Pool Boiling Heat Transfer in Dilute Water/Triethyleneglycol Solutions

Abstract

Abstract: Boiling of water/triethyleneglycol(TEG) binary solution has a wide-ranging application in the gas processing engineering.Design,operation and optimization of the involved boilers require accurate prediction of boiling heat transfer coefficient between surface and solution.In this investigation,nucleate pool boiling heat transfer coefficient has been experimentally measured on a horizontal rod heater in water/TEG binary solutions in a wide range of concentrations and heat fluxes under ambient condition.The present experimental data are correlated using major existing correlations.In addition a correlation is presented for prediction of pool boiling heat transfer for the system in which the vapour pressure of one component is negligible.This model is based on the mass transfer rate equation for prediction of the concentration at the bubble vapor/liquid interface.Based on this prediction,the temperature of the interface and accordingly,the boiling heat transfer coefficient could be straightforwardly calculated from the known concentration at the interface.It is shown that this simple model has sufficient accuracy and is acceptable below the medium concentrations of TEG when the vapor equilibrium concentration of TEG is almost zero.The presented model excludes any tuning parameter and requires very few physical properties to apply.

Key words: pool boiling, heat transfer coefficient, water/triethyleneglycol

摘要： Boiling of water/triethyleneglycol(TEG) binary solution has a wide-ranging application in the gas processing engineering.Design,operation and optimization of the involved boilers require accurate prediction of boiling heat transfer coefficient between surface and solution.In this investigation,nucleate pool boiling heat transfer coefficient has been experimentally measured on a horizontal rod heater in water/TEG binary solutions in a wide range of concentrations and heat fluxes under ambient condition.The present experimental data are correlated using major existing correlations.In addition a correlation is presented for prediction of pool boiling heat transfer for the system in which the vapour pressure of one component is negligible.This model is based on the mass transfer rate equation for prediction of the concentration at the bubble vapor/liquid interface.Based on this prediction,the temperature of the interface and accordingly,the boiling heat transfer coefficient could be straightforwardly calculated from the known concentration at the interface.It is shown that this simple model has sufficient accuracy and is acceptable below the medium concentrations of TEG when the vapor equilibrium concentration of TEG is almost zero.The presented model excludes any tuning parameter and requires very few physical properties to apply.

关键词: pool boiling, heat transfer coefficient, water/triethyleneglycol

S. A. Alavi Fazel, A. A. Safekordi, M. Jamialahmadi. Pool Boiling Heat Transfer in Dilute Water/Triethyleneglycol Solutions[J]. , 2009, 17(4): 552-561.

S. A. Alavi Fazel, A. A. Safekordi, M. Jamialahmadi. Pool Boiling Heat Transfer in Dilute Water/Triethyleneglycol Solutions[J]. CIESC Journal, 2009, 17(4): 552-561.

References

1 Fujita,Y.,Bai,Q.,“Bubble dynamics and heat transfer in mixture boiling”,In:Proc.12th Int.Heat Transfer Conf.,Taine,J.,et al.,eds., Elsevies SAS,Grenoble(2002).
2 Fujita,Y.,Tsutsui,M.,“Nucleate boiling of two and three-component mixtures”,Int.J.Heat Mass Transfer,47,4637-4648(2004).
3 SchlÜnder,E.U.,“Heat transfer in nucleate boiling of mixtures”,Int. Chem.Eng.,23(4),589-599(1983).
4 Jungnickel,H.,Wassilew,P.,Kraus,W.E.,“Investigations on the heat transfer of boiling binary refrigerant mixtures”,Int.J.Refrig.,3, 129-133(1980).
5 Stephan,K.,Körner,M.,“Calculation of heat transfer in evaporating liquid mixtures”,Chem.Ing.Tech.,41,409-417(1969).
6 Inoue,T.,Monde,M.,Teruya,Y.,“Pool boiling heat transfer in binary mixtures of ammonia/water”,Int.J.Heat Mass Transfer,45, 4409-4415(2002).
7 Thome,J.R.,Shakir,S.,“A new correlation for nucleate boiling of binary mixtures”,AIChE Symposium Series,83,46-51(1987).
8 Fujita,Y.,Tsutsui,M.,“Experimental investigation in pool boiling heat transfer of ternary mixture and heat transfer correlation”,Exp. Therm.Fluid Sci.,26,237-244(2002).
9 Fujita,Y.,Tsutsui,M.,“Convective flow boiling of binary mixtures in a vertical tube”,In:Convective Flow Boiling,Taylor&Francis, Washington,259-264(1996).
10 Calus,W.F.,Rice,P.,“Pool boiling:Binary liquid mixtures”,Chem. Eng.Sci.,27(9),1687-1697(1972).
11 Unal,H.C.,“Prediction of nucleate pool boiling heat transfer coefficients for binary mixtures”,Int.J.Heat Mass Transfer,29,637-640 (1986).
12 Vinayak,G.,Rao Balakrishnan,A.R.,“Heat transfer in nucleate pool boiling of multicomponent mixtures”,Exp.Therm.Fluid Sci.,29, 87-103(2004).
13 Jamialahmadi,M.,Helalizadeh,A.,MÜller-Steinhagen,H.,“Pool boiling heat transfer to electrolyte solutions”,Int.J.Heat MassTransfer,47,729-742(2004).
14 Perry,R.H.,Green,D.W.,Perry's Chemical Engineers'Handbook, 8th edition,McGraw-Hill,New York,2-503-509,2-486-487(2008).
15 Twu,C.H.,Tassone,V.,Sim,W.D.,Watanasiri,S.,“Advanced equation of state method for modeling triethyleneglycol-water for glycol gas dehydration”,Fluid Phase Equil.,228/229,213-221(2005).
16 Walas,S.M.,Phase Equilibria in Chemical Engineering,Butterworth-Heinemann,UK(1985).
17 Zuber,N.,“Recent trends in boiling heat transfer research”,Appl. Mech.Rev.,17,663-672(1964).
18 Coulson,J.M.,Richardson,J.F.,Chemical Engineering,Vol.1,Pergamon Press,UK,268-276(1977).
19 Hines,A.L.,Maddox,R.N.,Mass Transfer Fundamentals and Applications,Prentice-Hall,Englewood,NJ(1985).
20 Wenzel,U.,“Saturated pool boiling and subcooled flow boiling of mixtures”,Ph.D.Thesis,University of Auckland,New Zealand (1992).
21 Wadekar,V.V.,“Convective heat transfer of binary mixtures in annular two-phase low”,In:Proceedings of the 10th Int.Heat Transfer Conf.,Brighton,557-562(1994).
22 Taboas,F.,Valle's,M.,Bourouis,M.,Coronas,A.,“Pool boiling of ammonia/water and its pure components:Comparison of experimental data in the literature with the predictions of standard correlations”,Int.J.Refrig.,30,778-788(2007).
23 Stephan,K.,Körner,M.,“Calculation of heat transfer in evaporating binary liquid mixtures”,Chem.Ing.Tech.,41,409-417(1969).
24 Rohsenow,W.M.,“A method of correlating heat transfer data for surface boiling liquids”,J.Heat Transfer,74,969-976(1952).
25 Stephan,K.,Abdelsalam,K.,“Heat transfer correlation for natural convection boiling”,Int.J.Heat Mass Transfer,23,73-87(1980).
26 Fritz,W.,“Maximum volume of vapor bubbles”,Phys.Zeitschr,36, 379-384(1935).

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