Towards data-driven modeling and real-time prediction of solar flares and coronal mass ejections
M. Rempel, Y. Fan, M. Dikpati, A. Malanushenko (HAO/NCAR), M. D., Kazachenko (CU/NSO), M. C. M. Cheung, G. Chintzoglou (LMSAL), X. Sun (U. of, Hawaii), G. H. Fisher (U. of Berkeley), T. Y. Chen (Columbia)

TL;DR
This paper discusses the development of data-driven models and real-time prediction methods for solar flares and coronal mass ejections, aiming to improve space weather forecasting akin to terrestrial weather prediction.
Contribution
It outlines necessary advancements in model complexity, data access, and data assimilation techniques to enable accurate statistical forecasting of solar transient events.
Findings
Identifies key elements for solar event prediction
Proposes a framework similar to Earth weather forecasting
Highlights the need for improved data and modeling methods
Abstract
Modeling of transient events in the solar atmosphere requires the confluence of 3 critical elements: (1) model sophistication, (2) data availability, and (3) data assimilation. This white paper describes required advances that will enable statistical flare and CME forecasting (e.g. eruption probability and timing, estimation of strength, and CME details, such as speed and magnetic field orientation) similar to weather prediction on Earth.
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Taxonomy
TopicsSolar and Space Plasma Dynamics · Geophysics and Gravity Measurements
