Heat transfer and pressure drop in a vertical tube with a nodular turbulizer

Applied Thermal Engineering

Volumn 28, Issue 14-15, 2008, Pages 1984-1994

  Charun, Henryk ^a  

^a KOSZALIN UNIVERSITY OF TECHNOLOGY   (Poland)

Author keywords

Heat exchange; Intensification of convective heat exchange; Turbulators; Turbulizers

Indexed keywords

AIR; BIOCONVERSION; CALCULATIONS; DROPS; FLUIDIZED BEDS; HEAT EXCHANGERS; HEAT TRANSFER; HEATING EQUIPMENT; MATHEMATICAL MODELS; MODAL ANALYSIS; NANOFLUIDICS; PRESSURE; PRESSURE DROP; THERMOANALYSIS; TUBES (COMPONENTS);

CALCULATION MODELS; CASCADE (CO); CONVECTIVE HEAT-TRANSFER; ELSEVIER (CO); EXPERIMENTAL DATA; EXPERIMENTAL INVESTIGATIONS; INNER WALLS; LINEAR PRESSURE; NUMERICA L RESULTS; SPHERICAL(PIVOT); TRANSFER COEFFICIENTS; VERTICAL TUBES;

FLUID MECHANICS;

EID: 46749127796     PISSN: 13594311     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.applthermaleng.2007.12.012     Document Type: Article

References (48)

1. ASHRAE, various authors, Fundamentals Handbook, Chapter 3, Heat Transfer, 2002.
2. J. Badur, H. Charun, Modelling the heat exchanger in a vertical tube with a spherical turbulence stimulator, in: 19th National Congress of Thermodynamics, Poland, Sopot, 2005, 05-08.09 (in Polish).
3. A.E. Bergles, Heat transfer enhancement the encouragement and accommodation of high heat fluxes, in: Proc. 4th World Conf. Experimental Heat Transfer, Fluid Mechanics and Thermodynamics, vol. 4, ETS, Pisa, 1997, pp. 1907-1919.
4. R.S. Bunker, K. Donnellan, Heat transfer and friction factors for flows inside circular tubes with concavity surfaces, in: Proc. of ASME Turbo Expo 2003, Power for Land, Sea, and Air, June 16-19, 2003, Atlanta, Georgia, USA.
5. H. Charun, Intensification of heat transfer in vertical tubes with nodular turbulizers, 2003, Ph.D. thesis, Technical University of Koszalin (in Polish).
6. H. Charun, Comparative studies of convection heat exchange intensification using turbulence ball stimulators. Cieplownictwo, Ogrzewnictwo, Wentylacja, 2005, no. 1, pp. 3-8 (in Polish).
7. Colburn A.P. Heat transfer and pressure drop in empty, baffled and packed tubes. Ind. Eng. Chem. 23 8 (1931)
8. Colburn A.P. A method of correlating forced convection heat transfer data and comparison with fluid friction. Trans. ASME (1933)
9. F. Dembecki, Investigations of intensification of heat transfer and flow resistance in a screw tube, Archiwum Budowy Maszyn, 1973, vol. XX, Z. 4, pp. 575-596 (in Polish).
10. Dyduszyński J. Fundamentals of Design of Contact Reactors (1967), WNT, Warszawa (in Polish)
11. Fluent UNS/Rampant, User's Guide", Fluent Inc., 1997.
12. T.R. Fodemski, M. Plocek, Experimental investigations of models of elements for intensification of heat transfer, Biuletyn Informacyjny Instytutu Techniki Cieplnej Politechniki Warszawskiej (1978), nr. 51, s. 13 (in Polish).
13. M. Gough, P. Droegemueller, P. Ellerby, A. Smeethe; AICHe Spring Conference, 2004, New Orleans.
14. Grass G. Erhohung der Warmeubergangs im Rohr durch Einbau von Blenden. Allg. Warmetechn. 7 3 (1956) 58-64
15. Gryboś R. Fundamentals of Fluid Mechanics (1998), PWN, Warszawa (in Polish)
16. V.M. Kirpiczov, On an efficient form of heat transfer surface, Izw. ENIN (1944), t. 12 (in Russian).
17. A. Klaczak, Applicability of spiral turbulizers in activation and construction of heat exchangers, Cieplownictwo, Ogrzewnictwo, Wentylacja, 1971, No. 7, p. 197 (in Polish).
18. A. Klaczak, Turbulizing tubes in construction of heat exchangers, Cieplownictwo, Ogrzewnictwo, Wentylacja, 1972, No. 10, p. 289 (in Polish).
19. A. Klaczak, Hydraulic resistance and effectiveness of heat transfer in tubes with turbulizers, Archiwum Budowy Maszyn, 1974, vol. XXI, Z. 4, pp. 617-637 (in Polish).
20. A. Klaczak, Interpretation of the effect of forced and self-excited vibrations on heat transfer, Zesz. Nauk. Polit. Krakowskiej, 1994, No. 4, Mechanika Z. 75, pp. 3-123 (in Polish).
21. R. Koch, Druckverlust und Warmeubergang bei verwirbelter Stromung, VDI-Forschungsheft, 1958, No. 469, Ausgabe B, Bd 24, p. 44.
22. O.K. Krasnikowa, Comparative method of evaluation of effectiveness of heat transfer surface, Chimiczeskoje i Nieftianoje Maszinostrojenije, 1984, No. 6, pp. 32-34 (in Russian).
23. Madejski J. Theory of Transfer Theory (1998), Technical University of Szczecin Press, Szczecin (in Polish)
24. Malinovec M., Jereb Z.J., and Svaic S. Analysis of external temperature profiles in tubes inserted with turbulators using thermography. Proc. 12th International Heat Transfer Conference (2002), Elsevier-Verlag, Grenoble
25. Nagaoka Z., and Watanabe A. Maximum rate of heat transfer with minimum loss of energy. Proc. Int. Congress Refrigeration (2002), Haag, Amsterdam 221-245
26. W. Nunner, Warmeubergang und Druckabfall in rauhen Rohren, VDI- Forschungsheft, 1956, No. 455, Ausgabe B, Bd. 22.
27. J.W. Pietrowski, W.G. Fastowski, Modern high-efficiency heat exchangers, WNT, Warszawa, 1969 (in Polish).
28. M. Plocek, A. Deka, Screw tubes in exchangers for cooling water and water solutions of glycols, in: Proc. Tech. Sci. Conf. XXX Dni Chłodnictwa, 1998, Poznań, p. 239 (in Polish).
29. M. Rubik, Intensification of processes of heat and mass transfer in heat and air-conditioning devices. Nowa Technika w Inżynierii Sanitarnej, 1978, Warszawa - Arkady, No. 8 (in Polish).
30. Schobeiri M.T., and Chakka P. Prediction of heat transfer and aerodynamics using a new unsteady boundary laser transmission model. Int. J. Heat Mass Transfer 45 (2002) 815-829
31. Shah R.K. Extended surface heat transfer. In: Hewitt G., et al. (Ed). Int. Encyclopaedia of Heat and Mass Transfer (1997), CRC, Press 394-400
32. N.E. Small, K. Anderson, D. Glass, Effect of hiTRAN inserts on tube fouling at low Reynolds number, Int. Research Project, University of Edinburgh, 2004.
33. A. Smeethe, P. Drogemuller, W. Bujalski, J. Wood, Fluid dynamic in a tube equipped with wire matrix inserts, CISA 2004, in: 16 Int. Congress of Chemical and Process Engineering, 2004, Praque-Czech Republik.
34. Stanton T.E. The mechanical viscosity of fluids. Proc. Roy. Soc., London A85 (1911) 811-829
35. M. Tyagi, Large eddy simulations of rotating square duct with normal rib turbulators, 2002 ME Graduate Student Conference, April 13.
36. Wang L., Sun D.W., Liang P., Zhuang L., and Tan Y. Heat transfer characteristics of carbon steel spirally fluted tube for high pressure preheaters. Energy Conversion Manage 41 (2000) 993-1005
37. Webb R.L. Principles of Enhanced Heat Transfer (1994), John Wiley-Sons
38. Ziółkowska I., and Dolata M. Evaluation of effectiveness of intensification of heat transfer heat in the inter-tube space of a heat exchanger. Inzynieria i Aparatura Chemiczna 34 3 (1995) 3-9 (in Polish)
39. Ziółkowska I., and Dolata M. Heat and momentum transfer in gas flowing through tube equipped with turbulence promoters. Int. J. Heat Mass Transfer 37 13 (1994) 1839-1848
40. Ziółkowska I., and Dolata M. Heat transfer between fluid and wall in the inter-tube space of a heat exchanger with heat transfer intensification. Inzynieria Chemiczna i Procesowa 2 (1996) 317 (in Polish)
41. http://www.Calgavin.co.uk: HiTRAN Turbulator.
42. http://www.alcotwin.com/turbulators.hmtl: ALCO Turbulators, 2002, Division of NITRAM Energy.Inc.
43. http://www. Fuelefficiencyllc.com/feturb.html: BROCK "Fuel Saver" Turbulators (Fuel Efficiency, LLC, USA).
44. http://babalfish.altavista.co/babelfish: Alta-Vista-Babel Fish Translation.
45. http://www. Energysolutionscenter.org: The Natural Gas BOILER BURNER Consortium Solutions for Efficiency, Emissions and Cost Controls.
46. http://www.itmo.by/forum/sections.html: in: 5th Minsk Int. Heat and Mass Transfer Forum, May 24-28, Belarus, 2004.
47. http://www.fuelefficiencyllc.com/fehxturb.html: Turbulators for Shell and Tube Heat Exchangers.
48. http://www.eng.bham.ac.uk/chemical/pg/engd/projects/ritchie.htm.