Earth-based Stellar Occultation Predictions for Jupiter, Saturn, Uranus, Neptune, Titan, and Triton: 2023-2050
Richard G. French, Damya Souami

TL;DR
This paper provides detailed predictions of stellar occultations by outer solar system bodies from 2023 to 2050, aiding atmospheric and ring system studies through Earth-based observations.
Contribution
It offers the first comprehensive, long-term prediction catalog of occultation events for major outer solar system objects using Gaia DR3 and 2MASS data.
Findings
Jupiter occultations occur roughly once per year for bright stars.
Saturn and Uranus have fewer predicted occultations, with specific high-SNR events identified.
Neptune and Triton have limited but notable occultation opportunities.
Abstract
In support of studies of decadal-timescale evolution of outer solar system atmospheres and ring systems, we present detailed Earth-based stellar occultation predictions for Jupiter, Saturn, Uranus, Neptune, Titan, and Triton for 2023-2050, based on the Gaia DR3 star catalog and near-IR K-band photometry from the 2MASS catalog. We tabulate the number of observable events by year and magnitude interval, reflecting the highly variable frequency of high-SNR events depending on the target's path relative to the star-rich regions of the Milky Way. We identify regions on Earth where each event is potentially observable, and for atmospheric occultations, we determine the latitude of the ingress and egress events. For Saturn, Uranus, and Neptune, we also compute the predicted ring occultation event times. We present representative subsets of the predicted events and highlights particularly…
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Taxonomy
TopicsAstro and Planetary Science · Isotope Analysis in Ecology · Atmospheric Ozone and Climate
