The Effects of Rotation Rate on Deep Convection in Giant Planets with Small Solid Cores
Martha Evonuk, Gary A. Glatzmaier
Abstract
We study how the pattern of thermal convection and differential rotation in the interior of a giant gaseous planet is affected by the presence of a small solid core as a function of the planetary rotation rate. We show, using 2D anelastic, hydrodynamic simulations, that the presence of a small solid core results in significantly different flow structure relative to that of a fully convective interior only if there is little or no planetary rotation.
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