A microscopic formulation of condensation coefficient and interface transport phenomena

Energy

Volumn 30, Issue 6, 2005, Pages 795-805

  Tsuruta, Takaharu ^a   Nagayama, Gyoko ^b  

^a KYUSHU INSTITUTE OF TECHNOLOGY   (Japan)

^b TOKUYAMA COLLEGE OF TECHNOLOGY   (Japan)

Author keywords

[No Author keywords available]

Indexed keywords

CONDENSATION; ENERGY ABSORPTION; MICROSCOPIC EXAMINATION; MOLECULAR DYNAMICS; MOLECULAR STRUCTURE; REACTION KINETICS; SURFACE PROPERTIES; TEMPERATURE DISTRIBUTION; VAPORS;

CONDENSATION OCEFFICIENT; LIQUID-VAPOR INTERFACE; SURFACE MOLECULES; TRANSITION STATE THEORY;

TRANSPORT PROPERTIES;

CONDENSATION;

EID: 8744242130     PISSN: 03605442     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.energy.2004.04.011     Document Type: Article

References (17)

1. Schrage RW. A theoretical study of interphase mass transfer. New York: Columbia University Press; 1953.
2. Niknejad J, Rose JW. Interphase matter transfer: an experimental study on condensation of mercury. Proc R Soc Lond 1981;A(378):305-27.
3. Ishiguro R, Sugiyama K. An experimental study on intensive condensation of potassium. Proceedings of the Eighth International Heat Transfer Conference. San Francisco, (USA), vol. 4. 1986, p. 1635-40.
4. Tanaka H, Hatamiya S. Drop size distributions and heat transfer in dropwise condensation-condensation coefficient of water at low pressures. Proceedings of the Eighth International Heat Transfer Conference. San Francisco, (USA), vol. 4. 1986, p. 1671-6.
5. Tsuruta T, Masuoka T, Kato Y. Estimation of condensation coefficient from dropwise condensation heat transfer. Thermal Sci Eng 1994;2(1):98-103.
6. Fujikawa S, Okuda M, Akamatsu T, Goto T. Non-equilibrium vapor condensation on a shock-tube endwall behind a reflected shock wave. J Fluid Mech 1987; 183:293-324.
7. Maerefat M, Fujikawa S, Akamatsu T, Mizutani T. An experimental study of non-equilibrium vapor condensation in a shock-tube. Exp Fluids 1989;7(8):513-20.
8. Nagayama G, Tsuruta T. A general expression for the condensation coefficient based on transition state theory and molecular dynamics simulation. J Chem Phys 2003; 118(3): 1392-9.
9. Glasstone S, Laidler KJ, Eyring H. The theory of rate processes. New York: The McGraw-Hill Book Companies; 1964.
10. Tsuruta T, Tanaka H, Masuoka T. Condensation/evaporation coefficient and velocity distributions at liquid-vapor interface. Int J Heat Mass Transfer 1999;42(22):4107-16.
11. Fujikawa S, Maerefat M. A study of the molecular mechanism of vapor condensation. JSME Int J Ser II 1990;33(4):634-41.
12. Tsuruta T, Nagayama G. A molecular dynamics approach to interphase mass transfer between liquid and vapor. Microscale Thermophys Eng 2002;6(4):267-85.
13. Yasuoka K, Matsumoto M, Kataoka Y. Evaporation and condensation at a liquid surface: 1. Argon. J Chem Phys 1994;101(9):7904-11; Matsumoto M, Yasuoka K, Kataoka Y. Evaporation and condensation at a liquid surface: 2. Methanol. J Chem Phys 1994;101(9):7912-7.
14. Yasuoka K, Matsumoto M, Kataoka Y. Evaporation and condensation at a liquid surface: 1. Argon. J Chem Phys 1994;101(9):7904-11; Matsumoto M, Yasuoka K, Kataoka Y. Evaporation and condensation at a liquid surface: 2. Methanol. J Chem Phys 1994;101(9):7912-7.
15. Kjelstrup S, Tsuruta T, Bedeaux D. The inverted temperature profile across a vapor/liquid surface analyzed by molecular computer simulations. J Colloid Interface Sci 2002;256(2):451-61.
16. Frezzotti A, Grosfils P, Toxvaerd S. Evidence of an inverted temperature gradient during evaporation/condensation of a Lennard-Jones fluid. Phys Fluids 2003;15(10):2837-42.
17. Ytrehus T. Molecular flow effects in evaporation and condensation at interfaces. Multiphase Sci Technol 1997;9(3):205-327.