Simulations of the coupled magnetosphere–ionosphere–thermosphere (MIT) system require grounding in data to be credible. This can be established through data assimilation, cross-validation with empirical models, or the use of realistic initial and boundary conditions. In this context, MIT research would benefit from a global, pitch-angle-resolved empirical model of magnetospheric electrons. We introduce GENET, a data-driven digital twin of the near-Earth electron environment that reconstructs pitch-angle distributions of 0.1–100 keV electron fluxes at distances within 20 RE. Trained on two decades of Cluster observations, GENET accurately reproduces canonical magnetospheric structures and their large-scale dynamics during various space weather conditions. The model can serve as an observational reference for MIT simulations, provide initial and boundary conditions to numerical codes, and enable multiphysics coupling with other machine learning models. To support global MIT dynamics research, we welcome collaborations on model coupling and cross-validation.
How to cite:
Gurev, D., Kronberg, E. A., Shprits, Y. Y., Smirnov, A., Mihaljcic, B., and Fazakerley, A. N.: Global Empirical Modeling of Magnetospheric Electrons for MIT Research, EGU General Assembly 2026, Vienna, Austria, 3–8 May 2026, EGU26-13403, https://doi.org/10.5194/egusphere-egu26-13403, 2026.
Please use the buttons below to download the supplementary material or to visit the external website where the presentation is linked. Regarding the external link, please note that Copernicus Meetings cannot accept any liability for the content and the website you will visit.
You are going to open an external link to the presentation as indicated by the authors. Copernicus Meetings cannot accept any liability for the content and the website you will visit.