Analysis of flow pattern and heat transfer in direct contact condensation

Chemical Engineering Science

Volumn 64, Issue 8, 2009, Pages 1719-1738

  Gulawani, Sagar S ^a   Dahikar, Sachin K ^a   Mathpati, Channamallikarjun S ^a   Joshi, Jyeshtharaj B ^a   Shah, Manish S ^b   RamaPrasad, Chaganti S ^b   Shukla, Daya S ^b  

^a INSTITUTE OF CHEMICAL TECHNOLOGY   (India)

^b BHABHA ATOMIC RESEARCH CENTRE   (India)

Author keywords

CFD; Direct contact condensation; Flow pattern; Heat transfer coefficient; Hot film anemometry; Theories of heat and mass transfer

Indexed keywords

ANEMOMETERS; CONDENSATION; FLOW PATTERNS; HEAT EXCHANGERS; HEAT TRANSFER COEFFICIENTS; LIQUIDS; MASS TRANSFER; MICROWAVE ANTENNAS; NOZZLES; STEAM; STEAM CONDENSERS; TIME SERIES; TURBULENCE; WATER VAPOR;

CFD; DIRECT CONTACT CONDENSATION; EXPERIMENTAL VALUES; HIGH VELOCITIES; HOT FILM ANEMOMETERS; HOT FILM ANEMOMETRY; IMMERSED SURFACES; NOZZLE DIAMETERS; SOLID-LIQUID INTERFACES; STEAM JETS; SUB-COOLED WATERS; TEMPERATURE PATTERNS; THEORIES OF HEAT AND MASS TRANSFER; TURBULENT FLOW PATTERNS; UPSTREAM PRESSURES; VAPOR LIQUIDS; VAPOR-LIQUID INTERFACES;

PHASE INTERFACES;

EID: 62549126388     PISSN: 00092509     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ces.2008.12.020     Document Type: Article

References (55)

1. Abramovich, G.N., 1963. The Theory of Turbulent Jets. The MIT Press, MA, pp. 76-85.
2. Aya I., and Nariai H. Evaluation of heat transfer coefficient at direct condensation of cold water and steam. Nuclear Engineering and Design 17 (1991) 131-146
3. Blackwelder R.F., and Kaplan L.S.G. On the wall structure of the turbulent boundary layer. Journal of Fluid Mechanics 76 (1976) 89-112
4. Banerjee, S., 1990. Turbulence structure and transport mechanisms at interfaces. In: Ninth International Heat Transfer Conference, Keynote Lectures, vol. I, pp. 395-418.
5. Banerjee S., Lakehal D., and Fulgosi M. Surface divergence models for scalar exchange between turbulent streams. International Journal of Multiphase Flow 30 (2004) 963-977
6. Banerjee S., Rhodes E., and Scott D.S. Mass transfer to falling wavy liquid films in turbulent flow. Industrial and Engineering Chemistry Fundamentals 7 (1968) 22-27
7. Chilton T.H., and Colburn A.P. Mass transfer (absorption) coefficients: predictions from data on heat transfer and fluid friction. Industrial and Engineering Chemistry 26 (1934) 1183-1186
8. Chun H., Kim Y.K., and Park J.W. An investigation of direct condensation of steam jet in subcooled water. International Communications in Heat Mass Transfer 23 (1996) 947-958
9. Churchill S.W. Comprehensive correlating equations for heat mass and momentum transfer in fully developed flow in smooth tubes. Industrial and Engineering Chemistry Fundamental 16 (1977) 109-116
10. Churchill S.W. Critique of the classical algebraic analogies between heat, mass and momentum transfer. Industrial and Engineering Chemistry Research 36 (1997) 3866-3878
11. Danckwerts P.V. Significance of liquid film coefficient in gas. Industrial and Engineering Chemistry 43 (1951) 1460-1467
12. Deissler, R.G., 1955. Analysis of turbulent heat transfer, mass transfer, and friction in smooth tubes at high Prandtl and Schmidt Numbers. NACA Report 1210, Washington, DC, pp. 69-82.
13. Dil'man V.V. The theory of heat and mass transfer in turbulent flow. International Chemical Engineering 8 (1968) 156-162
14. Fage A., and Townend H.C.H. An examination of turbulent flow with an ultramicroscope. Proceedings of the Royal Society of London 135 (1932) 656-684
15. Fortuin J.M.H., and Klijn P.J. Drag reduction and surface renewal in turbulent pipe flow. Chemical Engineering Science 37 (1982) 611-623
16. Fortuin J.M.H., Musschenga E.E., and Hamersma P.J. Transfer processes in turbulent pipe flow described by ERSR Model. A.I.Ch.E. Journal 38 (1992) 343-362
17. Friend W.L., and Metzner A.B. Turbulent heat transfer inside tubes and the analogy, among heat, mass and momentum transfer. A.I.Ch.E. Journal 4 (1958) 393-402
18. Frotescue G.E., and Pearson J.R.A. On gas absorption into a turbulent liquid. Chemical Engineering Science 22 (1967) 1163-1176
19. Gulawani S.S., Deshpande S.S., Joshi J.B., Shah M.S., Prasad C.S.R., and Shukla D.S. Submerged gas jet into a liquid bath: a review. Industrial and Engineering Chemistry Research 46 (2007) 3188-3218
20. Gulawani S.S., Joshi J.B., Shah M.S., Prasad C.S.R., and Shukla D.S. CFD analysis of flow pattern and heat transfer in direct contact steam condensation. Chemical Engineering Science 61 (2006) 5204-5220
21. Higbie R. The rate of absorption of a pure gas into a still liquid during short periods of exposure. Transactions of the A.I.Ch.E. 31 (1935) 365-385
22. Harriott P. A random eddy modification of the penetration theory. Chemical Engineering Science 17 (1962) 149-154
23. Jeje A., Asante B., and Ross B. Steam bubbling regimes and direct contact condensation heat transfer in highly subcooled water. Chemical Engineering Science 45 (1990) 639-650
24. Kader B.A., and Yaglom A.M. Heat and mass transfer laws for fully turbulent wall flows. International Journal of Heat Mass Transfer 15 (1972) 2329-2351
25. Karapantsios T.D., Kostoglou M., and Karabelast A.J. Local condensation rates of steam-air mixtures in direct contact with a falling liquid film. International Journal of Heat and Mass Transfer 38 (1995) 779-794
26. Kawamura H., Ohsaka K., Abe H., and Yamamoto K. DNS of turbulent heat transfer in channel flow with low to medium-high Prandtl number fluid. International Journal of Heat and Fluid Flow 19 (1998) 482-491
27. Kim H.W., Bae Y.Y., Song C.H., Park J.K., and Choi S.M. Experimental study on stable steam condensation in a quenching tank. International Journal of Energy Research 25 (2001) 239-252
28. Kim Y.S., Park J.W., and Song C.H. Investigation of the steam-water direct contact condensation heat transfer coefficient using interfacial transport models. International Communications in Heat and Mass Transfer 31 (2004) 397-411
29. Kim Y.-S., and Youn Y.-J. Experimental study of turbulent jet induced by steam jet condensation through a hole in a water tank. International Communications in Heat and Mass Transfer 35 (2008) 21-29
30. Kulkarni A.A., and Joshi J.B. Simultaneous measurement of flow pattern and mass transfer coefficient in bubble columns. Chemical Engineering Science 59 (2004) 271-281
31. Lamont J.C., and Scott D.S. An eddy cell model of mass transfer into the surface of a turbulent liquid. A.I.Ch.E. Journal 16 (1970) 512-519
32. Launder B.E., and Spalding D.B. Mathematical Models of Turbulence (1972), Academic Press, London
33. Levich, V.G., 1962. Physicochemical Hydrodynamics. Prentice-Hall Publication, Englewood Cliffs, NJ, pp. 689-692.
34. Lewis W.K., and Whitman W.G. Principles of gas adsorption. Industrial and Engineering Chemistry 16 (1924) 1215-1220
35. Liang K.-S., and Grifffith P. Experimental and analytical study of direct contact condensation of steam in water. Nuclear Engineering and Design 147 (1994) 131-146
36. Lin C.S., Denton E.B., Gaskill H.S., and Putnam G.L. Diffusion controlled electrode reactions. Industrial and Engineering Chemistry 43 (1951) 2136-2143
37. Luk S., and Lee Y.H. Mass transfer in eddies close to air-water interface. A.I.Ch.E. Journal 32 (1986) 1546-1555
38. Lakehal D., Fulgosi M., Yadigaroglu G., and Banerjee S. Direct numerical simulation of turbulent heat transfer across a mobile, sheared gas-liquid interface. Journal of Heat Transfer 125 (2003) 1129-1139
39. Lakehal D., Fulgosi M., and Yadigaroglu G. Direct numerical simulation of condensing stratified flow. Journal of Heat Transfer 130 (2008) 021501, 1-10
40. Lakehal D., Fulgosi M., Banerjee S., and Yadigaroglu G. Turbulence and heat exchange in condensing vapor-liquid flow. Physics of Fluids 20 (2008) 065101, 1-18
41. Mathpati C.S., and Joshi J.B. Insight into theories of heat and mass transfer at the solid-fluid interface using direct numerical simulation and large eddy simulation. Industrial and Engineering Chemistry Research 46 (2007) 8525-8557
42. Ma X.-H., Zhou X.-D., Lan Z., Li Y.-M., and Zhang Y. Condensation heat transfer enhancement in the presence of non-condensable gas using the interfacial effect of dropwise condensation. International Journal of Heat and Mass Transfer 51 (2008) 1728-1737
43. Notter R.H., and Sleicher C.A. The eddy diffusivity in the turbulent boundary layer near a wall. Chemical Engineering Science 26 (1971) 161-171
44. Patankar S.V. Numerical Heat Transfer and Fluid Flow (1981), McGraw-Hill, New York
45. Prandtl L. Eine Beziehung zwischen W armeustausch und Str omungswiderstand der Fl ussigkeiten. Physikalische Zeitschrift XI (1910) 1072-1078
46. Ralph J.E., Van Wissen R.J.E., Schreel K.R.A.M., and Van der Geld C.W.M. Particle image velocimetry measurements of a steam-driven confined turbulent water jet. Journal of Fluid Mechanics 530 (2005) 353-368
47. Reynolds O. On the extent and action of the heating surface for steam boilers. Proceedings of the Manchester Literary and Philosophical Society 14 (1875) 7-19
48. Seong H.J., Hee C.N., and Franz M. Measurement of heat transfer coefficients for direct contact condensation in core makeup tanks using holographic interferometer. Nuclear Engineering and Design 199 (2000) 75-83
49. Simpson M.E., and Chan C.K. Hydrodynamics of a subsonic vapor jet in subcooled liquid. Journal of Heat Transfer 104 (1982) 271-278
50. Taylor, G.I., 1916. Conditions at the surface of hot body exposed to the wind. British Advisory Committee Aeronautical Reports and Memoranda, no. 272.
51. Theofaneous T.G., Houze R.N., and Brumfield L.K. Turbulent mass transfer at free gas-liquid interfaces with applications to open-Channel, bubble and jet flows. International Journal of Heat and Mass Transfer 19 (1976) 613-624
52. Toor H.L., and Marchello J.M. Film-penetration model for mass and heat transfer. A.I.Ch.E. Journal 4 (1958) 97-101
53. Van Wissen R.J.E., Schreel K.R.A.M., Van der Geld C.W.M., and Wieringa J. Turbulence production by a steam-driven jet in a water vessel. International Journal of Heat and Fluid Flow 25 (2004) 173-179
54. Von Karman Th. The analogy between fluid friction and heat transfer. Transactions of American Society Mechanical Engineers 61 (1939) 705-710
55. Wu X.-Z., Yan J.-J., Shao S.-F., Cao Y., and Liu J.-P. Experimental study on the condensation of supersonic steam jet submerged in quiescent subcooled water: steam plume shape and heat transfer. International Journal of Multiphase Flow 33 (2007) 1296-1307