A Deep Learning Approach for Automatic Ionogram Parameters Recognition With Convolutional Neural Networks

Abstract Typical ionosondes operate with >5 min time intervals, which is enough to obtain regular parameters of the ionosphere, but insufficient to observe short‐term processes in the Earth's ionosphere. The key point for this study is to increase the ionosondes data time resolution by automatization of ionogram scaling routine. In this study we show the results of implementation of deep learning approach for ionogram parameters scaling. We trained the model on 13 years ionogram data set of Sodankyla ionosonde at high latitude region (67°N). We tested our autoscaling program tool on 2021 years data set and evaluate errors between operator and automatic parameters scaling. The root mean square errors for critical frequencies foF2 , foF1 , foE , foEs, fmin, fbEs and virtual heights h′F, h′E, h′Es are estimated as 0.12 MHz (2 pixels), 0.07 MHz (1.16 pixels), 0.15 MHz (2.5 pixels), 0.33 MHz (5.5 pixels), 0.15 MHz (2.5 pixels), 0.17 MHz (2.83 pixels), 7.7 km (1.34 pixels), 7.0 km (1.22 pixels), 7.1 km (1.24 pixels), respectively.

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Publication Details

Journal
Earth and Space Science
Published
2024-09-26
DOI
https://doi.org/10.1029/2023ea003446
Citations
6
Primary Topic
Anomaly Detection Techniques and Applications
Type
article
Field-Weighted Citation Impact
2.08

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article

A Deep Learning Approach for Automatic Ionogram Parameters Recognition With Convolutional Neural Networks

Ruslan Sherstyukov, Thomas Ulich, Samson T. Moges, Alexander Kozlovsky
6 citations
Earth and Space Science
Anomaly Detection Techniques and Applications
2.08
article

A Deep Learning Approach for Automatic Ionogram Parameters Recognition With Convolutional Neural Networks

Ruslan Sherstyukov, Thomas Ulich, Samson T. Moges, Alexander Kozlovsky
article en
6 citations

Abstract

Abstract Typical ionosondes operate with >5 min time intervals, which is enough to obtain regular parameters of the ionosphere, but insufficient to observe short‐term processes in the Earth's ionosphere. The key point for this study is to increase the ionosondes data time resolution by automatization of ionogram scaling routine. In this study we show the results of implementation of deep learning approach for ionogram parameters scaling. We trained the model on 13 years ionogram data set of Sodankyla ionosonde at high latitude region (67°N). We tested our autoscaling program tool on 2021 years data set and evaluate errors between operator and automatic parameters scaling. The root mean square errors for critical frequencies foF2 , foF1 , foE , foEs, fmin, fbEs and virtual heights h′F, h′E, h′Es are estimated as 0.12 MHz (2 pixels), 0.07 MHz (1.16 pixels), 0.15 MHz (2.5 pixels), 0.33 MHz (5.5 pixels), 0.15 MHz (2.5 pixels), 0.17 MHz (2.83 pixels), 7.7 km (1.34 pixels), 7.0 km (1.22 pixels), 7.1 km (1.24 pixels), respectively.

Earth and Space ScienceVol. 11(10)
University of Oulu (FI)
Oulun Yliopisto, Kvantum-instituutti, Oulun Yliopisto
Openalex Percentile: Top 11%
Anomaly Detection Techniques and Applications
2.08
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A Deep Learning Approach for Automatic Ionogram Parameters Recognition With Convolutional Neural Networks — Ruslan Sherstyukov, Thomas Ulich, et al. · Earth and Space Science (2024) | TGRS Research Map | TGRS