Deep Learning for Space Weather Prediction: Bridging the Gap between Heliophysics Data and Theory
John C. Dorelli, Chris Bard, Thomas Y. Chen, Daniel Da Silva, Luiz, Fernando Guides dos Santos, Jack Ireland, Michael Kirk, Ryan McGranaghan,, Ayris Narock, Teresa Nieves-Chinchilla, Marilia Samara, Menelaos Sarantos,, Pete Schuck, Barbara Thompson

TL;DR
This paper discusses how deep learning can unify data analysis and theoretical modeling in space weather prediction, promising more accurate models by combining physical insights with data-driven approaches.
Contribution
It highlights the potential of deep learning to bridge heliophysics data and theory, advocating for NASA's investment in this interdisciplinary approach.
Findings
Deep learning can integrate data and theory for space weather prediction.
Unified models enhance predictive power over traditional methods.
Call for increased investment in heliophysics research infrastructure.
Abstract
Traditionally, data analysis and theory have been viewed as separate disciplines, each feeding into fundamentally different types of models. Modern deep learning technology is beginning to unify these two disciplines and will produce a new class of predictively powerful space weather models that combine the physical insights gained by data and theory. We call on NASA to invest in the research and infrastructure necessary for the heliophysics' community to take advantage of these advances.
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Taxonomy
TopicsSolar and Space Plasma Dynamics · Ionosphere and magnetosphere dynamics · Meteorological Phenomena and Simulations
