Investigation Bubble Growth and Nucleation Rates during the Pool Boiling Heat Transfer of Distilled Water Using Population Balance Model
In this research, the changes in bubbles diameter and
number that may occur due to the change in heat flux of pure water
during pool boiling process. For this purpose, test equipment was
designed and developed to collect test data. The bubbles were graded
using Caliper Screen software. To calculate the growth and
nucleation rates of bubbles under different fluxes, population balance
model was employed. The results show that the increase in heat flux
from q=20 kw/m2 to q= 102 kw/m2 raised the growth and nucleation
rates of bubbles.
[1] Nukiyama, S., 1934, "The maximum and minimum values of heat
transmitted from metal to boiling water under atmospheric pressure", J.
Japan Soc. Mech. Eng., 37, 367.
[2] Kutateladze, S. S., Gogonin, I. I., 1979, "Growth velocity and
detachment diameter of vapor bubbles of various fluids under free
convection conditions", Teplofizika Visokikh (in Russian), 4, PP.792-
797.
[3] Zeng, L. Z., Mei, R., Klausner, J. F., 1993, "A unified model for the
prediction of bubble detachment diameters in boiling systems", Int. J.
Heat and Mass Transfer, 36, PP.2261-2279.
[4] Han, C. Y., Griffith, P., 1965, "The mechanism of heat transfer in
nucleate pool boiling", Int. J. Heat and Mass Transfer, 8, PP.880-920.
[5] Christopher, D.M., Wang, H., Peng, X., 2006. "Numerical analysis of
the dynamics of moving vapor bubbles", Int. J. Heat and Mass Transfer,
49, PP.3626-3633.
[6] Frost, W., Kippenhan, C.J., 1967. Bubble growth and heat transfer
mechanisms in the forced convection boiling of water containing a
surface active agent, Int. J. Heat Mass Transfer 10: 931-949.
[7] Kotchaphakdee, P., Williams, M.C., 1970. "Enhancement of nucleate
pool boiling with polymeric additives", Int. J. Heat and Mass Transfer,
13, PP.835-848.
[8] Jamialahmadi, M., Blochl,R., Muller-Steinhagen,H., 1991 "Pool boiling
heat transfer to saturated water and refrigerant 113", The Can. J. of
Chemical Eng., 69, PP.746-754.
[9] Lee, H.C., Oh, B.D., Bae, S.W., Kim, M.H., 2003. "Single bubble
growth in saturated pool boiling on a constant wall temperature surface",
Int. J. Multiphase Flow, 30, PP.1849-1858.
[10] Mei. R., Chen, W., James., F., 1998. "An experimental investigation of
bubble growth and detachment in vertical upflow and downflow
boiling", Int. J. Heat and Mass Transfer, 41, PP.3857-3871.
[11] Mukherejee, A., Kandlikar, S.G., 2006. "Numerical study of single
bubbles with dynamic contact angle during nucleate pool boiling", Int. J.
Heat and Mass Transfer, 5.
[12] Ozbek, H., Philips, P., 2003. "Thermal conductivity of aquaes solutions
from 20 to 330 degree centigrade", European Journal of Surgical
Oncology (EJSO), 36, PP.5-9.
[1] Nukiyama, S., 1934, "The maximum and minimum values of heat
transmitted from metal to boiling water under atmospheric pressure", J.
Japan Soc. Mech. Eng., 37, 367.
[2] Kutateladze, S. S., Gogonin, I. I., 1979, "Growth velocity and
detachment diameter of vapor bubbles of various fluids under free
convection conditions", Teplofizika Visokikh (in Russian), 4, PP.792-
797.
[3] Zeng, L. Z., Mei, R., Klausner, J. F., 1993, "A unified model for the
prediction of bubble detachment diameters in boiling systems", Int. J.
Heat and Mass Transfer, 36, PP.2261-2279.
[4] Han, C. Y., Griffith, P., 1965, "The mechanism of heat transfer in
nucleate pool boiling", Int. J. Heat and Mass Transfer, 8, PP.880-920.
[5] Christopher, D.M., Wang, H., Peng, X., 2006. "Numerical analysis of
the dynamics of moving vapor bubbles", Int. J. Heat and Mass Transfer,
49, PP.3626-3633.
[6] Frost, W., Kippenhan, C.J., 1967. Bubble growth and heat transfer
mechanisms in the forced convection boiling of water containing a
surface active agent, Int. J. Heat Mass Transfer 10: 931-949.
[7] Kotchaphakdee, P., Williams, M.C., 1970. "Enhancement of nucleate
pool boiling with polymeric additives", Int. J. Heat and Mass Transfer,
13, PP.835-848.
[8] Jamialahmadi, M., Blochl,R., Muller-Steinhagen,H., 1991 "Pool boiling
heat transfer to saturated water and refrigerant 113", The Can. J. of
Chemical Eng., 69, PP.746-754.
[9] Lee, H.C., Oh, B.D., Bae, S.W., Kim, M.H., 2003. "Single bubble
growth in saturated pool boiling on a constant wall temperature surface",
Int. J. Multiphase Flow, 30, PP.1849-1858.
[10] Mei. R., Chen, W., James., F., 1998. "An experimental investigation of
bubble growth and detachment in vertical upflow and downflow
boiling", Int. J. Heat and Mass Transfer, 41, PP.3857-3871.
[11] Mukherejee, A., Kandlikar, S.G., 2006. "Numerical study of single
bubbles with dynamic contact angle during nucleate pool boiling", Int. J.
Heat and Mass Transfer, 5.
[12] Ozbek, H., Philips, P., 2003. "Thermal conductivity of aquaes solutions
from 20 to 330 degree centigrade", European Journal of Surgical
Oncology (EJSO), 36, PP.5-9.
@article{"International Journal of Chemical, Materials and Biomolecular Sciences:66067", author = "V. Nikkhah Rashidabad and M. Manteghian and M. Masoumi and S. Mousavian", title = "Investigation Bubble Growth and Nucleation Rates during the Pool Boiling Heat Transfer of Distilled Water Using Population Balance Model", abstract = "In this research, the changes in bubbles diameter and
number that may occur due to the change in heat flux of pure water
during pool boiling process. For this purpose, test equipment was
designed and developed to collect test data. The bubbles were graded
using Caliper Screen software. To calculate the growth and
nucleation rates of bubbles under different fluxes, population balance
model was employed. The results show that the increase in heat flux
from q=20 kw/m2 to q= 102 kw/m2 raised the growth and nucleation
rates of bubbles.
", keywords = "Heat flux, bubble growth, bubble nucleation, population balance model. ", volume = "8", number = "1", pages = "16-4", }
