Mechanical separation process and flow patterns of cyclone dust collectors

Applied Mechanics Reviews

Volumn 50, Issue 3, 1997, Pages 97-130

  Ogawa, Akira ^a  

^a NIHON UNIVERSITY   (Japan)

Author keywords

[No Author keywords available]

Indexed keywords

ACCELERATION; EQUATIONS OF MOTION; FLOW PATTERNS; PARTICLES (PARTICULATE MATTER); PIPE; PRESSURE DROP; ROTATIONAL FLOW; TURBULENT FLOW; VELOCITY;

CYCLONE DUST COLLECTOR; FLOW DISTRIBUTION; MECHANICAL SEPARATION; PARTICLE CONCENTRATION; SOLID PARTICLES; TANGENTIAL VELOCITY;

DUST COLLECTORS;

EID: 0031094542     PISSN: 00036900     EISSN: None     Source Type: Journal    
DOI: 10.1115/1.3101697     Document Type: Article

References (163)

1. Abrahamson J (1981), Mechanisms of Dust Collection in Cyclones. Pub Progress in Filtration and Separation 2, Elsevier, Amsterdam.
2. Akiyama T and Ikeda M (1986), Fundamental study of the fluid mechanics of swirling pipe flow with air suction, Ind Eng Client Process des Dev 25(4), 907-913.
3. Akiyama T and Marui T (1989), Dust collection efficiency of a straight through cyclone-effect of duct length, guide vanes, and nozzle angle for secondary air flow, Powder Tech 58, 181-185.
4. Albring W (1962), Angewandte Strömungslehre, Verlag von Theodor Steinkopf, Dresden & Leipzig.
5. Alekseev AV, Yakhnis VA, Goryachev VD, and Minailenko AE (1980), Investigation of the separator for cleaning the working medium of gas turbine and gas utilization turbine plants, Thermal Eng (translated from Teploenergetika) 27(5), 289-293.
6. Alexander RM (1949), Fundamentals of cyclone design and operation, Proc Australas Inst Min Metall 152(3), 202-228.
7. Alt C and Schmidt P (1969), Vergleichende Untersuchungen der Abscheideleistung verschiedener Fliehkraftent-staubungssysteme, Staub 29(7), 263-302.
8. Bank N and Gauvin WH (1977), Measurements of flow characteristics in a confined vortex chamber, Can J Chem Eng 55, 397-402.
9. Barth W (1956), Berechnung und Auslegung von Zyklonab scheidern, Brenstoff- Wanne-Kraft 8(1), 1-9.
10. Barth W (1961), Entwicklungen der Entstaubungstechnik, Staub (9), 382-390.
11. Barth W and L Leineweber (1964), Beurteilung und Auslesung von Zyklonabscheidern, Staub 24(2), 41-55.
12. Bohm J (1982), Electrostatic Precipitators, Elsevier.
13. Bohnet M (1984), Optimalauslegung von Aerozyklonen, Chem-Ing -Tech 56(5), 416-417.
14. Bohnet M, Braun T, and Teifke J (1986), Zyklonabscheider zum Trennen Disperser Systeme, Inst VK, Tech Univ, Brawnschweig.
15. Brauer H and Varma YBG (1981), Air Polluton Control Equipment, Springer Verlag.
16. Ciliberti DF and Lancaster BW (1976), Performance of rotary flow cyclones, AJChE J 22(2), 394-398.
17. Ciliberti DF and Lancaster BW (1976), Improvement of the simple model for rotary flow cyclones, AIChE 722(6), 1150-1152.
18. Clift R, Ghadiri M, and Hoffman AC (1991), Critical of two models for cyclone performances, AIChE J 37(2), 285-289.
19. Crawford M (1976), Air Pollution Control Theory, McGraw-Hill.
20. Comolet R and Bonnin J (1986), Mécanique Experimentale des Fluides, Tom III,4e ed Paris, Masson 417-423.
21. Dahl H and Muschelknautz E (1994), Zyklone als Tropfenabscheider, Chem-Ing-Tech 66(2), 223-229.
22. Daniels TC (1957). Investgation of a vortex air cleaner. The Engineer, March 8, 358-362.
23. Davies CN (1952), Separation of airborne dust and particles, Inst Mech Eng Proc(B) 1(b)(5), 185-213.
24. Dauphin J (1955), Note sur les depoussiereurs cyclone, Genie Chimique 73(5), 121-129.
25. Driessen MG (1951), Theorie de ['écoulement dans un cyclone, Revue de I Industrie Minerale 31(566), 482-495.
26. Einstein A and Huon Li (1955), Le vortex permanent dans un fluide reel (Steady vortex flow in a real fluid). La Houille Blanche 10(4), 483-496.
27. Li EL and Wang YM (1989), New collection theory of cyclone separators, AIChE J 35(4), 666-669.
28. Ernst M, Hoke RC, Siminski VJ, McCain JD, Parker R, and Drehme ID (1982), Evaluation of a cyclone dust collector for high temperature, high pressure particulate control, Ind Eng Chem Proc Des Dev 21, 158-161.
29. Feifel F (1939), Zykonentstaubung, die ideale Wirbelsenke und ihre Na-rung, Forsch Gebiete des Ing- Wes 10(5), 212-219.
30. Fortier A (1967), Mécanique des Suspensions, Masson et Cie Edi.
31. Fuchs NA (1964), Mechanics of Aerosols, Pergamon Press.
32. Gauthier TA, Briens CL, Crousle O, Galtier P, and Bergougnou MA, (1992), Study of the gas circulation patterns in a uniflow cyclone, Can J Chem Eng 70, 209-215.
33. Goldshutyk MA (1962), Approximate calculation of the solid particle in the cyclone (in Russian), Ing-Phys J 5(6), 105-109.
34. Hess WF (1988), Zyklonabscheider-Stand der technik, Chem -Ing -Tech 60(6), A466-A469.
35. Hinz T (1978), Geschwindigkeitsmessung in der Zweiphasenstromung eines Axialzyklons mittels Laser-Doppler-Velocimetrie, VDl-Berichte (294), 85-92.
36. Hinze JO (1972), Turbulent fluid and particle interaction, Progress in Heat and Mass Transfer 6, 433- 452.
37. Jotaki T (1954), Cyclone dust collector with fixed guide vanes (in Japanese), Trans JSME 20(97), 604-620.
38. Kirch R (1988), Der Einflu ß der Turbulenz auf die Partikelbewegung im Gaszyklon, Nr 145, VDI-Verlag.
39. Kleinschmidt RV and Anthony AW (1941), Recent developments of the Pease-Anthony gas scrubber, 63, 349-357.
40. Koyzob NA and Ershob AY (1962), Effect of the solid particles for aerodynamic flow and for pressure drop of cyclone, Teploenergetika (in Russian) 9(1), 18-20.
41. Koyzob PA and Abepyanob AG (1934), Investigation of the cyclones for the preparation equipment of the entilation in the harbor storehouse in Marnypole Lyoeot.
42. Krambrock W (1979), Kritische Anmerkungen zur Untersuchung an Zyklonabscheidern, Chem-Ing-Tech 51(5), 493-496.
43. Lissman MA (1930), Analysis of mechanical method of dust collection, Chemical and Metall Eng 37(10), 630-634.
44. Loffer F (1988), Abscheidung von Feinstaub aus Gasen, Chem-Ing-Tech 60(6), 443-452.
45. Lorenz T and Bohnet M (1994), Experimentelle und theoretische Untersuchungen zur Heissgasentstaubung mit Zyklonen, Chem-Ing -Tech 66(9), 1165.
46. Lorenz T and Bohnet M (1992), Heizgasentstaubung mit Aerozyklonen, Chem -Ing -Tech 6(2), 852.
47. Meissner P (1974), Bestimmung des Drackverlustes in Gaszyklonen, Chem-Ing-Tech 46(17), 743.
48. Meißner P and Löffler F (1978), Zur Berechnung des Stromungsfeldes im Zyklonabscheider, Chem-Ing Tech 50, 471.
49. Meldau R (1956), Handbuch der Staubtechnik, Bd I and Bd II, VDI-Verlag, Düsseldorf.
50. Molerus O (1967), Chem-Ing-Tech 39(13), 792-796.
51. Molems O and Hoffmann H (1969), Chem-Ing-Tech 41(5/6), 340-344.
52. Mothes H (1982), Bewegung und Abscheidung der Partikeln in Zyklon, Dissertation, Karlsruhe(TH).
53. Mothes H and Löffler F (1984), Bewegung und Abscheidung der Partikeln im Zyklon, Chem-Ing-Tech 56(9), 714-715.
54. Muschelknautz E (1970), Auslegung von Zyklonabscheidern in der technischen Praxis, Staub 30(5), 187-234.
55. Muschelknautz E and Krambrock W (1970), Aerodynamische Beiwerte des Zyklonabscheiders aufgmnd neuer und verbesserter Messungen, Chem-Ing-Tech 42(5), 247-255.
56. Muschelknautz E (1972), Die Berechnung von Zyklonabscheidern fiir Gase, Chem-Ing-Tech 44(1/2), 63-71.
57. Muschelknautz S, Ruppert KA, and Klug F (1994), Dynamische Belastungen von Zyklonabscheidern bei Anwendung in Blowdown-Systemen, Chem -Ing-Tech 66(2), 180-186.
58. Nickel W (1963). Zur Praxis der Drehstromungsentstaubung, Staub 23(11), 509-512.
59. Ogawa A (1970), Experimental study about the collection efficiency of the returned flow type of three stages of the cyclones in series (in Japanese), Japan Soc of Air Cleaning 8(3), 27-32.
60. Ogawa A, Ikemori K, Hirasawa M, and Komuro K (1972), Flow pattern and the cut-size of particles in a rotary flow dust collector (in Japanese), Res Assnwder Tech Japan 9(6), 17-24.
61. Ogawa A (1974), Uber die Verteilungen der Umfangsgeschwindigkeiten der Luft im Wirbelerzeuger, J Col Eng, Nihon Univ A-15, March, 3953.
62. Ogawa A (1975), Pressure drop of cyclone dust collectors, J Col Eng, Nihon Univ A-l 6, March, 39-53.
63. Ogawa A (1976), Flow pattern of the turbulent rotational flow in the returned type of the vortex chamber, J Col Eng, Nihon Univ A-17. March, 51-64.
64. Ogawa A and Hikichi T (1976), Collection efficiency of the cyclone dust collector for collecting the carbon black particles exhausting from diesel engine, Int Comb Engine 15(176), 9-19.
65. Ogawa A (1977), Stability criterion of the fine solid particles in the turbulent rotational flow, J Col Eng, Nihon Univ A-18, March, 87-97.
66. Ogawa A and Hikichi T (1977), Characteristics of the cyclone dust collectors which are used for the diesel engine, J Col Eng, Nihon Univ A-18, March, 99-119.
67. Ogawa A and Hikichi T (1977), Effect of the steady and pulsating flows foi the fractional collection efficiencies of the returned flow type of the cy Clone, Japan J Air Pollution 12(3), 151-162.
68. Ogawa A (1978), Effect of coagulation influencing the total collection efficiency for gas cyclone dust collectors, J Col Eng, Nihon Univ A-19, March, 157-166.
69. Ogawa A and Hikichi T (1978), Mechanical balancing particles in a cyclone dust collector for the steady and pulsating dust-laden gas flow, J Col Eng, Nihon Univ A-19, March, 167-183.
70. Ogawa A and Fujita Y (1978), Flow pattern in the vortex chamber of the returning flow type J Col Eng, Nihon Univ A-19, March, 185-197.
71. Ogawa A and Fujita Y (1979), Distributions of the static temperature in a turbulent rotational flow, J Col Eng, Nihon Univ A-20, March, 79-95.
72. Ogawa A and Hikichi T (1979), Influences of air flow rates flowing into dust bunkers on re-entrainment of fine solid particles from dust-bunkers of cyclone dust collectors, J Col Eng, Nihon Univ A-20, 115-132.
73. Ogawa A and Hikichi T (1979), Experimental investigation for the separation characteristics of a rotary flow dust collector, Bulletin of JSME, 22(167), 815-824.
74. Ogawa A (1980), Cyclone Dust Collectors (in Japanese), Earth -Pub Com, Tokyo.
75. Ogawa A (1980), Uber die Staubkonzentrationsvertei lungen und den Gleichgewichtsdurchmesser des Staubteilchen und den Stromungsver-lauf in drei dimensionaler turbulenter Wirbelstromung der Luft im Wir-belerzeuger, J Col Eng, Nihon Univ A-21, March, 133-148.
76. Ogawa A, Hikichi T, and Fujita Y (1980), “Separation characteristics of the rotary flow dust collector for the steady and pulsating dust-laden gas flow,” Adas 5 Congresso Intemacional del Aire Puro, Buenos Aires, October Tome I, 239-246.
77. Ogawa A (1982), Collection efficiency of cyclone dust collectors for highload dust mixture, J Col Eng, Nihon Univ A-23, March, 83-87.
78. Ogawa A (1982), Characteristics of the pressure drop, cut-size, and the fractional collection efficiency for various kinds of the miniature-cyclones (in Japanese), J Japan Soc Air Pollution, 17(4), 313-318.
79. Ogawa A and Hikichi T (1981), Theory of the cut-size of a rotary flow dust collector, Bulletin JSME 24(188), 340-347.
80. Ogawa A (1983), Sur la distribution de la vitesse tangentielle et ce rayon specifique dans le cyclone depoussiereur, J Col Eng, Nihon Univ A-24, March, 93-102.
81. Ogawa A (1983), Cyclone dust collectors for the industries in the Soviet Union (first report, in Japanese), J Japan Soc Air Pollution 18(4), 374-383.
82. Ogawa A (1984), Separation of Particles from Air and Gases, I and II, CRC Press, Florida.
83. Ogawa A (1984), Re-entainment of dusts from the dust layer on the depos. ited dusts in the cyclone dust collectors, Particulate Sci Tech, 2(4), 305-314.
84. Ogawa A (1984), Diffusion of the fine solid partcles in the turbulent rotational air flow in the vortex chamber, Bulletin JSME 24(226), 763-772.
85. Ogawa A (1984), Estimaton of the collection efficiencies of the three types of the cyclone dust collectors from the standpoint of the flow patterns in the cylindrical cyclone dust collectors, 27(223), 64-69.
86. Ogawa A (1984), Cyclone dust collectors for the industries in the Soviet Union (second report, in Japanese), J Japan Soc Air Pollution 19(2), 167-175.
87. Ogawa A (1984), Cyclone dust collectors for the industries in the Soviet Union (third report, in Japanese), J Japan Soc Air Pollution 19(5), 403-413.
88. Ogawa A (1981), Cyclone dust collectors for general industries in Czechoslovakia, J Japan Soc Air Pollution 16(1), 59-66.
89. Ogawa A and Fujita Y (1984), Velocity distributions in the boundary layer in a returned flow type of the confined vortex chamber, J Col Eng, Nihon Univ A.-2S, March, 31-42.
90. Ogawa A and Seito O (1985), Separation characteristics and the flow patterns in the returned flow type of the normal and eccentric cyclone dust collectors, Bulletin JSME 28(243), 1949-1954.
91. Ogawa A (1985), Theoretical approach with Markov processes of cyclone dust collector depending on feed dust concentration, J Col Eng, Nihon Univ A-26, March, 109-116.
92. Ogawa A (1986), Axial and radial diffusions of the fine solid partcles in the turbulent rotational air flow in the returned flow type of the vortex chamber, J Col Eng, Nihon Univ, A-21, March, 23-42.
93. Ogawa A (1987), Diffusion of the fine solid particles on the concave wall surface in the vortex chamber, J Col Eng, Nihon Univ, A-28, March, 99-109.
94. Ogawa A (1987), Theoretical consideration of the pressure drop of the cylindrical cyclone dust collectors. Particulate and Multi-phase Processes Vol I, Springer Verlag, 129-146.
95. Ogawa A (1988), Theoretical analysis of the concentration distribution of the fine solid particles in the turbulent rotational air flow in the vortex chamber, J Col Eng, Nihon Univ A-29, March, 157-169.
96. Ogawa A, Seito O, and Nagabayashi H (1988), Distributions of the tangential velocities on the dust laden gas flow in the cylindrical cyclone dust collector, Particulate Sci Tech, 6, 17-28.
97. Ogawa A, Kato T, and Seito O (1989), Separation characteristics of the fine solid particles in the turbulent rotational air flow in the cyclone dust collectors, J Col Eng, Nihon Univ A-30, March, 129-150.
98. Ogawa A (1981), “Analysis of loci of the fine solid particles and the flow pattern of air near the inlet pipe region in cyclone dust collector,” Int Symp on Powder Tech, Kyoto, Sept 27-Oct 1, 609-616.
99. Ogawa A, Kato T, Hironaka A, and Nagabayashi H (1990), Detailed flow patterns in the cylindrical cyclone dust collector, Advances in Fine Particles Processing, Elsevier Sci Pub 121-132.
100. Ogawa A (1990), Relationship between the energy dissipation and the collection efficiency of the cyclone dust collectors, Fluidizacion y Sys-temas Fluido-Particula (Univ Politecnica de Catalunya), 381-388.
101. Ogawa A, Kato T, Hironaka A, and Seito O (1990), “Velocity distribution of gas flow and the separation efficiency of the semi-spherical cyclone,” World Congress of Particle Tech, Part-Ill, Japan, 112-119.
102. Ogawa A, Hironaka A, Kato T, and Seito O (1991), Velocity distributions of gas flow and the separation efficiency of the semi-spherical cyclone, Adv Powder Tech 2(3), 191-212.
103. Ogawa A, Kato T, and Hironaka A (1992), “Equi-helicity lines of turbulent rotational flow in the elliptic chamber,” Int Conf on Mechanics and Theoretical Physics (ICFMTP, Beijing, June), 58-59.
104. Ogawa A and Sugiyama K (1992), “Application of mechanical similarity law and characteristics of collection efficiencies about similarity types of the axial flow cyclone dust collectors,” Symp Multiphase Flow (Sendai, Japan), 135-138.
105. Ogawa A, Sugiyama K, and Nagasaki K (1993), “Application of mechanical similarity laws to the similarity types of the uni-flow cyclone dust collectors,” Int Symp Exp Comput Aerothermodyn of Internal Flows (Beijing), 433-439.
106. Ogawa A, Sugiyama K, and Nagasaki K (1993), “Separation mechanism for the fine solid particles in the uni-flow type of the cyclone dust collector,” Filtec Conf Karlsruhe 2, 627-640.
107. Ogawa A (1993), Equi-helicity lines of turbulent rotational flow in the elliptic vortex chamber: Some New Trends on Fluid Mechanics and Theoretical Physics, Peking Univ Press, 221-228.
108. Ogawa A, (1993), Vortex Flow, CRC Press.
109. Ogawa A and Sugiyama K (1993), Application of mechanical similarity laws to the collection efficiencies of geometrical types of uni-flow cyclone dust collectors, J Thermal Sci 2(2), 87-97
110. Ogawa A, Sugiyama K, and Nagasaki K (1994), Theory of the fractional collection efficiency for the axial flow cyclone dust collector, Particulate Sci Tech 12(3), 243-269.
111. Ogawa A and Sugiyama K (1993), Application of mechanical similarity laws to the similarity types of the uni-flow cyclone dust collectors, 2 ISAIF, Prague 2, 433-439.
112. Ogawa A, Nagasaki K, and Sugiyama K (1995), “Estimation of the maximum tangential velocity and flow pattern of gas flow in the geometrically similarity types of the axial flow vortex chambers,” Proc Fifth Int Conf Fluid Mech, Cairo, 915-924.
113. Ogawa A, Ling ZG, Huang CK, Deng XY, and Ding ZY (1991), Investigation of a rotary cyclone dust collector, Internal Comb Engine (in Japanese) 30(383), 59-69.
114. Ogawa A and Schono H (1995), “Effects of sizes and forms of the cyclone about the collection efficiency of uniflow cyclone with the horizontal slit” (in Japanese), JSME, Toohoku Branch Meeting, No 951-1, March 14, 43-44.
115. Ogawa A, Takahashi K, and Kawai M (1995), “Investigation of the separation characteristics of uniflow types of the cyclone dust-collectors” (in Japanese), JSME, Toohoku-Branch Meeting, No 951-1, March 14, 45-46.
116. Ogawa A, Kawai M, and Takahashi K (1995), “Investigation of the separation characteristics of uniflow types of the cyclone dust collectors” (in Japanese), JSME, Toohoku-Branch Meeting, No 951-1, March 14, 4748.
117. Ogawa A and Suzuki T (1995), “Theory of cut-size of axial flow hydrocyclone,” Proc of XXVI Congress, Int Assoc for Hydraul Res, Sept 1115, 1995, London 2, 102-107.
118. Ogawa A (1996), “Stability of mechanical equilibrium particles in a cylindrical cyclone dust collector,” Proc 7* Int Session, 73rd JSME Spring Annual Meeting, April 2-4, 1996, VI, 246-249.
119. Ogawa A (1996), “Effect of solid particles for tangential velocity of gas flow in cyclone dust collector” (in Japanese), Annual Meeting of Fluid Eng by JSME, July 23-24, 1996, Okinawa, Japan.
120. Ogawa A, Iwanami T, and Shono H (1996), “Estimation of the collection efficiency of the axial flow cyclone dust collector with the fixed guide vanes,” Third Int Symp Exp and Comput Aerothermodyn of Internal flows. Sept 1-6, Beijing, China.
121. Ogawa A (1996), “Effect of the solid particles for the tangential velocity of the dust laden gas flow in the cyclone dust collector,” Int Congress Fluid Dynamics and Propulsion, Dec 29-31, Cairo, Egypt.
122. Ogawa A, Kawai M, Takahashi K, Okuhira H, and Ooki Y (1996), “Investigation of the separation characteristics of uniflow types of the cyclone dust collectors” (in Japanese), JSME Toohoku -Branch Meeting, No 961-1, March 16,9-10.
123. Ogawa A, Iwanami T, Schono H, Schimagaki M, Schimada K, and Takano M (1996), “Investigation of separation characteristics for the axial flow cyclone with fixed guide vane” (in Japanese), JSME Toohoku-Branch Meeting, No 961-1, March 16, 11-12.
124. Parida A and Chand P (1980), Turbulent swirl with gas-solid flow in cyclone, Chem Eng Sci 35, 949-954.
125. Padba BY (1968), Optimal condition of the particle collection by the cyclones (in Russian), Badoanavujenue i Sanitalnaya Technica, (4), 6-10.
126. Perry JH(1950), Chemical Engineer's Handbook, Third Ed, McGraw-Hill, 1103-1160.
127. Pieper R (1977), Tornado dust collector: Fourteen years practical experience, VDI-Berichte, (294).
128. Poincaré H (1893), Théorie des Tourbillons, Georges Carré, Paris.
129. Poliak A and Work LT (1942), Separation of liquid from vapor, using cyclones, Trans ASME 64, 31-41.
130. Prockat F (1929-1939) Beitrage zur Kohlenstaubfrage, Glassers-Annalen.
131. Reydon RF and Gauvin WH (1981), Theoretical and experimental studies of confined vortex flow, Can J Chem Eng 59, 14-23.
132. Rosin P, Rammler E, and Intelmann W (1932), Grandlagen und Grenzen und Grenzen der Zyklonentstaunung, ZVDI 76(18), 433-437.
133. Rankine WJM (1876), Manual of Applied Mechanics, Charles Griffin Co, London.
134. Rietema K and Krajenbrink HJ (1959), Theoretical derivation of tangential velocity profiles in a flat vortex chamber-influence of turbulence and wall friction, Appi Sci Res Section A 8, 177-197.
135. Scallard P, Scowen P, Oaters PW, and Meddings P (1989), Developing axial flow cyclone separators for nuclear gas cleaning, Nucl Eng Indust, Aug, 47-50.
136. Schlichting, H (1979), Boundary Layer Theory, McGraw-Hill, 225-230.
137. Schmidt P (1990), Ungewöhnliche Zyklonabscheider, Chemie-lng-Tech 62(7), 536-543.
138. Schulz S and Schmidt P (1986), Zyklonabscheider mit statischen Leit-vonichtungen im abscheideraum zur Reduzierung des Druckverlustes und Verbesserung des Abscheidemogens, Chemie-lng-Tech 58(6), 502-503.
139. Seillan M (1929), Note sur les depoussiereurs centrifuges, Chaleur et Indust 10, Mai, 233-238.
140. Seillan M (1929), Note sur les depoussiereurs centrifuges, Chaleur et Indust 10, Mai, 289-293.
141. Smith JL (1962), Experimental study of the vortex in the cyclone separator, Trans ASME-J Basic Eng 84, Dec, 602-608.
142. Smith JL (1962), Analysis of the vortex flow in the cyclone separator, Trans ASME-J Basic Eng 84, Dec, 609-618.
143. Sheperd CB and Lapple CE (1939), Flow pattern and pressure drop in cyclone dust collectors, Ind Eng Chem 31(8), 972-984.
144. Sheperd CB and Lapple CE (1940), Flow pattern and pressure drop in cyclone dust collectors, Ind Eng Chem 32(9), 1246-1252.
145. Smykhnin PN and Koyzob PA (1935), Centrifugal Dust Collector- Cyclone (in Russian), Moskba-St Petersburg.
146. Soo SL (1967), Fluid Dynamics of Multiphase Systems, Blaisdell Pub.
147. Spikes GB and Bouchillon CW (1985), Investigation of a gas cyclone for size classification of micropulverized lignite, Mississippi Mineral Resources Inst, Mississippi State Univ, University, MS.
148. Stern AC (1937), Separation and emission of cinders and fly-ash, Trans ASME 59, May, 289-294.
149. Storch O, et al (1979), Industrial Separators for Gas Cleaning, Elsevier.
150. ter Linden AJ (1949), Investigation into cyclone dust collectors, Proc Inst Mech Eng, 233-254.
151. Unal C, Tuzla K, Soon CH, and Chen JC (1993), Experimental study of a cyclone with tangential secondary air injection, Power Tech 74,79-87.
152. Walton WH (1974), Cyclone Dust Collectors: Dust Control and Air Cleaning, Pergamon Press, (Ch 7), Dorman RG (ed), 236-279.
153. Weber E and Brocke W (1973), Apparate und Verfahren der industnellen Gasreinigung, R Oldenbourg Verlag.
154. Wegener A (1917), Wind- und Wasserhosen in Europa, Braunschweig.
155. Wellmann F (1937), Bemerkenswerte rauchgasentstaubungender bauart van Tongeren, Feuerungstechnik 25(1), 108-116.
156. Wellmann F (1938), Die Stromungsvorgange in Zyklonen: Die Wissenschaftlichen Grundlagen der van Tongeren Entstauber, Feuerungstechnik 26(5), 137-145.
157. White HJ (1963), Industrial Electrostatic Precipitation, Addison-Wisley.
158. Whiton L C (1941), Parallel versus individual operation of multi-cyclones, Trans ASME 63, April, 213-218.
159. Wyngaard JC (1967), Experimental investigation of the small scale structure in a curved mixing layer, Penn State Univ.
160. Zernobrobkin AP (1954), Investigation of the new equipment for cleaning the dust laden gas (in Russian), Uzbestuya Akademy Hayk Cccp (Otdelen Ue Texnuzecky Hayk), (7), 77-86.
161. Zhou LX and Soo SL (1990), Gas-solid flow and collection of solid in a cyclone separator, Powder Tech, 63,45-53.
162. Zhou LX and Soo SL (1991), Boundary condition of particle phase and collection efficiency in cyclones, Powder Tech 64, 213-220.
163. Zhou L (1993), Theory and Numerical Modeling of Turbulent Gas-Particle Flows and Combustion, CRC Press, Florida.