Please use this identifier to cite or link to this item: http://hdl.handle.net/1783.1/5926

A finite-difference convective model for Jupiter's equatorial jet

Authors Chan, K.L.
Issue Date 2006
Source Proceedings of the International Astronomical Union , v. 2, (S239), 2006, p. 230-232
Summary We present results of a numerical model for studying the dynamics of Jupiter's equatorial jet. The computed domain is a piece of spherical shell around the equator. The bulk of the region is convective, with a thin radiative layer at the top. The shell is spinning fast, with a Coriolis number = L/V on the order of 50. A prominent super-rotating equatorial jet is generated, and secondary alternating jets appear in the higher latitudes. The roles of terms in the zonal momentum equation are analyzed. Since both the Reynolds number and the Taylor number are large, the viscous terms are small. The zonal momentum balance is primarily between the Coriolis and the Reynolds stress terms. © 2007 International Astronomical Union.
Note Copyright © 2007 International Astronomical Union
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ISSN 1743-9213
Language English
Format Conference paper
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