The Radio and Microwave Sky as Seen by Juno on its Mission to Jupiter

Abstract We present six nearly full-sky maps made from data taken by radiometers on the Juno satellite during its 5 yr flight to Jupiter. The maps represent integrated emission over ∼4% passbands spaced approximately in octaves between 600 MHz and 21.9 GHz. Long-timescale offset drifts are removed in all bands, and, for the two lowest-frequency bands, gain drifts are also removed from the maps via a self-calibration algorithm similar to the NPIPE pipeline used by the Planck Collaboration. We show that, after this solution is applied, statistical noise in the maps is consistent with thermal radiometer noise and expected levels of correlated noise on the gain and noise drift solutions. We verify our map solutions with several consistency tests and end-to-end simulations. We also estimate the level of systematic pixelization noise and polarization leakage via simulations.

Authors

Publication Details

Journal
The Astrophysical Journal
Published
2025-03-24
DOI
https://doi.org/10.3847/1538-4357/adba62
Primary Topic
Astro and Planetary Science
Type
article
Field-Weighted Citation Impact
0.00

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article

The Radio and Microwave Sky as Seen by Juno on its Mission to Jupiter

Philippe Berger, Tzu‐Ching Chang, Olivier Doré, S. Levin et al.
The Astrophysical Journal
Astro and Planetary Science
article

The Radio and Microwave Sky as Seen by Juno on its Mission to Jupiter

Philippe Berger, Tzu‐Ching Chang, Olivier Doré, S. Levin, C.J. Anderson, Shea Brown, M. D. Seiffert
article en

Abstract

Abstract We present six nearly full-sky maps made from data taken by radiometers on the Juno satellite during its 5 yr flight to Jupiter. The maps represent integrated emission over ∼4% passbands spaced approximately in octaves between 600 MHz and 21.9 GHz. Long-timescale offset drifts are removed in all bands, and, for the two lowest-frequency bands, gain drifts are also removed from the maps via a self-calibration algorithm similar to the NPIPE pipeline used by the Planck Collaboration. We show that, after this solution is applied, statistical noise in the maps is consistent with thermal radiometer noise and expected levels of correlated noise on the gain and noise drift solutions. We verify our map solutions with several consistency tests and end-to-end simulations. We also estimate the level of systematic pixelization noise and polarization leakage via simulations.

The Astrophysical JournalVol. 982(2)
National Aeronautics and Space Administration
Openalex Percentile: Top 96%
Astro and Planetary Science
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