$IRIS^{2+}$: A comprehensive database of stratified thermodynamic models in the low solar atmosphere
Alberto Sainz Dalda, Aaryan Agrawal, Bart De Pontieu, M. Gosic

TL;DR
This paper introduces IRIS^{2+}, a comprehensive database of stratified thermodynamic models of the low solar atmosphere, derived from simultaneous spectral line inversions across various active regions, enhancing understanding of solar physics.
Contribution
The work provides the most extensive collection of stratified thermodynamic models of the low solar atmosphere, derived from simultaneous multi-line inversions across numerous active regions.
Findings
Contains 40,320 representative model atmospheres.
Samples thermodynamics from photosphere to chromosphere.
Enables improved modeling of solar atmospheric conditions.
Abstract
Our knowledge of the low solar atmosphere, i.e., the photosphere and chromosphere, is based on the knowledge gained from the observations and the theoretical and numerical modeling of these layers. In this sense, the thermodynamical and magnetic semi-empirical models of the solar atmosphere have significantly contributed to the advance in the understanding of the physics of the Sun. In the past, many of these models have been used as a reference that helps us to, e.g., constrain the theoretical and numerical modeling, or to verify the goodness of physical parameters obtained from the inversion of the spectral lines. Nevertheless, semi-empirical models are quite limited by the assumptions that are inherent to the approach and do not necessarily provide an accurate view of the instantaneous and local thermodynamic conditions in the solar atmosphere. In this work, we provide an extensive…
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Taxonomy
TopicsSolar and Space Plasma Dynamics · Stellar, planetary, and galactic studies · Atmospheric Ozone and Climate
