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Numerical study of heat transfer due to twinjets impingement onto an isothermal moving plate - MaRDI portal

Numerical study of heat transfer due to twinjets impingement onto an isothermal moving plate (Q1649253)

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scientific article; zbMATH DE number 6898849
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English
Numerical study of heat transfer due to twinjets impingement onto an isothermal moving plate
scientific article; zbMATH DE number 6898849

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    Numerical study of heat transfer due to twinjets impingement onto an isothermal moving plate (English)
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    5 July 2018
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    Summary: In this study, heat transfer from a moving isothermal hot plate due to double impinging vertical slot jets was investigated for a laminar flow. The rectangular geometry consists of a confining adiabatic wall placed parallel to the moving impingement. The jets are located symmetrically at mid point of upper wall. Water and Al\(_2\)O\(_3\) nanoparticles mixture with different volumetric fraction was used as working medium. In considered jet impingement problem, the effects of the jet exit Reynolds numbers, ranging from 50 to 200, the normalized plate velocity, ranging from 0 to 2, and volumetric fractions of nanofluid, ranging from 0\% to 6\% were investigated. The commercial software package based on finite volume method FLUENT (version 6.3.26) is used in this study for the computations. It has been observed that increasing normalized plate velocity increases the heat transfer from bottom surface. Similarly, increasing Reynolds number of slot jets leads to enhancement of heat transfer. Besides, increasing volumetric fraction of nanofluid conributes to heat transfer enhancement.
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    jet flow
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    CFD
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    nanofluid
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