Particle image velocimetry investigation of the flow-field of a 3D turbulent annular swirling decaying flow induced by means of a tangential inlet

Experiments in Fluids

Volumn 29, Issue 3, 2000, Pages 291-301

  Pruvost, J ^a   Legrand, J ^a   Legentilhomme, P ^a   Doubliez, L ^a  

^a UNIVERSITÉ DE NANTES   (France)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 0000152531     PISSN: 07234864     EISSN: None     Source Type: Journal    
DOI: 10.1007/s003480000181     Document Type: Article

References (37)

1. Algifri AH; Bhardwaj RK; Rao YVN (1988) Eddy viscosity in decaying swirl flow in a pipe. Appl Sci Research 45: 287-302
2. Aouabed H; Legentilhomme P; Nouar C; Legrand J (1994) Experimental comparison of electrochemical and dot-paint methods for the study of swirling flow. J Appl Electrochem 24: 619-625
3. Aouabed H; Legentilhomme P; Legrand J (1995) Wall visualization of swirling decaying flow using a dot-paint method. Exp Fluids 19: 43-50
4. Benisek M; Protik Z; Nedeljkovic M (1984) Investigation on the incompressible turbulent swirling flow characteristics change along straight circular pipes. ZAMMZ. Angew Math Mech 66: 195-197
5. Brücker Ch ( 1996a) A new method for determination of the out-of-plane component in three-dimensional PIV using a color-coded light-sheet and spatial correlation: simulation and feasibility study for three-dimensional scanning PIV. Int Mech Eng 189-199
6. Brücker Ch (1996b) 3D PIV via correlation in a color-coded light-sheet. Exp Fluids 21: 312-314
7. Burfoot D; Rice P (1984) Heat transfer and pressure drop characteristics of alternative rotation swirl flow inducers in a circular duct. Chem Eng Res Des 62: 128-132
8. Cenedese A; Doglia G; Romano GP; De Michele G; Tanzini G (1994) LDA and PIV velocity measurements in free jets. Exp Therm Fluid Sci 9: 125-134
9. Cheng CY; Alkinson JF; Bursik M (1997) Direct measurement of turbulence structures in mixing jar using PIV. J Environ Eng 115-125
10. Clayton BR; Morsi YSM (1984) Determination of principal characteristics of turbulent swirling flow along annuli. Part 1: Measurement of time mean parameters. Int J Heat Fluid Flow 5: 195-203
11. Clayton BR; Morsi YSM (1985) Determination of principal characteristics of turbulent swirling flow along annuli. Part 2: Measurement of turbulence components. Int J Heat Fluid Flow 6: 31-41
12. Escudier MP; Borstein J; Zehnder N (1980) Observations and LDA measurements of confined turbulent vortex flow. J Fluid Mech 98: 49-63
13. Faler JH; Leibovitch S (1977) Disrupted states of vortex flow and vortex breakdown. Phys Fluids 20: 1385-1400
14. Farias Neto SR (1997) Simulation numérique des écoulements annulaires non-établis de type axial et tourbillonnaire - Cas du transfert de matière. PhD thesis, University of Nantes (France)
15. Farias Neto SR; Legentilhomme P; Legrand J (1998) Finite-element simulation of laminar swirling decaying flow induced by means of a tangential inlet in an annulus. Comp Meth Appl Mech Eng 165: 189-213
16. Gupta A; Lilley DG; Syred N (1984) Swirl flow. Energy and engineering sciences series. Fun bridge, welh, UK: Abacus Press
17. Hay N; West PD (1975) Heat transfer in free swirling flow in a pipe. J Heat Transfer 97: 411-416
18. Hinze JO (1959) Turbulence. New York: McGraw-Hill Book Co
19. Host-Madsen A; McCluskey DR (1994) On the accuracy and reliability of PIV measurements. 7th Int Symp on the Application of Laser Techniques to Fluid Mechanics 11-14 July 1994, Lisbon (Portugal)
20. Host-Madsen A; Nielsen AH (1998) Accuracy of PIV measurements in turbulent flows. 7th Eur Symp on Particle Characterization, 10-12 March 1998, Nürnberg (Germany)
21. Ito S; Ogawa K; Kuroda C (1980) Turbulent swirling flow in a circular pipe. J Chem Eng Jap 13: 6-10
22. Khoo BC; Chew TC; Heng PS; Kong HK (1992) Turbulence characterisation of a confined jet using PIV. Exp Fluids 13: 350-356
23. Khoo BC; Yeo KS; Lim DF (1997) The axisymmetric boundary layer beneath a Rankine-like vortex. Exp Fluids 22: 300-311
24. Kito O; Kato T (1985) Near wall velocity distribution of turbulent swirling flow in circular pipe. Bull JSME 27: 53-56
25. Kölher U; Weichert R (1998) Three-dimensional particle image velocimetry in turbulent flows. 7th Eur Symp on Particle Characterisation, pp. 255-263. Nürnberg (Germany)
26. Korjack TA (1985) Mass transfer of decaying products in swirling laminar pipe flow. Powder Technol 45: 57-62
27. Kuroda C; Ogawa K; Inoue I (1981) An approximate equation of axial velocity distribution in turbulent swirling pipe flow. J Chem Eng Jap 14: 158-160
28. Legentilhomme P; Legrand J (1991) The effects of inlet condi tions on mass transfer in annular swirling decaying flow. Int J Heat Mass Transfer 34: 1281-1291
29. Legrand J; Aouabed H; Legentilhomme P; Lefèbvre G; Huet F (1997) Use of electrochemical sensors for the determination of wall turbulence characteristics in annular swirling decaying flows. Exp Therm Fluid Sci 15: 125-136
30. Mungal MG; Lourenco LM; Krothapalli A (1995) Instantaneous velocity measurements in laminar and turbulent premixed flames using on-line PIV. Combust Sci Tech 106: 239-265
31. Nejad AS; Vanka SP; Favaloro SC; Samimy M; Langenfeld C (1988) Application of laser velocimetry for characterisation of confined swirling flow. Symposium on the Gas Turbine and Aeroengine Congress and Exposition, 5-9 June 1988, Amsterdam (Netherlands) - Trans ASME 1-15
32. Raffel M; Gharib M; Ronneberger O; Kompenhans J (1995) Feasibility study of three-dimensional PIV by correlating images of particles within parallel light sheet planes. Exp Fluids 19: 69-77
33. Saadeh M; Strauss K; Schneider T (1997) A combined PIV/LIF-system for the measurements of heterogeneous drag reduction effects in a pipe-flow. Exp Fluids 22: 292-299
34. Sethumadhavan R; Raja Rao M (1983) Turbulent flow heat transfer and fluid friction in helical-wire-coil inserted tubes. Int J Heat Mass Transfer 26: 1833-1845
35. Shi RX; Chehroudi B (1994) Velocity characteristics of a confined highly turbulent swirling flow near a swirl plate. J Fluids Eng 116: 685-693
36. Simmers DA; Coney JER (1979) A Reynolds analogy for the heat transfer characteristics of combined Taylor vortex and axial flow. Int J Heat Mass Transfer 22: 679-689
37. Yukawa H; Hashimoto M (1982) Pressure drop in swirl flow through an annulus. J Chin Ins Chem Eng 13: 161-167