Simulation temperature distribution of solar air heater / Nor Syafiqah Mohamed Kassim

A mathematical model for a single-pass, solar collector developed to determine the temperature distribution is presented. A flat-plate air collector design was considered. The collector divided into N sub cell of collector. The temperature of each sub cell of collector will be determined individuall...

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Main Author: Mohamed Kassim, Nor Syafiqah
Format: Student Project
Language:English
Published: 2008
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Online Access:http://ir.uitm.edu.my/id/eprint/46420/1/46420.pdf
http://ir.uitm.edu.my/id/eprint/46420/
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spelling my.uitm.ir.464202021-05-19T06:59:01Z http://ir.uitm.edu.my/id/eprint/46420/ Simulation temperature distribution of solar air heater / Nor Syafiqah Mohamed Kassim Mohamed Kassim, Nor Syafiqah Temperature measurements Temperature Thermodynamics A mathematical model for a single-pass, solar collector developed to determine the temperature distribution is presented. A flat-plate air collector design was considered. The collector divided into N sub cell of collector. The temperature of each sub cell of collector will be determined individually. By considering a steady state heat transfer using the thermal network analysis procedure, a set of heat balance equations are identified for the temperature distribution. There are three sets of each section. Because heat transfer coefficients were temperature dependent, a set of temperatures distribution was approximated which allowed the heat transfer coefficients to be evaluated as a first guess. Instead of solving the heat balance equations, a matrix inversion method was employed for each section using a standard sub-routine program. An iterative process was then used that enabled the calculated temperatures distribution for the collector closed to the guess value. The newly-calculated temperatures distributions were then compared with the initially-guessed temperatures. The iterative procedure was repeated until following temperature distribution values differed by greater than 0.1 °C. By this procedure, predictions of plate, glass and fluid temperatures for a collector of any length could be obtained. Although only single-pass type of flat-plate solar collector is considered here, the solution procedure could be extended to encompass most other collector designs. 2008-05 Student Project NonPeerReviewed text en http://ir.uitm.edu.my/id/eprint/46420/1/46420.pdf ID46420 Mohamed Kassim, Nor Syafiqah (2008) Simulation temperature distribution of solar air heater / Nor Syafiqah Mohamed Kassim. [Student Project] (Unpublished)
institution Universiti Teknologi Mara
building Tun Abdul Razak Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Teknologi Mara
content_source UiTM Institutional Repository
url_provider http://ir.uitm.edu.my/
language English
topic Temperature measurements
Temperature
Thermodynamics
spellingShingle Temperature measurements
Temperature
Thermodynamics
Mohamed Kassim, Nor Syafiqah
Simulation temperature distribution of solar air heater / Nor Syafiqah Mohamed Kassim
description A mathematical model for a single-pass, solar collector developed to determine the temperature distribution is presented. A flat-plate air collector design was considered. The collector divided into N sub cell of collector. The temperature of each sub cell of collector will be determined individually. By considering a steady state heat transfer using the thermal network analysis procedure, a set of heat balance equations are identified for the temperature distribution. There are three sets of each section. Because heat transfer coefficients were temperature dependent, a set of temperatures distribution was approximated which allowed the heat transfer coefficients to be evaluated as a first guess. Instead of solving the heat balance equations, a matrix inversion method was employed for each section using a standard sub-routine program. An iterative process was then used that enabled the calculated temperatures distribution for the collector closed to the guess value. The newly-calculated temperatures distributions were then compared with the initially-guessed temperatures. The iterative procedure was repeated until following temperature distribution values differed by greater than 0.1 °C. By this procedure, predictions of plate, glass and fluid temperatures for a collector of any length could be obtained. Although only single-pass type of flat-plate solar collector is considered here, the solution procedure could be extended to encompass most other collector designs.
format Student Project
author Mohamed Kassim, Nor Syafiqah
author_facet Mohamed Kassim, Nor Syafiqah
author_sort Mohamed Kassim, Nor Syafiqah
title Simulation temperature distribution of solar air heater / Nor Syafiqah Mohamed Kassim
title_short Simulation temperature distribution of solar air heater / Nor Syafiqah Mohamed Kassim
title_full Simulation temperature distribution of solar air heater / Nor Syafiqah Mohamed Kassim
title_fullStr Simulation temperature distribution of solar air heater / Nor Syafiqah Mohamed Kassim
title_full_unstemmed Simulation temperature distribution of solar air heater / Nor Syafiqah Mohamed Kassim
title_sort simulation temperature distribution of solar air heater / nor syafiqah mohamed kassim
publishDate 2008
url http://ir.uitm.edu.my/id/eprint/46420/1/46420.pdf
http://ir.uitm.edu.my/id/eprint/46420/
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score 13.160551