Abstract
Fouling on various types of enhanced heat transfer surfaces has been discussed in this chapter. Fouling fundamentals in respect of liquids and gas flow have been considered in detail. Liquid fouling in internally finned tubes, rough tubes, plate-fin geometry and fouling in plate heat exchanger is an important consideration. Modelling of fouling in enhanced tubes and correlations for fouling in rough tubes have been dealt with adequately.
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Abd-Elhady MS, Zornek T, Malayeri MR, Balestrino S, Szymkowicz PG, Müller-Steinhagen H (2011) Influence of gas velocity on particulate fouling of exhaust gas recirculation coolers. Int J Heat Mass Transfer 54(4):838–846
Ahn YC, Cho JM (2003) An experimental study of the air-side particulate fouling in fin-and tube heat exchangers of air conditioners. J Chem Eng 20:873–877, Korean
Babuška I, Silva RS, Actor J (2018) Break-off model for CaCO3 fouling in heat exchangers. Int J Heat Mass Transfer 116:104–114
Bansal B, Muller-Steinhagen H, Chen XD (1997) Effect of suspended particles on crystallization fouling in plate heat exchangers. J Heat Transfer 119(3):568–574
Bell IH, Groll EA, König H (2011) Experimental analysis of the effects of particulate fouling on heat exchanger heat transfer and air-side pressure drop for a hybrid dry cooler. Heat Transfer Eng 32(3–4):264–271
Bemrose CR, Bott TR (1984) Correlations for gas-side fouling of finned tubes. Institute of Jul 3
Bergles AE, Somerscales EFC (1995) The effect of fouling on enhanced heat transfer equipment. J Enhanc Heat Transf 2:157–166
Bott TR, Bemrose CR (1983) Particulate fouling on the gas-side of finned tube heat exchangers. J Heat Transfer 105(1):178–183
Bott TR (1995) Fouling of heat exchangers. Elsevier
Boyd LW, Hammon JC, Littrel JJ, Withers JG (1983) Efficiency improvement at Gallatin Unit 1 with corrugated condenser tubes. Am Soc Mech Eng 83
Burgmeier L, Leung S (1981) Brayton-cycle heat recovery-system characterization program. Subatmospheric-system test report (No. DOE/CS/40008-T9). Alpha Glass, Inc., El Segundo, CA (USA); AiResearch Mfg. Co., Torrance, CA (USA)
Chamra, LM (1993) A theoretical and experimental study of particulate fouling in enhanced tubes
Chamra LM, Webb RL (1994a) Effect of particle size and size distribution on particulate fouling in enhanced tubes. J Enhanc Heat Transf 1(1):65–75
Chamra LM, Webb RL (1994b) Modeling liquid-side particulate fouling in enhanced tubes. Int J Heat Mass Transfer 37(4):571–579
Cooper A, Suitor JW, Usher JD (1980) Cooling water fouling in plate heat exchangers. Heat Transfer Eng 1(3):50–55
Epstein N (1983a) Thinking about fouling: a 5 × 5 matrix. Heat Transfer Eng 4(1):43–56
Epstein N (1983b) Thinking about heat transfer fouling: a 5 × 5 matrix. Heat Transfer Eng 4(1):43–56
Epstein N (1988a) General thermal fouling models. In: Fouling science and technology. Springer, Dordrecht, pp 15–30
Epstein N (1988b) Particulate fouling of heat transfer surfaces: mechanisms and models. In: Fouling science and technology. Springer, Dordrecht, pp 143–164
Freeman WB, Middis J, Müller-Steinhagen HM (1990) Influence of augmented surfaces and of surface finish on particulate fouling in double pipe heat exchangers. Chem Eng Process Process Intensif 27(1):1–11
Garrett-Price BA, Smith SA, Watts RL, Knudsen JG, Marner WJ, Suitor JW (1985) Fouling of heat exchangers. Noyes Publications, Park Ridge, NJ
Gomelauri VI, Gruzin AN, Magrakvelidze T, Lekveishvili NN (1992) The effect of two-dimensional artificial roughness on the formation of deposits on heat transfer surfaces. Therm Eng 39(8):439–441
Grillot JM, Icart G (1997) Fouling of a cylindrical probe and a finned tube bundle in a diesel exhaust environment. Exp Therm Fluid Sci 14(4):442–445
He L, Yang W, Guan C, Yan H (2016) Hydrodynamic characteristics and structural improvement of a fixed mount in a heat exchanger with one-way fluid–structure interaction. J Enhanc Heat Transf 23(6):431–447
Katz DL, Knudsen JG, Balekjian G, Grover SS (1954) Fouling of heat exchangers. Petroleum Refiner 33(4):123–125
Kern DQ, Seaton RE (1959) A theoretical analysis of thermal surface fouling. Br Chem Eng 4:258–262
Keysselitz J (1984) Can waterside condenser fouling be controlled operationally. ASME Heat Transfer Div 35:47–54
Kim NH (2015) Single-phase pressure drop and heat transfer measurements of turbulent flow inside helically dimpled tubes. J Enhanc Heat Transf 22(4):345–363
Kim NH, Webb RL (1989) Experimental study of particulate fouling in enhanced water chiller condenser tubes. ASHRAE Transactions (American Society of Heating, Refrigerating and Air-Conditioning Engineers);(USA), 95(CONF-890609)
Kim NH, Webb RL (1990) Particulate fouling inside tubes having arc-shaped two-dimensional roughness by flowing suspension of aluminium oxide in water. Heat Transfer, pp 139–146
Kim NH, Webb RL (1991) Particulate fouling of water in tubes having a two-dimensional roughness geometry. Int J Heat Mass Transf 34:2727–2738
Kindlman L, Silverstrini R (1979) Heat exchanger fouling and corrosion evaluation, Air Research Mfg. Co. report 78–1516(2) on DOE Contract DE-AC03-77ET11296, April 30
Lankinen R, Suihkonen J, Sarkomaa P (2003) The effect of air side fouling on thermal-hydraulic characteristics of a compact heat exchanger. Int J Energy Res 27(4):349–361
Leitner G (1980) Controlling chiller tube fouling. Ashrae J 22(2):40–43
Lewis MJ (1975) An elementary analysis for predicting the momentum-and heat-transfer characteristics of a hydraulically rough surface. J Heat Transfer 97(2):249–254
Li W, Webb RL (2000) Fouling in enhanced tubes using cooling tower water: Part II: Combined particulate and precipitation fouling. Int J Heat Mass Transfer 43(19):3579–3588
Li W, Webb RL (2002) Fouling characteristics of internal helical-rib roughness tubes using low-velocity cooling tower water. Int J Heat Mass Transf 45:1685–1691
Liao Q, Zhu X, Xin MD (2000) Augmentation of turbulent convective heat transfer in tubes with three-dimensional internal extended surfaces. J Enhanc Heat Transf 7(3):139–151
Mahmood GI, Ligrani PM (2002) Heat transfer in a dimpled channel: combined influences of aspect ratio, temperature ratio, Reynolds number, and flow structure. Int J Heat Mass Transfer 45(10):2011–2020
Marner WJ (2014) Predictive methods for gas-side fouling. J Enhanc Heat Transf 21:4–5
Marner WJ, Webb RL (1983) A bibliography on gas-side fouling. In: Proceedings of the ASME-JSME thermal engineering joint conference 1:1
Masri MA, Cliffe KR (1996) A study of the deposition of fine particles in compact plate fin heat exchangers. J Enhanc Heat Transf 3(4):259–272
Melo LF, Bott TR, Bernardo CA (1987) Fouling science and technology, proceedings of the NATO advanced study institute. Kluwer Academic Publishers, Hingham, MA
Moore JA (1974) Fin tubes foil fouling for scaling services. Chemical Processing (1980)
Müller-Steinhagen HM, Middis J (1989) Particulate fouling in plate heat exchangers. Heat Transfer Eng 10(4):30–36
Müller-Steinhagen H, Reif F, Epstein N, Watkinson AP (1988) Influence of operating conditions on particulate fouling. Can J Chem Eng 66(1):42–50
Nishida S, Murata A, Saito H, Iwamoto K (2012) Compensation of three-dimensional heat conduction inside wall in heat transfer measurement of dimpled surface by using transient technique. J Enhanc Heat Transf 19(4):331–341
Owen I, El-Kady A, Cleaver JW (1987) Fine particle fouling of roughened heat transfer surfaces. In: Proc. 2nd ASME-JSME thermal engineering joint conference, Hawaii, pp 95–101
Panchal CB (1989) Experimental investigation of seawater biofouling for enhanced surfaces (No. CONF-890819-18). Argonne National Lab, Argonne, IL
Renfftlen RG (1991) On-line sponge ball cleaning of enhanced heat transfer tubes. In: National heat transfer conference, HTD 164
Rabas TJ, Merring R, Schaefer R, Lopez-Gomez R, Thors P (1990) Heat-rate improvements obtained with the use of enhanced tubes in surface condensers, presented at the EPRI condenser technology Conf, Boston, 1990
Roberts PB, Kubasco AJ (1979) Combined cycle steam generator gas side fouling evaluation. Phase 1 (No. SR79-R-4557-20). Solar Turbines International, San Diego, CA
Sheikholeslami R, Watkinson AP (1986) Scaling of plain and externally finned heat exchanger tubes. J Heat Transfer 108(1):147–152
Shen C, Cirone C, Jacobi AM, Wang X (2015) Fouling of enhanced tubes for condensers used in cooling tower systems: a literature review. Appl Therm Eng 79:74–87
Somerscales EFC, Ponteduro AF, Bergles AE (1991) Particulate fouling of heat transfer tubes enhanced on their inner surface. In: Fouling and enhancement interactions, vol 164. ASME, New York, pp 17–28
Somerscales EFC, Knudsen JG (1979) Fouling of heat transfer equipment. Hemisphere Publishing Corporation, Washington, DC
Takahashi K, Nakayama W, Kuwahara H (1988) Enhancement of forced convective heat transfer in tubes having three-dimensional spiral ribs. Heat Transfer Jpn Res 17(4):12–28
Thonon B, Grandgeorge S, Jallut C (1999) Effect of geometry and flow conditions on particulate fouling in plate heat exchangers. Heat Transfer Eng 20(3):12–24
Watkinson AP (1990) Fouling of augmented heat transfer tubes. Heat Transfer Eng 11(3):57–65
Watkinson AP (1991) Interactions of enhancement and fouling. In: Fouling and enhancement interactions, vol 164. ASME, New York, pp 1–7
Watkinson AP, Epstein N (1970) In: Proceed. 4th. inter. heat transfer confer., Versailles, France, vol 1, pp 1–12
Watkinson AP, Martinez O (1975) Scaling of spirally indented heat exchanger tubes. J Heat Transfer 97(3):490–492
Watkinson AP, Louis L, Brent R (1974) Scaling of enhanced heat exchanger tubes. Can J Chem Eng 52(5):558–562
Webb RL, Chamra LM (1991) On-line cleaning of particulate fouling in enhanced tubes. In: Fouling and enhancement interactions. ASME, New York
Webb RL, Kim NH (1989) Particulate fouling in enhanced tubes. In: National heat transfer conference
Webb RL, Kim NY (2005) Principles of enhanced heat transfer. Taylor and Francis, New York
Webb RL, Li W (2000) Fouling in enhanced tubes using cooling tower water: Part I: Long-term fouling data. Int J Heat Mass Transfer 43(19):3567–3578
Webb RL, Marchiori D, Durbin RE, Wang YJ, Kulkarni AK (1984) Heat exchangers for secondary heat recovery from glass plants. J Heat Recov Syst 4(2):77–85
Webber WO (1960) Does fouling rule out using finned tubes in reboilers. Petroleum Refiner 39(3):183–186
Yang WM, Ding YM, Geng LB, Huang W (2005) Rotor-assembled automaticcleaning and heat transfer enhancement device, CN patent 200520127121.9, assigned to Huang Wei and Beijing University of Chemical Technology
Zhang G, Bott TR, Bemrose CR (1990) Finned tube heat exchanger fouling by particles. In: Proc 9th int. heat transfer conf, pp 115–120
Zhang G, Bott TR, Bemrose CR (1992) Reducing particle deposition in air-cooled heat exchangers. Heat Transfer Eng 13(2):81–87
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Saha, S.K., Ranjan, H., Emani, M.S., Bharti, A.K. (2020). Fouling on Various Types of Enhanced Heat Transfer Surfaces. In: Introduction to Enhanced Heat Transfer. SpringerBriefs in Applied Sciences and Technology(). Springer, Cham. https://doi.org/10.1007/978-3-030-20740-3_4
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DOI: https://doi.org/10.1007/978-3-030-20740-3_4
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