Deep Learning for In-Orbit Cloud Segmentation and Classification in Hyperspectral Satellite Data

This article explores the latest Convolutional Neural Networks (CNNs) for cloud detection aboard hyperspectral satel-lites. The performance of the 1D CNN (1D-Justo-LiuNet) and two 2D CNNs (nnU-net and 2D-Justo-UNet-Simple) for cloud segmentation and classification is assessed. Evaluation criteria include precision and computational efficiency for in-orbit deployment. Experiments utilize NASA's EO-1 Hyperion data, with different spectral channel numbers after Principal Component Analysis. Results indicate that 1D-Justo-LiuNet achieves the highest accu-racy, outperforming 2D CNNs, while maintaining compactness with larger spectral channel sets, albeit with increased inference times. However, the performance of 1D CNN degrades with significant channel reduction. In this context, the 2D-Justo-UNet-Simple offers a good balance for in-orbit deployment, considering precision, memory, and time costs. While nnU-net is suitable for on-ground processing, deployment of lightweight 1D-Justo-LiuNet is recommended for high-precision applications. Alternatively, lightweight 2D-Justo-UNet-Simple balanced better the computational cost and precision for in-orbit deployment.

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Publication Details

Published
2024-09-12
DOI
https://doi.org/10.1109/icfsp62546.2024.10785468
Citations
3
Primary Topic
Geochemistry and Geologic Mapping
Type
article
Field-Weighted Citation Impact
1.04
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article

Deep Learning for In-Orbit Cloud Segmentation and Classification in Hyperspectral Satellite Data

Tor Arne Johansen, Jan Kněžík, Zoltán Galáž, Jiří Mekyska et al.
3 citations
Geochemistry and Geologic Mapping
1.04
article

Deep Learning for In-Orbit Cloud Segmentation and Classification in Hyperspectral Satellite Data

Tor Arne Johansen, Jan Kněžík, Zoltán Galáž, Jiří Mekyska, Jon Alvarez Justo, Daniel Kováč, J. Mucha, Radoslav Pitonak, Jonáš Herec, Krystof Novotny
article en
3 citations

Abstract

This article explores the latest Convolutional Neural Networks (CNNs) for cloud detection aboard hyperspectral satel-lites. The performance of the 1D CNN (1D-Justo-LiuNet) and two 2D CNNs (nnU-net and 2D-Justo-UNet-Simple) for cloud segmentation and classification is assessed. Evaluation criteria include precision and computational efficiency for in-orbit deployment. Experiments utilize NASA's EO-1 Hyperion data, with different spectral channel numbers after Principal Component Analysis. Results indicate that 1D-Justo-LiuNet achieves the highest accu-racy, outperforming 2D CNNs, while maintaining compactness with larger spectral channel sets, albeit with increased inference times. However, the performance of 1D CNN degrades with significant channel reduction. In this context, the 2D-Justo-UNet-Simple offers a good balance for in-orbit deployment, considering precision, memory, and time costs. While nnU-net is suitable for on-ground processing, deployment of lightweight 1D-Justo-LiuNet is recommended for high-precision applications. Alternatively, lightweight 2D-Justo-UNet-Simple balanced better the computational cost and precision for in-orbit deployment.

Norwegian University of Science and Technology (NO), Brno University of Technology (CZ)
Openalex Percentile: Top 18%
Geochemistry and Geologic Mapping
1.04
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Deep Learning for In-Orbit Cloud Segmentation and Classification in Hyperspectral Satellite Data — Tor Arne Johansen, Jan Kněžík, et al. · (2024) | TGRS Research Map | TGRS