Heat transfer in the flow of a cold, axisymmetric jet over a hot sphere
arXiv:1402.5014 · doi:10.1115/1.4007980
Abstract
The heat transfer characteristics of thin film flow over a hot sphere resulting from a cold vertical jet of liquid falling onto the surface has been investigated. The underlying physical features have been illustrated by numerical solutions of high accuracy based on the modified Keller box method. The solutions for film thickness distribution are good agreement with those obtained approximately by using the Pohlhausen integral momentum technique and observed experimentally by using water as working fluid, thus providing a basic confirmation of the validity of the results presented.
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Cited by in corpus (4)
- On thermal boundary layers on a flat plate subjected to a variable heat flux
- Thermal interaction between free convection and forced convection along a vertical conducting wall
- An accurate numerical method for systems of differentio-integral equations associated with multiphase flow
- Dual solutions for opposing mixed convection in porous media