Simulation of large-scale geophysical motions with the model of a rotating spherical fluid layer

Physics

Scientific paper

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Field Theory (Physics), Flow Visualization, Free Convection, Geophysical Fluids, Reduced Gravity, Rotating Spheres, Drop Towers, Earth Mantle, Electrodynamics, Planetary Atmospheres, Rayleigh Number, Reynolds Number, Stellar Atmospheres

Scientific paper

The dynamics of convection in the fluid shell between two concentric rotating spheres under a central force field was investigated using a specially designed experimental setup where the spherically symmetric and center directed force field, similar to the gravity field acting on planets, was produced by applying a high-voltage potential difference between the outer and the inner spherical shells. Some of the results obtained are similar to the observations of cloud- and band-zones in the atmosphere of Jupiter. Numerical calculations were performed to simulate the instationary flow situations for experiments in microgravity under comparable conditions.

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