NUMERICAL SIMULATION STUDY LAMINAR MIXED CONVECTION NANOFLUIDS FLOW FORWARD-FACING STEP PLACED WITH BAFFLE

Numerical simulation study of laminar mixed convection flow using 3D channel in horizontal forward facing step by using different types of nanofluids placed with a baffle. The water was utilized as a base fluid and three types of nanofluids Silicon Dioxide ( ), Aluminium Oxide ( ) and Copper Oxide...

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Main Author: MOHAMAD SAUPEE, NURUL SYAZWANEE
Format: Final Year Project
Language:English
Published: IRC 2018
Online Access:http://utpedia.utp.edu.my/20151/1/NURUL%20SYAZWANEE_20826_DISSERTATION%20REPORT.pdf
http://utpedia.utp.edu.my/20151/
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spelling my-utp-utpedia.201512019-12-20T16:13:51Z http://utpedia.utp.edu.my/20151/ NUMERICAL SIMULATION STUDY LAMINAR MIXED CONVECTION NANOFLUIDS FLOW FORWARD-FACING STEP PLACED WITH BAFFLE MOHAMAD SAUPEE, NURUL SYAZWANEE Numerical simulation study of laminar mixed convection flow using 3D channel in horizontal forward facing step by using different types of nanofluids placed with a baffle. The water was utilized as a base fluid and three types of nanofluids Silicon Dioxide ( ), Aluminium Oxide ( ) and Copper Oxide (CuO) also different nanoparticle diameters have been used in range of 20-80 nanometers. The various range of nanoparticles volume fraction in between 0.01 to 0.04. The Finite Volume Method (FVM) with SIMPLE Algorithm method was selected by using second order central differencing and solved the momentum and energy equations. The effects of baffle height and baffle width on velocity and temperature numerically simulated. The different geometry shape of baffle with first geometry baffle with 5mm height and 4mm width, second geometry baffle with 5mm height and 8mm width and the third geometry baffle with 8mm height and 2mm width have been created and identified. The numerical study and experimental results reveal that Silicon Dioxide ( ) has the highest Nusselt number increases with the increase of volume fraction. The most sufficient and relevant for is when the nanoparticle diameter size reduces it will significantly decrease the nanoparticle density. The numerical results study denote in a good agreement with the experimental results. IRC 2018-09 Final Year Project NonPeerReviewed application/pdf en http://utpedia.utp.edu.my/20151/1/NURUL%20SYAZWANEE_20826_DISSERTATION%20REPORT.pdf MOHAMAD SAUPEE, NURUL SYAZWANEE (2018) NUMERICAL SIMULATION STUDY LAMINAR MIXED CONVECTION NANOFLUIDS FLOW FORWARD-FACING STEP PLACED WITH BAFFLE. IRC, Universiti Teknologi PETRONAS. (Submitted)
institution Universiti Teknologi Petronas
building UTP Resource Centre
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Teknologi Petronas
content_source UTP Electronic and Digitized Intellectual Asset
url_provider http://utpedia.utp.edu.my/
language English
description Numerical simulation study of laminar mixed convection flow using 3D channel in horizontal forward facing step by using different types of nanofluids placed with a baffle. The water was utilized as a base fluid and three types of nanofluids Silicon Dioxide ( ), Aluminium Oxide ( ) and Copper Oxide (CuO) also different nanoparticle diameters have been used in range of 20-80 nanometers. The various range of nanoparticles volume fraction in between 0.01 to 0.04. The Finite Volume Method (FVM) with SIMPLE Algorithm method was selected by using second order central differencing and solved the momentum and energy equations. The effects of baffle height and baffle width on velocity and temperature numerically simulated. The different geometry shape of baffle with first geometry baffle with 5mm height and 4mm width, second geometry baffle with 5mm height and 8mm width and the third geometry baffle with 8mm height and 2mm width have been created and identified. The numerical study and experimental results reveal that Silicon Dioxide ( ) has the highest Nusselt number increases with the increase of volume fraction. The most sufficient and relevant for is when the nanoparticle diameter size reduces it will significantly decrease the nanoparticle density. The numerical results study denote in a good agreement with the experimental results.
format Final Year Project
author MOHAMAD SAUPEE, NURUL SYAZWANEE
spellingShingle MOHAMAD SAUPEE, NURUL SYAZWANEE
NUMERICAL SIMULATION STUDY LAMINAR MIXED CONVECTION NANOFLUIDS FLOW FORWARD-FACING STEP PLACED WITH BAFFLE
author_facet MOHAMAD SAUPEE, NURUL SYAZWANEE
author_sort MOHAMAD SAUPEE, NURUL SYAZWANEE
title NUMERICAL SIMULATION STUDY LAMINAR MIXED CONVECTION NANOFLUIDS FLOW FORWARD-FACING STEP PLACED WITH BAFFLE
title_short NUMERICAL SIMULATION STUDY LAMINAR MIXED CONVECTION NANOFLUIDS FLOW FORWARD-FACING STEP PLACED WITH BAFFLE
title_full NUMERICAL SIMULATION STUDY LAMINAR MIXED CONVECTION NANOFLUIDS FLOW FORWARD-FACING STEP PLACED WITH BAFFLE
title_fullStr NUMERICAL SIMULATION STUDY LAMINAR MIXED CONVECTION NANOFLUIDS FLOW FORWARD-FACING STEP PLACED WITH BAFFLE
title_full_unstemmed NUMERICAL SIMULATION STUDY LAMINAR MIXED CONVECTION NANOFLUIDS FLOW FORWARD-FACING STEP PLACED WITH BAFFLE
title_sort numerical simulation study laminar mixed convection nanofluids flow forward-facing step placed with baffle
publisher IRC
publishDate 2018
url http://utpedia.utp.edu.my/20151/1/NURUL%20SYAZWANEE_20826_DISSERTATION%20REPORT.pdf
http://utpedia.utp.edu.my/20151/
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score 13.214268