Concentric Maclaurin spheroid models of rotating liquid planets
arXiv:1305.0803 · doi:10.1088/0004-637X/768/1/43
Abstract
I present exact expressions for the interior gravitational potential V of a system of N concentric constant-density (Maclaurin) spheroids. I demonstrate an iteration procedure to find a self-consistent solution for the shapes of the interfaces between spheroids, and for the interior gravitational potential. The external free-space potential, expressed as a multipole expansion, emerges as part of the self-consistent solution. The procedure is both simpler and more precise than perturbation methods. One can choose the distribution and mass densities of the concentric spheroids so as to reproduce a prescribed barotrope to a specified accuracy. I demonstrate the method's efficacy by comparing its results with several published test cases.
Cited by in corpus (45)
- Comparing Jupiter interior structure models to Juno gravity measurements and the role of a dilute core
- New models of Jupiter in the context of Juno and Galileo
- The structure of terrestrial bodies: Impact heating, corotation limits and synestias
- A Preliminary Jupiter Model
- Jupiter internal structure: the effect of different equations of state
- Saturn's deep atmospheric flows revealed by the Cassini Grand Finale gravity measurements
- Jupiter's inhomogeneous envelope
- Understanding Jupiter's Interior
- Giant Planets
- Models of Saturn's Interior Constructed with Accelerated Concentric Maclaurin Spheroid Method
- Jupiter's interior from Juno: Equation-of-state uncertainties and dilute core extent
- Low- and high-order gravitational harmonics of rigidly rotating Jupiter
- A full, self-consistent, treatment of thermal wind balance on oblate fluid planets
- Saturn's Probable Interior: An Exploration of Saturn's Potential Interior Density Structures
- Multi-Layer Hydrostatic Equilibrium of Planets and Synchronous Moons: Theory and Application to Ceres and to Solar System Moons
- The flattenings of the layers of rotating planets and satellites deformed by a tidal potential
- The Concentric Maclaurin Spheroid method with tides and a rotational enhancement of Saturn's tidal response
- Study of Jupiter's Interior: Comparison of 2, 3, 4, 5, and 6 Layer Models
- An adjoint based method for the inversion of the Juno and Cassini gravity measurements into wind fields
- Matrix-propagator approach to compute fluid Love numbers and applicability to extrasolar planets
- Equilibrium Tidal Response of Jupiter: Detectability by Juno
- The effect of pre-impact spin on the Moon-forming collision
- Relation of Gravity, Winds, and the Moment of Inertia of Jupiter and Saturn
- A complete study of the precision of the concentric MacLaurin spheroid method to calculate Jupiter's gravitational moments
- Linking Zonal Winds and Gravity: The Relative Importance of Dynamic Self Gravity
- Corrugations and eccentric spirals in Saturn's D ring: New insights into what happened at Saturn in 1983
- (704) Interamnia: A transitional object between a dwarf planet and a typical irregular-shaped minor body
- Superadiabaticity in Jupiter and giant planet interiors
- Tidal Response and Shape of Hot Jupiters
- Connecting gravity field, moment of inertia, and core properties in Jupiter through empirical structure models
- NeuralCMS: A deep learning approach to study Jupiter's interior
- Ab Initio Entropy Calculations of Water Predict the Interiors of Uranus and Neptune to be 15-30% Colder than Previous Models
- Study of Jupiter's Interior with Quadratic Monte Carlo Simulations
- Tesseral harmonics of Jupiter from static tidal response
- Impacts of zonal winds on planetary oscillations and Saturn ring seismology
- Characterizing Jupiter's interior using machine learning reveals four key structures
- A Linear Approximation for the Effect of Cylindrical Differential Rotation on Gravitational Moments: Application to the Non-Unique Interpretation of Saturn's Gravity
- RUBIS: a simple tool for calculating the centrifugal deformation of stars and planets
- Relationship between the moment of inertia and the Love number of fluid extra-solar planets
- Nested spheroidal figures of equilibrium II. Generalization to L layers
- Nested spheroidal figures of equilibrium III. Connection with the gravitational moments
- Nested spheroidal figures of equilibrium -- IV. On heterogeneous configurations
- Jupiter as a Rotating Bipolytrope
- Lie Group Theory of Multipole Moments and Shape of Stationary Rotating Fluid Bodies
- Retarded Stellar Dynamo in Tidally Deformed M Dwarfs