Forecasting Local Ionospheric Parameters Using Transformers

Abstract We present a novel method for forecasting key ionospheric parameters using transformer‐based neural networks. The model provides accurate forecasts and uncertainty quantification of the F2‐layer peak plasma frequency (foF2), the F2‐layer peak density height (hmF2), and total electron content for a given geographic location. It supports a number of exogenous variables, including F10.7 cm solar flux and disturbance storm time (Dst). We demonstrate how transformers can be trained in a data assimilation‐like fashion that uses these exogenous variables along with naïve predictions from climatology to generate 24‐hr forecasts with nonparametric uncertainty bounds. We call this method the Local Ionospheric Forecast Transformer. We demonstrate that the trained model can generalize to new geographic locations and time periods not seen during training, and we compare its performance to that of the International Reference Ionosphere using CCIR coefficients.

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Publication Details

Journal
Journal of Geophysical Research Machine Learning and Computation
Published
2026-01-06
DOI
https://doi.org/10.1029/2025jh000716
Primary Topic
Ionosphere and magnetosphere dynamics
Type
article
Field-Weighted Citation Impact
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article

Forecasting Local Ionospheric Parameters Using Transformers

D. J. Alford‐Lago, K. A. Zawdie, C. W. Curtis, A. T. Ihler et al.
Journal of Geophysical Research Machine Learning and Computation
Ionosphere and magnetosphere dynamics
article

Forecasting Local Ionospheric Parameters Using Transformers

D. J. Alford‐Lago, K. A. Zawdie, C. W. Curtis, A. T. Ihler, D. P. Drob
article en

Abstract

Abstract We present a novel method for forecasting key ionospheric parameters using transformer‐based neural networks. The model provides accurate forecasts and uncertainty quantification of the F2‐layer peak plasma frequency (foF2), the F2‐layer peak density height (hmF2), and total electron content for a given geographic location. It supports a number of exogenous variables, including F10.7 cm solar flux and disturbance storm time (Dst). We demonstrate how transformers can be trained in a data assimilation‐like fashion that uses these exogenous variables along with naïve predictions from climatology to generate 24‐hr forecasts with nonparametric uncertainty bounds. We call this method the Local Ionospheric Forecast Transformer. We demonstrate that the trained model can generalize to new geographic locations and time periods not seen during training, and we compare its performance to that of the International Reference Ionosphere using CCIR coefficients.

Journal of Geophysical Research Machine Learning and ComputationVol. 3(1)
United States Naval Research Laboratory (US), Naval Information Warfare Center Pacific (US), University of California, Irvine (US), San Diego State University (US)
Climate action
Openalex Percentile: Top 92%
Ionosphere and magnetosphere dynamics
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