SOFIA Highlights: Extragalactic
By William Reach and Joan Schmelz
Paper: Extraplanar Gas in Edge-on Galaxies Traced by SOFIA Observations of [C II]
Reach, William T., et al., 2020/10, ApJ, 902, 28.
By Enrique Lopez Rodrigues & Joan Schmelz
Paper: The Magnetic Field Across the Molecular Warped Disk of Centaurus A
Lopez-Rodriguez, E., Nat Astron (2021).
By Joan Schmelz
Paper: The Strength and Structure of the Magnetic Field in the Galactic Outflow of Messier 82
Lopez-Rodriguez, E., et al., 2021 ApJ 914 24
By Kevin Cooke, Allison Kirkpatrick, and Joan Schmelz
Paper: Dying of the Light: An X-Ray Fading Cold Quasar at z ~ 0.405
Cooke, K. C. et al., 2020 ApJ 903 106
By Enrique Lopez-Rodriguez and Joan Schmelz
Paper: SOFIA/HAWC+ Traces the Magnetic Felds in NGC 1068
Lopez-Rodriguez et al., 2020, ApJ, 888, 66.
SOFIA astronomers have measured, for the first time, the magnetic field tracing the star forming regions along the spiral arms of NGC 1068, the nearest grand-design spiral with an active galactic nuclei and a large-scale almost face-on disk.
By Joan Schmelz
How do astronomers understand galaxies that are so far away that they may appear as a simple point source, even when observed with the most powerful telescopes? One proven technique is to study local analogues, galaxies that might have similar properties but are close enough to resolve their structures. A study like this was underway when researchers discovered something extraordinary – their observation was 10 times stronger than predicted.
By Terry Jones, Arielle Moullet, Kassandra Bell, and Joan Schmelz
Paper: SOFIA Far Infrared Imaging Polarimetry of M82 and NGC 253: Exploring the Super–Galactic Wind
Jones, Terry Jay, et al., 2019, ApJL, 870, L9.
By Enrique Lopez-Rodriguez, Kassandra Bell, and Joan Schmelz (USRA)
Paper: The Highly Polarized Dusty Emission Core of Cygnus A
Lopez-Rodriguez, Enrique, et al., 2018, ApJL, 861, L23.
Researchers at the University of Texas San Antonio using observations from NASA’s Stratospheric Observatory for Infrared Astronomy, SOFIA, found that the dust surrounding active, ravenous black holes are much more compact than previously thought.
