Boiling heat transfer and bubble dynamics in microgravity

Advances in Heat Transfer

Volumn 35, Issue C, 2001, Pages 57-172

  Straub, Johannes ^a  

^a TECHNICAL UNIVERSITY OF MUNICH   (Germany)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 77956766127     PISSN: 00652717     EISSN: None     Source Type: Book Series    
DOI: 10.1016/S0065-2717(01)80020-4     Document Type: Chapter

References (92)

1. Abe Y., Oka T., Mori Y.H., Toshiharu M., and Nagashima A. Int. J. Heat Mass Transfer 37 (1994) 2405
2. Beer H., Burow P., and Best R. Bubble growth, bubble dynamics, and heat transfer in nucleate boiling, viewed with a laser interferometer. In: Hahne E., and Grigull U. (Eds). Heat Transfer in Boiling (1977), Academic Press, New York 21-52
3. 1997 Herbert Utz Verlag Wissenschaft, München. Betz J. Strömung und Wärmeübergang bei thermokapillarer Konvektion an Gasblasen. Dissertation (1997), TU München
4. in press. Betz J., and Straub J. Numerical and experimental study of the heat transfer and fluid flow by thermocapillary convection around gas bubbles. J. Heat Mass Transfer (2001)
5. Borishanskij V.M. Correlation of the effect of pressure on the critical heat flux and heat transfer rates using the theory of hydrodynamic similarity. In: Kutateladse S.S. (Ed). Problems of Heat Transfer and Hydraulics at Two-Phase Media (1969), Pergamon Press, Oxford 16-37
6. Borishanskij V.M., Danilova G.N., Gotovskiy M.A., Borishanskij A.V., Danilova G.P., and Kupriyanova A.V. Correlation of data on heat transfer in an elementary characteristics of the nucleate boiling mechanism. Heat Transfer Sov. Res. 13 1 (1981) 100-116
7. Bromley L.A. Heat transfer in stable film boiling. Chem. Eng. Prog. 46 (1950) 221-227
8. Series in Chemical and Mechanical Engineering. Carey V. Liquid-Vapor Phase-Change Phenomena (1992), Hemisphere Publishing, New York
9. Clark J.A. Gravic and agravic effects in cryogenic heat transfer. Adv. Cryogen. Heat Transfer 87 64 (1968) 93-102
10. Cooper M.G. The microlayer and bubble growth in nucleate pool boiling. Int. J. Heat Mass Transfer 12 (1969) 915-933
11. Cooper M.G., and Lloyd A.J.P. The microlayer in nucleate pool boiling. Int. J. Heat Mass Transfer 12 (1969) 895-913
12. Ded J., and Lienhard J. The peak pool boiling heat flux from a sphere. AIChE J. 18 (1972) 337-342
13. Derjaguin B.V. Definition of the concept of and magnitude of the disjoining pressure and its role in the static and kinetics of thin layers of liquid. Kolloidnyi Zh. 17 (1955) 191-197
14. Dhir V.K. Nucleate and transition boiling heat transfer under pool boiling and external flow conditions. In: Hetsrony G. (Ed). Proc. Ninth Int. Heat Transfer Conf., Jerusalem 1990 Vol. 1 (1990), Hemisphere, New York 91-112
15. Forster H.K., and Zuber N. Dynamics of vapor bubbles and boiling heat transfer. AIChE J. 1 (1955) 531-535
16. Frederking T.H.K., and Clark J.A. Natural convection film boiling on a sphere. Adv. Cryogen. Eng. 8 (1963) 501
17. Fritz W. Berechnungen des Maximalvolumens von Dampfblasen. Z. Phys. 36 (1934) 379-384
18. Fujita Y., and Bai Q. Numerical simulation of the growth for an isolated bubble in nucleate boiling. Heat Transfer 1998, Proc. of 11th IHTC, Kyongju, Korea Vol. 2 (1998) 437-442
19. Golobic I., Pavloic E., Strgar S., and Kenning D.B.R. Wall temperature variation during bubble growth on a thin plate: Computation and experimentations. Proc. Eurotherm Seminar No. 48. Paderbom, Germany, Sept. 1996 (1996), Edizioni ETS, Pisa, Italy
20. Hammer J. Einfluss der Mikrozone auf den Wärmeübergang beim Blasensieden. Fortschr. Ber VDI, Düsseldorf, Ser. 19 No. 96 (1996)
21. Haramura Y., and Katto Y. A new hydrodynamic model of critical heat flux, applicable widely to both pool and forced convection boiling on submerged bodies in saturated liquids. Int. J. Heat Mass Transfer 26 (1983) 389-399
22. Jakob M., and Fritz W. Versuche über den Verdampfungsvorgang. Fortschr. Geb. Ingenieurw. 2 (1931) 435
23. Jawurek H.H. Simultaneous determination of microlayer geometry and bubble growth in nucleate boiling. Int. J. Heat Mass Transfer 12 (1969) 843-848
24. Katto Y., and Yokoya A. Principal mechanism of boiling crisis in pool boiling. Int. J. Heat Mass. Transfer 11 (1968) 993-1002
25. Keshock E.G., and Siegel R. Forces acting on bubbles in nucleate boiling under normal and reduced gravity conditions. NASA Tech. Note TN D-2299 (1964), National Aeronautics and Space Administration, Washington, DC
26. Kutateladse S.S. Heat transfer in condensation and boiling. AEC-tr-3770 (1959)
27. Translated from Russian. Kutateladse J.J. Fundamentals of Heat Transfer (1963), Edward Arnold, Ltd.
28. Translation from. Kutateladse S.S., and Gogonin I.I. Growth rate and departure diameter of a vapor bubble in free convection boiling of a saturated liquid, Udc 536.248.2. Teplofizika Vysokikh Temperature 17 4 (1979) 792-797
29. Lay J.H., and Dhir V.K. A nearly theoretical model for fully developed nucleate boiling of saturated liquids. Proc. 10th Int. Heat Transfer Conference. Brighton, UK, 1994. 10-PB-17 (1994) 105-110
30. Lay J.H., and Dhir V.K. Shape of a vapor stem during nucleate boiling of saturated liquids. J. Heat Transfer 117 (1995) 394-401
31. Lee H.S., and Merte H. The origin of the dynamic growth of vapor bubbles related to vapor explosion. J. Heat Transfer 120 (1998) 174-182
32. Lee H.S., and Merte H. Pool boiling mechanisms in microgravity. In: Dhir Ed. (Ed). Proc. United Engineering Foundation Conference: Microgravity Fluid Physics and Heat Transfer. Sept. 1999, Kahuku, Oahu, Hawaii (2000) 126-135
33. Lee H.S., Merte H., and Chiaramonte F. Pool boiling curve in microgravity. J. Thermophys. Heat Transfer 11 2 (1997) 216-222
34. Lee H.S., Merte H., and Chiaramonte F. Pool boiling phenomena in microgravity. Heat Transfer, 1998, Proc. of the 11th Int. Heat Transfer Conf., August 1998, Kyongyu, Korea Vol. 2 (1998) 395-399
35. Lienhard J.H., and Dhir V.K. Hydrodynamic prediction of peak pool boiling heat fluxes from finite bodies. J. Heat Transfer 95 (1973) 152-158
36. Lioy I. Bubble, drop, particle unit (BDPU), a multi-user microgravity facility. Proc. 40th Congr. of the Astronautical Federation. Spain, IAF (1989)
37. Marco P.D., and Grassi W. Pool boiling in reduced gravity. Boiling 2000: Phenomena & Emerging Applications, Anchorage, AK, April 30-May 5, 2000 (2000)
38. Marek R. Einfluess thermokapillarer Konvektion und inerter Gase beim Blasensieden in unterkühlter Flüssigkeit. Dissertation (1996), TU München
39. Marek R., and Straub J. The origin of thermocapillary convection in subcooled nucleate pool boiling. Int. J. Heat Mass Transfer 44 (2001) 39-53
40. Merte H., and Clark J.A. Boiling heat transfer to a cryogenic fluid at standard, fractional, and near-zero gravity. Int. J. Heat Mass Transfer 86 (1964) 351-359
41. Micko S. Sieden am Heizdraht unter reduzierter Schwerkraft. Dissertation (2000), TU München
42. Moissis R., and Berenson P.J. On the hydrodynamic transition in nucleate boiling. J. Heat Transfer Trans. ASME Ser. C 85 (1963) 221-229
43. Nikolayev V.S., and Beysens D.A. Boiling crisis and non-equilibrium drying transition. Europhys. Lett. 47 (1999) 345-351
44. Submitted. Nikolayev V.S., Beysens D.A., Lagier G.L., and Hegseth J. Growth of a dry spot under a vapor bubble at high heat flux and high pressure (2000)
45. Nishikawa A., and Urakawa K. An experiment of nucleate boiling under reduced pressure. Mem. Fac. Eng. Kyushu Univ. 19 (1960) 63-71
46. Noyes R.C. An experimental study on sodium pool boiling heat transfer. J. Heat Transfer Trans. ASME Ser. C 85 (1963) 125-131
47. Nukiyama S. The maximum and minimum values of the heart Q transmitted from metal to boiling water under atmospheric pressure. Trans. JSME 37 (1934) 357
48. Ohta H. Boiling experiments under microgravity conditions by using transparent heaters. In: Dhir (Ed). Proc. United Engineering Foundation Conference: Microgravity Fluid Physics and Heat Transfer. Sept. 1999, Kahuku, Oahu, Hawaii (2000) 151-159
49. Ohta H., Kawaji M., Azuma M., Inoue K., Kawasaki K., Tamaoki H., Ohta K., Takada T., Okada S., Yoda S., and Nakamura T. TR-1A rocket experiment on nucleate pool boiling heat transfer under microgravity. ASME HTD Vol. 354 (1997) 249-256
50. 1998, Herbert Utz Verlag, München. Picker G. Nicht-Gleichgewichts-Effekte beim Wachsen und Kondensieren von Dampfblasen. Dissertation (1998), TU München
51. Picker G., and Straub J. Interfacial mass transfer studies on vapor bubbles in microgravity. In: Dhir (Ed). Proc. United Engineering Foundation Conference. Sept. 1999, Kahuku, Oahu, Hawaii (2000) 72-79
52. Pitschmann P., and Grigull U. Film boiling on horizontal cylinders. Wärme und Stoffübertragung 3 (1970) 75-84
53. Plesset M.S., and Sadhal S.S. An analytical estimation of the microlayer thickness in nucleate boiling. J. Heat Transfer 101 (1979) 180-182
54. Plesset M.S., and Zwick S.A. Growth of vapor bubbles in superheated liquids. J. Appl. Phys. 25 (1954) 493-500
55. Qiang B., and Fujita Y. Numerical simulation of bubble growth in reduced gravity. In: Dhir (Ed). Proc. United Engineering Foundation Conference. Sept. (1999), Kahuku, Oahu, Hawaii (2000) 136-142
56. Rohsenow W.M. A method of correlating heat transfer data for surface boiling of liquids. Trans. ASME, Ser. C. J. Heat Transfer 74 (1952) 969-976
57. Scriven L.E. On the dynamics of bubble growth. Chem. Eng. Sci. Genie Chim. 10 (1959) 1-13
58. Sefiane K., Benielli D., and Steinchen A. A new mechanism for pool boiling crises, recoil instability and contact angle influence. Colloids Surf. 142 (1998) 361-373
59. Siegel R. Effects of reduced gravity on heat transfer. In: Irvine T.F. (Ed). Advances in Heat Transfer Vol. 4 (1967), Academic Press, New York 143-228
60. Singh S., and Dhir V.K. Effect of gravity, wall superheat, and liquid subcooling on bubble dynamics during nucleate boiling. In: Dhir (Ed). Proc. United Engineering Foundation Conference. Sept. (1999) Kahuku, Oahu, Hawaii (2000) 106-113
61. Son G., and Dhir V.K. Numerical simulation of a single bubble during partial nucleate boiling on an horizontal surface. Heat Transfer 1998, Proceedings of 11th IHTC, Kyongju, Korea Vol. 2 (1998) 533-538
62. Son G., Dhir V.K., and Ramanujapu N. Dynamics and heat transfer associated with a single bubble during nucleate boiling on a horizontal surface. J. Heat Mass Transfer 121 (1999) 1-9
63. Steinle H.F., and Schwartz E.W. An experimental study of the transition from nucleate to film boiling under zero gravity conditions. Convair Astronautics Report No. AZJ-55-009 (1959)
64. Steinbichler M. Experimentelle Untersuchung des gesättigten und unterkühlten Siedens an Miniaturheizflächen unter Mikrogravitation. Dissertation (2000), TU München
65. Steinbichler M., Micko S., and Straub J. Nucleate boiling heat transfer on small hemispherical heaters and a wire under microgravity. Heat Transfer 1998, Proc. of the 11th IHTC Kyongju, Korea Vol. 2 (1998) 539-544
66. Stephan K., and Abdelsalam M. Heat transfer correlation for natural convection boiling. Int. J. Heat Mass Transfer 23 (1980) 73-87
67. Stephan P.C. Wärmedurchgang bei Verdampfung aus Kapillarrillen in Wärmerohren. Fortschr. Ber. VDI, Series 19, No. 59 (1992), VDI Verlag, Düsseldorf
68. Stephan P., and Hammer J. A new model for nucleate boiling heat transfer. Heat Mass Transfer 30 (1994) 119-125
69. Stralen S.v., and Cole R. Boiling Phenomena I, II (1972), Hemisphere Publishing, London
70. (1994). Straub J. The role of surface tension for two-phase heat and mass transfer in the absence of gravity. Third World Conference on Experimental Heat Transfer, Fluid Mechanics, and Thermodynamics. Honolulu, Hawaii, October 1993. Exp. Therm. Fluid Sci. 9 (1993) 253-273
71. Straub J. The micro wedge model: A physical description of nucleate boiling without external forces. In: Ratke L. (Ed). Materials and Fluids under Low Gravity. European Symposium on Gravity Dependent Phenomena in Physical Sciences (1995-1996), Springer, Berlin
72. Straub J. Microscale boiling heat transfer under 0g and 1g conditions. Int. J. Therm. Sci. 39 (2000) 490-497
73. Straub J., and Micko S. Boiling on a wire under microgravity conditions-First results from a space experiment, performed in May 1996. Proc. Eurotherm. Seminar No. 48. Paderbom, Germany (1996), Edizioni ETS, Pisa, Italy 275-282
74. Straub J., Winter J., Picker G., and Zell M. Boiling on a miniature heater under microgravity-A simulation for cooling of electronic devices. Proc. 30th National Heat Transfer Conf. Portland, OR, 1995. ASME HDT 1995 Vol. 305 (1995) 61-69
75. Straub J., Zell M., and Vogel B. Pool boiling in a reduced gravity field. In: Hetserony G. (Ed). Proc. 9th Int. Heat Transfer Conf. (1990), Hemisphere, New York 129-155
76. Straub J., Zell M., and Vogel B. Boiling under microgravity conditions. Proc. First European Symposium Fluids in Space. Ajaccio, France, 1991. ESA SP-353 (1992)
77. Sun K.H., and Lienhard J.H. The peak pool boiling heat flux on horizontal cylinders. Int. J. Heat Mass Transfer 13 (1970) 1425-1439
78. Suzuki K., Koyama Y., and Kawamura H. A contribution towards burnout heat flux in microgravity. In: Dhir (Ed). Proc. United Engineering Foundation Conference: Microgravity Fluid Physics and Heat Transfer. Sept. 1999, Kahuku, Oahu, Hawaii (1999) 144-150
79. Vogel B. Analyse der Energieströme beim Sieden unter Schwerelosigkeit. Dissertation (1994), TU München
80. In: Walter H.U. (Ed). Fluid Science and Material Science in Space (1987), Springer-Verlag, Berlin
81. Wayner P.C., Tung C.Y., Tirumala M., and Yang J.H. Experimental study of evaporation at the contact line region of a thin film of Hexan. J. Heat Transfer 107 (1985) 182-189
82. Wayner P.C. Evaporation and stress in the contact line region. In: Dhir V.K., and Bergles A.E. (Eds). Proc. Engineering Foundation Conference on Pool and Flow Boiling. Santa Barbara, CA (1992) 251-256
83. Weinzierl A. Untersuchung des Wärmeübergangs und seine Transport-mechanismen bei Siedevorgängen unter Schwerelosigkeit. Dissertation (1984), TU München
84. Weinzierl A., and Straub J. Wärmeübergang mit Blasenbildung-Ergebnisse des TEXUS-IIIb-Experiments. Z. Flugwiss. Weltraumf. 6 (1982) 339-343
85. Winter J. Kinetik des Blasenwachstums. Dissertation (1998), TU München
86. Yagov V.V., and Zudin Y.B. Mechanistic model for nucleate boiling crisis at different gravity fields. Heat Transfer 1994. Proc. IHTC-10 Vol. 5 (1994) 189-195
87. Zell M. Untersuchung des Siedevorgangs unter reduzierter Schwerkraft. Dissertation (1991), TU München
88. Zell M., and Straub J. Microgravity pool boiling-TEXUS and parabolic flight experiments. Proc. 6th European Symposium on Material Sciences under Microgravity Conditions. Bordeaux, France, 1986. ESA SP-256 (1987) 155-160
89. Zell M., Straub J., and Vogel B. Pool boiling under microgravity. J. Physico-Hydrodynamics 11 (1989) 813-823
90. Zeng L.Z., Klausner J.F., and Mei R. A unified model for the prediction of bubble detachment diameters in boiling systems: I. Pool boiling. Int. J. Heat Mass Transfer 36 (1993) 2261-2270
91. Zuber N. Hydrodynamic aspect of boiling heat transfer. Dissertation AECU-4439 (1959), Research Laboratory Los Angeles and Ramo-Woolbridge Corporation, UCLA
92. Zuber N., Tribus M., and Westwater J.W. Hydrodynamic crisis in pool boiling of saturated and subcooled liquids. IHTC, Boulder (1961) 230-236