Numerical computation for parallel plate thermoacoustic heat exchangers in standing wave oscillatory flow

A simplified computational method for studying the heat transfer characteristics of parallel plate thermoacoustic heat exchangers is presented. The model integrates the thermoacoustic equations of the standard linear theory into an energy balance-based numerical calculus scheme. Details of the time-...

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Published in:	International journal of heat and mass transfer Vol. 54; no. 21; pp. 4518 - 4530
Main Author:	Piccolo, A.
Format:	Journal Article
Language:	English
Published:	Kidlington Elsevier Ltd 01.10.2011 Elsevier
Subjects:	Applied sciences Cryogenics Density distribution Energy Energy. Thermal use of fuels Exact sciences and technology Finite differences Heat Heat exchanger Heat exchangers Heat transfer Mass transfer Mathematical analysis Mathematical models Parallel plates Refrigerating engineering. Cryogenics. Food conservation Sound Thermoacoustics Heat Sound Thermoacoustics Heat exchanger Finite differences Oscillating flow Numerical simulation Thermoacoustic effect Performance Refrigeration Modeling Heat transfer Finite difference method Standing wave Parallel plate
ISSN:	0017-9310, 1879-2189
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Abstract	A simplified computational method for studying the heat transfer characteristics of parallel plate thermoacoustic heat exchangers is presented. The model integrates the thermoacoustic equations of the standard linear theory into an energy balance-based numerical calculus scheme. Details of the time-averaged temperature and heat flux density distributions within a representative domain of the heat exchangers and adjoining stack are given. The effect of operation conditions and geometrical parameters on the heat exchanger performance is investigated and main conclusions relevant for HX design are drawn as far as fin length, fin spacing, blockage ratio, gas and secondary fluid-side heat transfer coefficients are concerned. Most relevant is that the fin length and spacing affect in conjunction the heat exchanger behavior and have to be simultaneously optimized to minimize thermal losses localized at the HX-stack junctions. Model predictions fit experimental data found in literature within 36% and 49% respectively at moderate and high acoustic Reynolds numbers.
AbstractList	A simplified computational method for studying the heat transfer characteristics of parallel plate thermoacoustic heat exchangers is presented. The model integrates the thermoacoustic equations of the standard linear theory into an energy balance-based numerical calculus scheme. Details of the time-averaged temperature and heat flux density distributions within a representative domain of the heat exchangers and adjoining stack are given. The effect of operation conditions and geometrical parameters on the heat exchanger performance is investigated and main conclusions relevant for HX design are drawn as far as fin length, fin spacing, blockage ratio, gas and secondary fluid-side heat transfer coefficients are concerned. Most relevant is that the fin length and spacing affect in conjunction the heat exchanger behavior and have to be simultaneously optimized to minimize thermal losses localized at the HX-stack junctions. Model predictions fit experimental data found in literature within 36% and 49% respectively at moderate and high acoustic Reynolds numbers.
Author	Piccolo, A.
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Keywords	Heat Sound Thermoacoustics Heat exchanger Finite differences Oscillating flow Numerical simulation Thermoacoustic effect Performance Refrigeration Modeling Heat transfer Finite difference method Standing wave Parallel plate
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Snippet	A simplified computational method for studying the heat transfer characteristics of parallel plate thermoacoustic heat exchangers is presented. The model...
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SubjectTerms	Applied sciences Cryogenics Density distribution Energy Energy. Thermal use of fuels Exact sciences and technology Finite differences Heat Heat exchanger Heat exchangers Heat transfer Mass transfer Mathematical analysis Mathematical models Parallel plates Refrigerating engineering. Cryogenics. Food conservation Sound Thermoacoustics
Title	Numerical computation for parallel plate thermoacoustic heat exchangers in standing wave oscillatory flow
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