMI plume detections that look like methane emission plumes are the result of actual emissions. A significant part of the plume-like features in the data are retrieval artifacts. Such artifacts could be the result of variations in elevation or albedo gradients, high concentrations of aerosols, coastal lines, water bodies, etc. Previous work approached the problem of plume-artifact classification by means of a Support Vector Machine Classifier (SVC), trained on an extensive set of observation-based scalar features designed by domain experts. However, such an approach limits the information scope received by the algorithm to what is deemed to be important by the experts, breaks the spatial relationship between pixels, and loses information during the process of statistical aggregation. In this study, we compare feature-based (SVC, Random Forest, XGBoost) and image-based (ResNet-18, ResNet-34) models for methane plume-artifact classification under balanced and imbalanced evaluation settings. To interpret the results, we apply SHAP-based explainability to both model families. Our findings provide practical guidance for model selection in operational methane-screening workflows such as the CAMS Methane Hotspot Explorer.
title Explainable Comparison of Feature-Based and Deep Learning Models for TROPOMI Methane Plume Screening
topic Machine Learning
Atmospheric and Oceanic Physics
url https://arxiv.org/abs/2605.27236