Dynamical characterization of the 6/1 mean motion resonance between Quaoar's ring and Weywot
Adri\'an Rodr\'iguez, Bruno Morgado, Nelson Callegari Jr

TL;DR
This study investigates the dynamical relationship between Quaoar's dense ring and Weywot's 6/1 mean motion resonance, revealing the resonance's potential role in confining the ring's narrow arc through detailed dynamical mapping.
Contribution
The paper provides the first detailed dynamical analysis of the 6/1 resonance near Quaoar's ring, showing its proximity and potential influence on ring confinement.
Findings
Resonance deviates by only 29 km from the ring center within observational uncertainties.
Weywot's eccentricity significantly affects the resonance structure.
Resonance width is smaller than the ring's estimated width, supporting confinement hypothesis.
Abstract
Recently, it has been reported the discovery of a dense ring around the trans-Neptunian object 50000 Quaoar. The ring particles seem to be very close to the 6/1 mean motion resonance with Weywot, the only known satellite in the system. In this work we investigate the dynamical environment in the close vicinity of the 6/1 orbital resonance in the context of the restricted three body problem. We aim to analyze whether, in view of observational constraints, the ring could be effectively evolving in resonant motion with the satellite. Through the technique of dynamical maps we identify and characterize the 6/1 mean motion resonance, finding that the main location of the resonance deviates by only km from the central part of the ring. This difference lies within the 3 confidence level, considering the uncertainties in the observational parameters. We also show that the Weywot's…
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Taxonomy
TopicsAstro and Planetary Science · Geomagnetism and Paleomagnetism Studies · Astrophysics and Star Formation Studies
