Heat transfer-a review of 1986 literature

The effects of Coriolis force, centrifugal force, and thermal buoyancy force are segregated numerically on an air-filled, differentially heated enclosure of square cross section, with the enclosure rotated about its horizontal axis. The physically realizable periodic oscillation solutions are identified with reported experimental results of six temperature fields. The evolution of the flow pattern in the natural-convection flow fields are studied from stationary to increasing rotation of the enclosure. The effects of Coriolis force and centrifugal force on the natural convection are small and are differentiated from those of other forces.

Numerical Segregation of the Effects of Body Forces in a Rotating, Differentially Heated Enclosure

https://www.research.manchester.ac.uk/portal/files/50246679/HMT_D_15_00716R1Developing_Convective_Flow_in_a_Square_Channel_Partially_Filled_with_a_High_Porosity_Metal_Foam_and_Rotating_in_a_Parallel_Mode.pdf

Developing convective flow in a square channel partially filled with a high porosity metal foam and rotating in a parallel-mode

Combined mixed convection and radiation heat transfer in rectangular ducts rotating about a parallel axis

The present paper is concerned with the non-isothermal flow mechanisms in rotating systems with emphasis on the rotation-induced thermal buoyancy effects stemming from the coexistence of rotational body forces and the nonuniformity of the fluid temperature field. Non-isothermal flow in rotating ducts of radial and parallel modes and
rotating cylindrical configurations, including rotating cylinders and disk systems, are considered. Previous investigations closely related to the rotational buoyancy are surveyed.
The mechanisms of the rotation-induced buoyancy are manifested by the author's recent theoretical results and scaling analyses pertaining to the rotation-induced buoyancy in rotating ducts and two-disk systems. Finally, the open issues for future researches in this area are proposed.

/pdf/thermal-buoyancy-effects-in-rotatingnon-isothermal-flows-5crwtogkak.pdf

G. Brown

Papers

Laminar Heat Transfer and Pressure Drop in a Rectangular Duct Rotating About a Parallel Axis