Long-term integrations map the dynamical stability of resonant TNOs and track how their resonant states evolve over Gyr timescales.
SummaryAI
Resonant trans-Neptunian objects are key tracers of how Neptune sculpted the outer Solar System, and their survival depends on subtle long-term dynamics such as secular and Lidov–Kozai-type effects. The study follows the long-term orbital evolution of the then-known resonant TNO population to assess which resonances and configurations remain stable over Solar System ages. By comparing how different resonant objects drift, hop, or remain confined, it provides a population-level view of resonance longevity and pathways for resonance-driven changes in eccentricity and inclination. These results help interpret present-day resonant TNOs as either primordial survivors or products of later dynamical evolution.
Method SnapshotAI
Long-term numerical integrations of the orbits of known resonant trans-Neptunian objects to monitor resonance and secular evolution.
BackgroundAI
Celestial mechanics of mean-motion resonances and secular dynamics (including Lidov–Kozai cycles) in the trans-Neptunian region.