Rotation with thermally induced buoyancy governs many astrophysical and geophysical
processes in the atmosphere, ocean, sun, and Earth's liquid-metal outer core. Rotating …

Thermally driven turbulent flows are omnipresent in nature and technology. A good
understanding of the physical principles governing such flows is key for numerous problems …

While the heat transfer and the flow dynamics in a cylindrical Rayleigh-Bénard (RB) cell are
rather independent of the aspect ratio Γ (diameter/height) for large Γ, a small-Γ cell …

To study turbulent thermal convection, one often chooses a Rayleigh-Bénard flow
configuration, where a fluid is confined between a heated bottom plate, a cooled top plate of …

Rotating Rayleigh–Bénard convection is a simple model system used to study the interplay
of buoyant forcing and rotation. Many recent studies have focused on the geostrophic …

We show, using direct numerical simulations with experimentally realizable boundary
conditions, that wall modes in Rayleigh–Bénard convection in a rapidly rotating cylinder …

We report the results of direct numerical simulations (DNS) of centrifugal convection (CC) in
an annular container, heated at the outer sidewall and cooled at the inner wall, all subjected …

Three-dimensional direct numerical simulations of rotating Rayleigh–Bénard convection in
the planar geometry with no-slip top and bottom and periodic lateral boundary conditions …

The competition between turbulent convection and global rotation in planetary and stellar
interiors governs the transport of heat and tracers, as well as magnetic field generation …

Recent studies of rotating Rayleigh-Bénard convection at high rotation rates and strong
thermal forcing have shown a significant discrepancy in total heat transport between …