Neptune's inner moons may maintain long-term resonance stability by locking to the planet's internal oscillation modes rather than evolving solely through mutual tides.
Title resolution pending
4 Pith papers cite this work. Polarity classification is still indexing.
citation-role summary
citation-polarity summary
fields
astro-ph.EP 4years
2026 4verdicts
UNVERDICTED 4representative citing papers
Radio occultations cannot separate Uranus or Neptune's internal spin from wind contributions to atmospheric shape, as the total rotation is already tightly constrained, though they can test wind assumptions and detect north-south asymmetries.
Astronomical objects from asteroids to stars mostly follow a cohesive mass-density sequence reflecting gravitational contraction and nuclear ignition, while compact stellar remnants deviate from it.
The Solar System beyond the Sun totals 462 Earth masses, with giant planets comprising 96% and nearly all uncertainty coming from the unobserved inner Oort cloud.
citing papers explorer
-
Are Thalassa and Despina in Resonance Lock with Neptune's Oscillations?
Neptune's inner moons may maintain long-term resonance stability by locking to the planet's internal oscillation modes rather than evolving solely through mutual tides.
-
Can radio occultations constrain Uranus or Neptune's internal rotation periods?
Radio occultations cannot separate Uranus or Neptune's internal spin from wind contributions to atmospheric shape, as the total rotation is already tightly constrained, though they can test wind assumptions and detect north-south asymmetries.
-
The Cohesive Object Sequence: The Mass-Density Distribution of Astronomical Objects from Asteroids to Stars
Astronomical objects from asteroids to stars mostly follow a cohesive mass-density sequence reflecting gravitational contraction and nuclear ignition, while compact stellar remnants deviate from it.
-
Mass Inventory of the Solar System Beyond the Sun: A Systematic Compilation with Uncertainty Budget
The Solar System beyond the Sun totals 462 Earth masses, with giant planets comprising 96% and nearly all uncertainty coming from the unobserved inner Oort cloud.