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The problem of buoyancy driven flow in a vertical, rectangular cavity whose vertical sides are at different temperatures and whose horizontal sides are insulated is addressed. An application of the dynamic A.D.I. method to obtain numerical solutions to this problem is described. For large non-dimensional temperature differences characterized by the Rayleigh number the flow patterns develop strong boundary layers. These boundary layers are resolved by applying the D.A.D.I. method to the discretization of this problem on a non-uniform grid.
buoyancy driven flow, vertical, rectangular cavity, large non-dimensional temperatue differences, vertical sides at different temperatures, Free convection, Rayleigh number, strong boundary layers, Basic methods in fluid mechanics, non-uniform grid, horizontal sides insulated, dynamic A.D.I. method
buoyancy driven flow, vertical, rectangular cavity, large non-dimensional temperatue differences, vertical sides at different temperatures, Free convection, Rayleigh number, strong boundary layers, Basic methods in fluid mechanics, non-uniform grid, horizontal sides insulated, dynamic A.D.I. method
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