Influence of various nanofluid types on wavy microchannels heat sink cooling performance
This paper discusses the impact of using various types of nanofluids and nanoparticle volume fractions on heat transfer and fluid flow characteristics in a wavy microchannel heat sink (WMCHS) with rectangular cross-section. Numerical investigations using three different types of nanofluids including...
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my.uniten.dspace-299772023-12-29T15:43:49Z Influence of various nanofluid types on wavy microchannels heat sink cooling performance Gunnasegaran P. Narindra N. Shuaib N.H. 35778031300 55894318200 13907934500 Heat transfer enhancement Nanofluids Wall Shear Stress Wavy microchannel heat sink (WMCHS) Finite volume method Heat sinks Heat transfer coefficients Laminar flow Mechanical engineering Nanoparticles Pressure drop Reynolds number Volume fraction Convective heat transfer Coefficient Heat transfer and fluid flow Heat Transfer enhancement Micro channel heat sinks Nanofluids Nanoparticle volume fractions Rectangular cross-sections Wall shear stress Nanofluidics This paper discusses the impact of using various types of nanofluids and nanoparticle volume fractions on heat transfer and fluid flow characteristics in a wavy microchannel heat sink (WMCHS) with rectangular cross-section. Numerical investigations using three different types of nanofluids including Al2O3-H2O, CuO-H2O, and diamond-H2O with a fixed nanoparticle volume fraction of 3% and using a diamond-H2O with nanoparticle volume fractions ranging from 0.5% to 5% are examined. This investigation covers Reynolds numbers in the range of 100 to 1000. The three-dimensional steady, laminar flow and heat transfer governing equations are solved using the finite-volume method (FVM). The computational model is used to study the variations of convective heat transfer coefficient, pressure drop and wall shear stress. It is inferred that the convective heat transfer coefficient of a WMCHS cooled with the nanofluid flow showed marked improvement over the pure water with a smaller pressure drop penalty. � (2013) Trans Tech Publications, Switzerland. Final 2023-12-29T07:43:49Z 2023-12-29T07:43:49Z 2013 Conference paper 10.4028/www.scientific.net/AMM.420.118 2-s2.0-84886028864 https://www.scopus.com/inward/record.uri?eid=2-s2.0-84886028864&doi=10.4028%2fwww.scientific.net%2fAMM.420.118&partnerID=40&md5=e3cb95c8e8bbba8db13b925d1207acfa https://irepository.uniten.edu.my/handle/123456789/29977 420 118 122 Scopus |
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Heat transfer enhancement Nanofluids Wall Shear Stress Wavy microchannel heat sink (WMCHS) Finite volume method Heat sinks Heat transfer coefficients Laminar flow Mechanical engineering Nanoparticles Pressure drop Reynolds number Volume fraction Convective heat transfer Coefficient Heat transfer and fluid flow Heat Transfer enhancement Micro channel heat sinks Nanofluids Nanoparticle volume fractions Rectangular cross-sections Wall shear stress Nanofluidics |
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Heat transfer enhancement Nanofluids Wall Shear Stress Wavy microchannel heat sink (WMCHS) Finite volume method Heat sinks Heat transfer coefficients Laminar flow Mechanical engineering Nanoparticles Pressure drop Reynolds number Volume fraction Convective heat transfer Coefficient Heat transfer and fluid flow Heat Transfer enhancement Micro channel heat sinks Nanofluids Nanoparticle volume fractions Rectangular cross-sections Wall shear stress Nanofluidics Gunnasegaran P. Narindra N. Shuaib N.H. Influence of various nanofluid types on wavy microchannels heat sink cooling performance |
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This paper discusses the impact of using various types of nanofluids and nanoparticle volume fractions on heat transfer and fluid flow characteristics in a wavy microchannel heat sink (WMCHS) with rectangular cross-section. Numerical investigations using three different types of nanofluids including Al2O3-H2O, CuO-H2O, and diamond-H2O with a fixed nanoparticle volume fraction of 3% and using a diamond-H2O with nanoparticle volume fractions ranging from 0.5% to 5% are examined. This investigation covers Reynolds numbers in the range of 100 to 1000. The three-dimensional steady, laminar flow and heat transfer governing equations are solved using the finite-volume method (FVM). The computational model is used to study the variations of convective heat transfer coefficient, pressure drop and wall shear stress. It is inferred that the convective heat transfer coefficient of a WMCHS cooled with the nanofluid flow showed marked improvement over the pure water with a smaller pressure drop penalty. � (2013) Trans Tech Publications, Switzerland. |
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35778031300 |
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35778031300 Gunnasegaran P. Narindra N. Shuaib N.H. |
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Conference paper |
author |
Gunnasegaran P. Narindra N. Shuaib N.H. |
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Gunnasegaran P. |
title |
Influence of various nanofluid types on wavy microchannels heat sink cooling performance |
title_short |
Influence of various nanofluid types on wavy microchannels heat sink cooling performance |
title_full |
Influence of various nanofluid types on wavy microchannels heat sink cooling performance |
title_fullStr |
Influence of various nanofluid types on wavy microchannels heat sink cooling performance |
title_full_unstemmed |
Influence of various nanofluid types on wavy microchannels heat sink cooling performance |
title_sort |
influence of various nanofluid types on wavy microchannels heat sink cooling performance |
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2023 |
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1806426307696787456 |
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