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Fluid mechanics of oscillatory and modulated flows and associated applications in heat and mass transfer - A review
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An experimental investigation of convective heat transfer from the heated floor of a rectangular duct to a low frequency, large tidal displacement oscillatory flow
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Heat transfer in laminar, oscillatory flow in cylindrical and conical tubes
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Peattie, R.A.1
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0021521210
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Heat transfer by high-frequency oscillations: A new hydrodynamic technique for achieving large effective thermal conductivities
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Heat transport along an oscillating flat plate
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Kurzweg, U.H.1
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0031453656
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Temperature discontinuities between elements of thermoacoustic devices
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J. R. Brewster, R. Raspet, and H. E. Bass, "Temperature discontinuities between elements of thermoacoustic devices," J. Acoust. Soc. Am. 102, 3355-3360 (1997).
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Brewster, J.R.1
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33646653949
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Tech. Rep. ARTI-21CR/610-10040-01, Air-Conditioning and Refrigeration Technology Institute
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J. E. Braun, L. Mongeau, B. Minner, A. Alexander, and I. Paek, "Evaluating the performance of thermoacoustic cooling," Tech. Rep. ARTI-21CR/610-10040-01, Air-Conditioning and Refrigeration Technology Institute, 2000.
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Evaluating the Performance of Thermoacoustic Cooling
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Braun, J.E.1
Mongeau, L.2
Minner, B.3
Alexander, A.4
Paek, I.5
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9
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0034907115
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Heat transfer from transverse tubes adjacent to a thermoacoustic stack
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Mozurkewich, G.1
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10
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33646660566
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5371 Palmer Way, Suite A, Carlsbad, CA 92008
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APS Dynamics, Inc., 5371 Palmer Way, Suite A, Carlsbad, CA 92008, www.apsdynamics.com
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12
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0142259753
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Measurements of resistance of individual square-mesh screens to oscillating flow at low and intermediate Reynolds numbers
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R. S. Wakeland and R. M. Keolian, "Measurements of resistance of individual square-mesh screens to oscillating flow at low and intermediate Reynolds numbers," J. Fluids Eng. 125, 851-862 (2003).
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Wakeland, R.S.1
Keolian, R.M.2
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13
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33646654690
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5877 Huberville Ave., Dayton, OH 45431
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RDP Corp., 5877 Huberville Ave., Dayton, OH 45431, www.rdp-corp.com
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14
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33646635431
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Yellow Springs, OH 45387
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YSI Inc., Yellow Springs, OH 45387, www.ysi.com
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15
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33646661071
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781 Clifton Blvd., Mansfield, OH 44907
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DigiFlow Systems, 781 Clifton Blvd., Mansfield, OH 44907, www.digi-flowsys.com
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17
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33646638765
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note
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0 = 0.5 in. = 12.7 mm. This does not take into account the transverse surface area at the round ends of the tubes. If the total gas volume on the gas side of the exchanger is divided by the total surface area of the tubes, the resulting hydraulic diameter is 5% smaller. Where the tubes enter the manifold, there are 6.35 mm sections of aluminum manifold between each pair of tubes, which add an additional 0.44 m, or 2%, to the total exchange perimeter.
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18
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33646660166
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note
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Turbine flow meters are often considered to measure volume flow rate. However, in our lab these meters are always calibrated by weighing the water passing through the meter in some time interval, so the calibration is actually of mass flow rate.
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19
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0003449101
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University Science Books, Mill Valley, CA
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Also called "the standard deviation of the mean," the standard error is the square root of the variance divided by the √N, where N is the number of samples (N = 4 in this case). See Eqs. (4.9) and (4.14) in J. R. Taylor, An Introduction to Error Analysis (University Science Books, Mill Valley, CA, 1982).
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An Introduction to Error Analysis
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Taylor, J.R.1
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20
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0010552289
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Los Alamos National Laboratory, LA-CC-93-8. Note: the DELTAE software (Version 5.1) and the User's Guide (Revision 6/1/2001) are now available on the CD-ROM included with Swift's text (Ref. 16), or online
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B. Ward and G. Swift, "DELTAE: Design Environment for Low-amplitude ThermoAcoustic Engines: User's Guide and Tutorial," Los Alamos National Laboratory, LA-CC-93-8, 1996. Note: the DELTAE software (Version 5.1) and the User's Guide (Revision 6/1/2001) are now available on the CD-ROM included with Swift's text (Ref. 16), or online at www.lanl.gov/thermoacoustics/
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(1996)
DELTAE: Design Environment for Low-amplitude ThermoAcoustic Engines: User's Guide and Tutorial
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Ward, B.1
Swift, G.2
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21
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0026649464
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Analysis and performance of a large thermoacoustic engine
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Swift, G.W.1
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24
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0003783204
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Advances in Heat Transfer, edited by T. F. Irvine, Jr. and J. P. Harnett (Academic, New York)
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R. K. Shah and A. L. London, Laminar Flow Forced Convection in Ducts, Advances in Heat Transfer Suppl. 1, edited by T. F. Irvine, Jr. and J. P. Harnett (Academic, New York, 1978).
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Shah, R.K.1
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26
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0036789321
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Influence of velocity profile nonuniformity on minor losses for flow exiting thermoacoustic heat exchangers
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R. S. Wakeland and R. M. Keolian, "Influence of velocity profile nonuniformity on minor losses for flow exiting thermoacoustic heat exchangers," J. Acoust. Soc. Am. 112, 1249-1252 (2002).
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Time-average temperature distribution in a thermoacoustic stack
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Flow distribution manifolds
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Flow distribution in parallel and reverse flow manifolds
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Datta, A.B.1
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