MAGNETIC FIELD ASSISTED FLUIDIZATION – A UNIFIED APPROACH PART 5. A HYDRODYNAMIC TREATISE ON LIQUID-SOLID FLUIDIZED BEDS

Reviews in Chemical Engineering

Volumn 22, Issue 4-5, 2006, Pages 195-375

  Hristov, Jordan ^a  

^a UNIVERSITY OF CHEMICAL TECHNOLOGY AND METALLURGY   (Bulgaria)

Author keywords

[No Author keywords available]

Indexed keywords

DATA REDUCTION; FLUIDIZATION; FLUIDIZED BEDS; HYDRODYNAMICS; MAGNETIC FIELDS; METADATA; NUMERICAL ANALYSIS;

EID: 33845325471     PISSN: 01678299     EISSN: None     Source Type: Journal    
DOI: 10.1515/REVCE.2006.22.4-5.195     Document Type: Article

References (159)

1. Alkatsev MJ (1981) Process of cementation in non-ferrous metallurgy, Metalurgia, Moscow (in Russian).
2. Anderson TB, Jackson R. (1967) A fluid mechanics description of fluidized bed, Ind. Eng. Chem. Fundam. 6(4): 527-539.
3. Atodorisei M., Badescu V (2004) Yields tress in a fluidized bed stabilized with a compound magnetic field, J MMM, 272-276: 2359-2361.
4. Private communication, V., Badescu, Details of experiments, (not available in Atodiresei and BadescuJMMM272-276 (2004) 2359-2361, (2005)
5. Badescu V, Atodoresei M, Udrea EL (2004a) On extension of magnetic stabilized fluidized bed s of superparamagnetic carrier particles, Romanian Journal of Physics, 49 (5-6):409-414.
6. Badescu V, Udrea EL, Atodoresei M (2004b) Superparamagnetic microcapsules for magnetic stabilized fluidized beds as bioreactors, Romanian Journal of Physics, 49 (5-6):415-421.
7. Bejan A (1984) Convection Heat Transfer, John Wiley & Sons, NY.
8. Barrenblatt GI (1996) Scaling, Self-Similarity, and Intermediate Asymptotics: Dimensional Analysis and Intermediate Asssymptotics Cambridge University Press, UK.
9. Berkovsky BM, Medvedev VF, Krakov MS (1993) Magnetic Fluids: Engineering Applications, Oxford University Press Inc., New York, USA.
10. Blums E, Cebers A, Maiorov MM (1997) Magnetic Fluids, Walter de Gruyter, Berlin, New York
11. Bohm D (1999) Investigation of a bioreactor with magnetically stabilized fluidized bed, Ph.D Thesis, Technical Univesity of Gratz, Austria (in German).
12. Bohm D, Pittermann B (2000) Magnetically stabilized fluidized beds in biochemical engineering-Investigation in hydrodynamics, Chem. Eng. Technol., 23 (4): 309-312.
13. Mass transfer in a magnetically stabilized bed, N., Boskovic-Vragolovic, Z.B., Grbavcic, D.V., Vucovic, Hemicka Industria, (Belgrade) 48 (5-6): 103-108 (In Serbian), (1994)
14. Bramble JJ, Graves DJ, Brodelius P (1990) Plant cell culture using a novel bioreactor: The magnetically Stabilized Fluidized Bed, Biotechnology Progress 6: 452-457.
15. Bridgman PW (1978) Dimensional Analysis, AMS Press, New York (Reprint of 1951 edition of Yale Univ. Press, New Haven).
16. Brown RL and Richards JC (1970) Principles of powder mechanics. Pergamon Press, Oxford.
17. Burns MA, Graves DJ (1988) Structural studies of a liquid-fluidized magnetically stabilized bed, Chem.Eng.Comm. 67: 315-330.
18. Castellanos A (2005) The relationship between attractive interparticle forces and bulk behaviour in dry and uncharged fine powders, Advances in Physics, 54(4): 263-376.
19. Cebers A (2001) dynamic of the labyrinth patterns at the diffuse phase boundaries, Brazilian J. Physics, 31 (3): 441-445.
20. Chen CM, Leu LP (1996) Hydrodynamic and dispersion behavior of liquid-solid magneto-fluidized beds, In: Proc. 5th Asian Conf.on Fluidized bed and Three-phase Reactors, pp: 268-273.
21. C.J., Chin, Y.S., Lu, Yiacoumi S, C., Tsouris, Langmuir, D.L.V.O. Probing forces using interparticle magnetic forces: Transition from secondary-minimum to primary-minimum aggregation, (2001), 17, 6065-6071
22. Chin CJ, Lu, SC, Yiacoumi S, Tsouris C (2004) Fractal dimensions of particle aggregates in magnetic fields, Separation Science and Technology, 39 (12): 2839-2862.
23. Cirulis T, Lietuvietis O, Cebers A (2005) Nonlinear dynamics of bubble interface in vertical Hele-Shaw cell with magnetic liquid under the action of normal magnetic field, Mathematical Modelling and Analysis 2005, Proc. 10th Int. Conf. MMA2005&CMAM2, Trakai,pp.- 455-460.
24. Overcoming support limitation in magnetically stabilized fluidized bed separators, A.S., Chetty, D.H., Gabis, M.A., Burns, Powder Technology, (1991), 64, 165-174
25. Chung YS, Park SB, Kang D-W (2004) Magnetically separable titania-coated nickel ferrite photocatalyst, Materials Chemistry and Physics, 86: 375-381.
26. Cowley MD, Rosensweig RE (1967) The interfacial stability of ferromagnetic fluid, J. Fluid Mech., 30: 671-688.
27. Cuellar J and Jarais EM (1986) Determination of the magnetic susceptibility of solids used in the design of a magnetic valve for solids, Powder Technology, 32: 121-125.
28. Di Felice R (1995) Hydrodynamics of Liquid Fluidisation, Chem. Eng. Sci. 50(8): 1213-1245.
29. Estevez AM (2005) Personal Communication: Escape velocity –justification of the term.
30. Behaviour of magnetizable composites in a liquid-solid magnetofluidized bed. Potential use a bioreactor, A.M., Estevez, J., Cuellar, E., Jaraiz, J.M., Roderiguez, Chem.Biochem.Eng. Q., (1995), 9, 2, 67-77
31. Filippov MV (1961a) A fluidized bed of ferromagnetic particles and the action of a magnetic field on it, Troudii Inst. Fiziki Latv. SSR, 12: 215-236.
32. Filippov MV (1961b) The resistance and expansion of a magnetite fluidized bed in a magnetic field, Izv.Acad.nauk Latv. SSR, 12 (173): 47-51.
33. Filippov MV (1961c) On the effective magnetic permeability of fluidized bed of magnetic particles Izv.Acad.nauk Latv. SSR, 12 (173): 52-54.
34. Filippov MV (1962) Some properties of a suspended bed of ferromagnetic particles in a magnetic field, in: Voprosii magn. gidrodinamiki I dinamiki plasmii Riga, pp.637-642.
35. Franzreb., Hausmann R, Hoffmann C., Holl WH (2001) Liquid-phase mass transfer of magnetic ion exchangers in magnetically influenced fluidized beds I. DC fields, Reactive & Functional Polymers 46: 247-257.
36. Gadzelov V. (1985) Gas-fluidization of ferromagnetic particles in axial magnetic field, MS diploma work (Supervisor J. Hristov), UCTM, Sofia, Bulgaria (in Bulgarian).
37. Gao Y, Chen B, Li H, Ma. Y (2003) Preparation and characterization of a magnetically separated photocatalyst and its catalytic properties, Materials Chemistry and Physics, 80: 348-355.
38. Garret MW (1967) Thick cylindrical coil systems for strong magnetic fields with field or gradient homogeneity of 6th to 20th order J. Appl. Phys. 38: 2563-2586
39. Gerber R (1982) Some aspects of the present status of HGMS, IEEE Transaction on Magnetics, 18(3): 812-816.
40. Geuzens P (1985) Some aspects of magnetically stabilized fluidization. PhD Thesis. Tech. Univ. Eindhoven. The Netherlands
41. Gibilaro LG (2001) Fluidization-dynamics, Butterworth-Heinemann, Oxford, UK.
42. Goto M, Imamura T, Hirose T (1995) Axial dispersion in liquid magnetically stabilized fluidized beds, J. Chromatography A 690:1-8.
43. Intensification of copper recovery from solutions: Cementation in fixed and fluidized beds, F., Gros, mono and bi-component, affected by a magnetic field, INPG, Grenoble, France, October, 2005 (In French), (2005)
44. Gros F (2005b) Private communication – Problems and explanations concerning both the pole height and supporting grid positions, November, 2005.
45. Gros F, Baup S., Aurousseau M (2005a) Intensification of metal recuperation
46. from solutions: cementation in a fluidized bed controlled by a electromagnetic field, Recent Progress en Genie de Procedes, No 92, SFGP Edition, Paris: Paper C-14. (In French)
47. Gros F, Mohtari A, Baup S., Aurousseau M (2005b) Cementation in fluidized bed under transverse electromagnetic field:case of monocomponent bed of mixtures, Proc. 7th EEE Conference.
48. Gros F, Baup S., Aurousseau M (2006) Recovery of Copper in Solution: Cementation onto Iron in Fixed or Fluidized Bed under Electromagnetic Field, Chemical Engineering and Processing (2006) – in Press
49. Drag Coefficient and Terminal Velocity of Spherical and Nonspherical Particles, A., Haider, O., Levenspiel, Powder Technology, (1989), 58, 62-70
50. Hammond P (1997) Electromagnetism for Engineers-An Introductory Course, 4th ed., Oxford University Press, Oxford, UK.
51. Hausmann R (2000) Mass transfer in fluidized bed with magnetic particles, PhD Thesis, Inst. Tech. Chem. Research Centre and University Fridericiana, Karlsruhe, Germany (In German).
52. Honorez L, Jovanovic G (1994) Fluidization regimes, structure, and porosity of a magnetically stabilized liquid-solid fluidized beds, AIChE 1994 Annual Meeting, Nov.14-18, 1994, San Francisco.
53. Hou YY, Williams RA (2002) Magnetic stabilization of a liquid fluidized bed, Powder Technologyy 124: 287-294.
54. Hristov JY (1994) Gas-fluidization of ferromagnetic granular materials in an external magnetic field. PhD Thesis. UCTM. Sofia. (in Bulgarian)
55. Hristov JY (1996) Fluidization of ferromagnetic particles in a magnetic field. Part 1: The effect of the field lines orientation on bed stability, Powder Technology 87:59-66.
56. Hristov JY (1998) Fluidization of ferromagnetic particles in a magnetic field. Part2: Field effects of preliminarily fluidized beds, Powder Technology, 97: 35-44
57. Hristov JY (1999) Comments on Gas-fluidized Magnetizable Beds in a Magnetic Field, Part 2: Magnetization LAST mode and related phenomena Thermal Science, 4 (1-2): 16-46
58. Hristov JY (2002) Magnetic field assisted fluidization – A unified approach. Part 1. Fundamentals and relevant
59. Hydrodynamics, Reviews in Chemical Engineering, 18 (4-5): 295-509.
60. Hristov JY (2003a) Magnetic field assisted fluidization – A unified approach. Part 2. Solids batch gas-fluidized beds: Versions and Rheology. Reviews in Chemical Engineering 19 (1): 1-132.
61. Hristov JY (2003b) Magnetic field assisted fluidization - A unified approach. Part 3. Heat transfer- a critical re-evaluation of the results, Reviews in Chemical Engineering, 19 (3): 229-355.
62. Hristov JY (2004a) Magnetic field assisted fluidization - A unified approach. Part 4. Moving Gas-Fluidized Beds, Reviews in Chemical Engineering, 20 (5-6): 377-550.
63. Expansion Scaling and Elastic moduli of gas-fluidized magnetizable beds, J.Y., Hristov, In: D. Ingham, A. Bejan, E.Mamut and I.Pop, Eds., Current Issues on Heat and Mass Transfer in Porous Media, NATO ASI “Emerging Technologies and Techniques in Porous Media “,Kluwer, Dordrecht, 2004, (2004), 477-489
64. Hristov JY (2005) Friction Factors and Internal Flow Length Scales of Gas-Solid Magnetically Stabilized Beds in Axial Fields: Scaling and applications to bed-to-surface heat transfer, Thermal Science, 9 (1): pp.73-98.
65. Hristov JY (2006) Scaling friction factors of homogenously expanding gas-solids fluidized beds: Geldart's A powders and magnetically stabilized beds, Thermal Science, 10 (1): 19-44.
66. Hristov JY, Ivanova V (1999) Magnetic Field Assisted Bioreactors, in: Resent Research Developments in Fermentation and Bioengineering 2: 41-95, SignPost Research, Trivadrum
67. Hristov JY, Boyadjiev CHR, Pantoffchieva L (2000) Sulphur dioxide adsorption by a magnetically stabilized bed of synthetic anionites, Theoretical Fundamentals of the Chemical Technology (Russia), 34:1-5
68. Hu TT, Wu JY (1987) Study on the characteristics of a biological fluidized bed in a magnetic field Chem. Eng. Res.Des. 65:238-242
69. Jackson R (1985) Hydrodynamic stability of fluid-particle systems, in. Fluidization (2nd Ed), J.F. Davidson, R. Clift and D. Harrison (Eds), Academic Press, New York.
70. The uses of magnetic fields in the processing of solids, E.M., Jaraiz, O., Levenspiel, T.J., Fitzgerald, Chem.Eng.Sci., (1983), 38, 107-114
71. Jones TB (1995) Electromechanics of Particles, Cambridge University Press, Cambridge, UK.
72. Jovanovic GN, Sornchamni T, Atwater JE, Akse JR, Wheeler Jr RR (2004) Magnetically assisted liquid-solid fluidization in normal and microgravity conditions: experiment and theory, Powder Technology 148:80-91.
73. Jovanovich ZR, Jovanovic GN, Vunjak-Novakovic (1996) Bubble properties in gas-solid magnetically stabilized beds J.Serb.Chem.Soc. 61(4-5): 267-282
74. Kamholtz K (1979) Enhancing characteristics of magnetically stabilized fluidized beds, US Patent, 4 143 168.
75. Kaviany M (1991) Principles of Heat Transfer in Porous Media, Springer, New York (pp.9-20).
76. Ke CS, Leu LP (1995) Axial dispersion in liquid-solid magnetic fluidized beds, In: Proc. Symp. on Transport Phenomena and Applications, National Taiwan University, Taipei, Taiwan, pp.517-522 (In Chinese).
77. Kirko IM, Filippov MV (1960) The specific features of a fluidized bed of ferromagnetic particles in a magnetic field, J. Techn. Fiziki (Russia) 30 (9):1081-1084
78. Kline (1965) Similitude and Approximation Theory, Mc-Graw-Hill, New York.
79. Kneller E (1962) Ferromagnetismus, Springer, Berlin, Gottingen, Heidelberg
80. Kunii D, Levenspiel O,(1991) Fluidization Engineering, 2nd edn., Butterworth-Heinemann, Boston
81. Kwauk M (1992) FLUIDIZATION. Idealized and Bubbleless with Applications, Science Press (Beijing) and Ellis Horwood (New York).
82. Laverick C. (1967) Superconducting magnet technology, Argonne Nat. Lab. USA
83. Lee W-K (1983) The rheology of magnetically stabilized fluidized beds, AIChE Symp. Ser. 79 (222): 87–96
84. Lettieri P, Newton D, Yates JG (2002) Homogeneous bed expansion of FCC catalysts, influence of temperature on the parameters of the Richardson-Zaki equation, Powder Technology, 123:221-231
85. Leva M (1959) Fluidization, McGraw-Hill, New York
86. Levenspiel O, Kamholtz K (1981) Enhancing characteristics of magnetically stabilized fluidized beds, US Patent, 4 272 893
87. Liu YA, Hamby RK, Colberg RD (1991) Fundamental and Practical Developments of Magnetofluidized Beds: A review, Powder Technol., 64:3-41
88. X., Lu, Personal Communication-, Erratum to “Solid-liquid fluidization under transverse rotating magnetic field, Selected Papers of EC&M’98 (China), 10: 144-154 (Lu et al, (1999a)), (2000)
89. Lu X, Li H (2000) Fluidization of CaCO and FeO particle mixtures in a transverse rotating magnetic field, Powder Technology 107: 66-78
90. Lu X, Zhao Y., Li H, (1998) Experimental study on liquid-solid fluidization in homogeneous transverse rotating magnetic field, Engineering Chemistry & Metallurgy (China), 19(4): 339-344 (in Chinese)
91. Lu X, Zhao Y., Li H, (1999a) Solid-liquid fluidization under transverse rotating magnetic field, Selected Papers of EC&M‘98 (China), 10: 144-154
92. Lu X, Zhao Y., Li H, (1999b) Iron-particle chain formation and rotation in fluidized bed under transverse rotating magnetic field, J. Chemical Industry and Engineering (China), 50(5):692-698 (in Chinese)
93. Particulate fluidization of ferromagnetic particles in uniform magnetic field, X., Ma, M., Kwauk, Chemical Reaction Engineering Laboratory for Extractive Metallurgy, Inst of Chem. Metall., Academica Sinica, Beijing, China, May1985, (1985)
94. Martin JE, Anderson RA (1996) Chain model of electrorheology, J. Phys. Chem. 104:4814-4827
95. Mathur KB, Epstein N (1974) Spouted beds, Academic Press, New York.
96. Melle S, Calderon OG, Fuller GG, Rubio MA (2002a) Polarizable particle aggregation under rotating magnetic fields using scattering dihroism, J. Coll. Intef. Sci., 247: 200-209.
97. Melle S, Calderon OG, Rubio MA, Fuller GG, (2002b) Rotational dynamics in dipolar collidal suspensions: video microscopy experiments and simulation results, J. Non-Newtonian Fluid. Mech. 102: 135-148.
98. Melle S, Martin JE (2003) Chain model of a magnetorheological suspension in a rotating field, J.Chemical Physics, 118 (21): 9875-9881.
99. Meng X, Mu X, Zong B, Min E, Zhu Z, Fu S, Luo Y (2003) Purification of caprolactam in magnetically stabilized bed reactor, Catalysis Today 79–80: 21–27
100. Meng X, Mu X, Jiang Y, Zong B, Min E, Li B, Chen L, Fu S,, Zhu Z (2004) Hydrodynamic behaviour of liquid-solid magnetically stabilized beds, J. Chem. Ind. Engineering (China), 55(1):134-137 (in Chinese).
101. Moffat G, Williams RA, Webb C, Stuling R (1994) Selective separations in environmental and industrial processes using magnetic carrier technology, Minerals Engineering 7 (8): 1039-1056.
102. Moreira EA, Coury JR (2004) The influence of structural parameters on the permeability of ceramic foams, Brazilian Journal of Chemical Engineering, 21 (1): 23-33.
103. Mutsers SMP, Rietema K, (1977) The effect of interparticle forces on the expansion of homogeneous gas-fluidized bed, Powder Technology, 18(2): 239-248.
104. Nixon L., Koval CA, Xu L, Noble RD, Slaff GS (1991) The effect of magnetic stabilization on the structure and performance of liquid fluidized beds, Bioseparations 2: 217-230.
105. Nixon L., Koval CA, Noble RD, Slaff GS (1992) Preparation and characterization of novel magnetite-coated ion-exchange particles, Chemistry of Materials 4(1): 117-121.
106. Nunez L, Kaminski M (1998) Magnetically Assisted Chemical Separation Process, Filtration & Separation, May,: 349:352.
107. Nunez L, Kaminski M, Bradley, C, Buchholtz BA, Landsberge S, Aase AB, Tuazon HE, Vandegrift GF (1995) Magnetically Assisted Chemical Separation (MACS) Process: Preparation and Optimization of Particles for Removal of Transuranic Elements, Argonne National Laboratory, Report ANL-95/1, Argonne, IL, USA.
108. Odenbach S (2003) Ferrofluids-magnetically controlled suspensions, Colloids and Surfaces A: Psycochem. Eng. Aspects. 217 (1-3): 171-178
109. Odenbach S and Stork HJ (1998) Shear dependence of field-induced contributions to the viscosity of magnetic fluids at low shear rates, JMMM 183 (1-2): 188-194.
110. Oliveira LCA., Petkowicz DI., Smaniotto A, Pergher S BC (2004) Magnetic zeolites: a new adsorbent for removal of metallic contaminants from water, Water Research, 38:3699-3704.
111. Papell SS (1964) Low viscosity magnetic fluid obtained by the colloidal suspension of magnetic particles, US patent 3 215 572.
112. Penchev IP, Hristov JY (1990a) Liquid-Solid Magnetically Stabilized Beds in a Transverse Magnetic Field, FLUIDIZATION I (J. Casal, J. Arnaldos Eds.), Universidad. Politechnica de Catalunya Publ., pp. 173-180, Barcelona- Girona, Spain
113. Penchev IP, Hristov JY (1990b) Behaviour of Fluidized Beds of Ferromagnetic Particles in an Axial Magnetic Field, Powder Technology 61:103-118
114. Penchev IP, Hristov JY (1990c) Fluidization of Ferromagnetic Particles in a Transverse Magnetic Field, Powder Technology 62: 1-11
115. Pinto Espinoza J (2002) Dynamic behaviour of ferromagnetic particles in liquid-solid magnetically assisted fluidized bed (MFAFB): Theory, Experiments, and CFD-DPM simulation, PhD Thesis, Oregon State University, Corvalis, USA.
116. Pinto-Espinoza and Jovanovic (2003) CFD-DPM Simulation of the mixing-segregation phenomena in a magnetically assisted fluidized bed with constant gradient (MAFBCG), Fluidization XI, Italy, 2003
117. Power G P., Ritchie IM (1976), A contribution to the theory of cementation (metal displacement) reactions, Australian Journal of Chemistry, 29: 699-709.
118. Sedimentation and Fluidization, Part I, J.F., Richardson, W.N., Zaki, Trans. I Chem. Eng., 32: 35 (See also Jubilee issue ofTrans. I Chem. Eng.,(1997) 75: S82- S100), (1954)
119. Rietema K, Piepers HW (1990) The effect of interparticle forces on the stability of gas-fluidized beds: I. Experimental evidence, Chem Eng. Sci., 45(6): 1627-1639.
120. Rietema K, Cottar EJE, Piepers HW (1993) The effect of interparticle forces on the stability of gas-fluidized beds: II. Theoretical derivation of bed elasticity on the basis of Van Der Waals forces between powder particles. Chem. Eng. Sci. 48 (9): 1687-1697
121. Rosensweig RE (1979a) Fluidization: hydrodynamics stabilization with a magnetic field, Science 204:57-60
122. Rosensweig RE (1979b) Magnetic stabilization of the sate of uniform fluidization, Ind Eng. Chem.Fundam. 18:260-
123. Rosensweig RE, Zahn M, Shumivich R (1983) Labyrinth instability in magnetic and dielectric fluids, J. magnetism and Magnetic Materials, 39:127-132.
124. Rosensweig RE (1985) Ferrohydrodynamics, Cambridge University Press, Cambridge, New York
125. Rosensweig RE (1995) Process concepts using field –stabilized two-phase fluidized flow, J. Electrostatics 34 (2-3): 163-187.
126. Rosensweig RE, Ciprios G (1987), US Patent 4 668 379
127. Rosensweig RE, Ciprios G. (1988), Magnetohydrodynamics, 24 (4) (Oct.-Nov)???
128. Rosensweig RE, Ciprios G. (1991) Magnetic liquid stabilization of fluidization in a bed of nonmagnetic spheres, Powder Technology 64: 115-123.
129. Rosensweig RE., Jerauld GR, Zahn M (1981) Structure of magnetically stabilized fluidized solids, in Brulin O, Hsiesh RKT eds. Continum model discrete systems 4 North Holland. Amsterdam,Pp 137-144
130. Rosensweig RE, Zahn M, Shumovich R (1983a) Labyrinth istability in magnetic and dielectric fluids, J. Magnetism and Magnetic Materials, 39: 127-132.
131. Rosensweg RE, Zahn M, Lee WK, Hagan PS (1983b) Theory and experiments in the mechanics of magnetically stabilized fluidized solids, in: RE Meyer (Ed), Theory of Dispersed Multiphase flow, Academic Press, New York, pp. 359-384.
132. Safarikova M, Safrik I (2001) The application of magnetic techniques in biosciences, Magnetic and Electric Separations, 10:233-252.
133. Sajc L, Jovanovic ZR, Jovanovic GN, Vunja-Novakovic G, Kundakovic L, Obradovic B, Vukovic DB (1992) Flow Behavior of fluidized bed is a magnetic fields J.Serb.Chem.Soc 57(5-6): 297-307
134. Sajc LM, Jovanovic ZR, Jovanovic GN, Vunjak-Novakovic G, Pesic RD, Vucovic DV (1993) Fluid dynamics of chromatographic column with a magnetically stabilized bed, Hemicka Industria (Belgrade) 47 (4-6): 62-68 (In Serbian).
135. Sajc LM, Jovanovic ZR,, Vunjak-Novakovic G, Jovanovic GN,Pesic RD, Vucovic DV (1994) Liquid dispersion in a magnetically stabilized fluidized bed (MSFB), Trans. IChemE, 72 (A), March, 236-240.
136. Sajc L, Jovanovic G, Jovanovic Z, Bugarski B (1996a) Liquid dispersion in a magnetically stabilized fluidized bed (MFSB), in: Chremisinoff (ed), Encyclopedia of Fluid Mechanics, v.4, Mixed-Flow Hydrodynamics, Chapter 31, Gulf Publ., Houston,pp.713-740
137. San Jose MJ, Olazar M, Aguado R, Bibao J (1996) Influence of the conical section geometry on the hydrodynamics of shallow spouted beds, The Chem. Eng. J., 62:113-120.
138. Seibert and Burns (1998) Effect of Hydrodynamic and Magnetic Stabilization on Fluidized-Bed Adsorption, Biotechnol. Prog. 1998, 14: 749-755
139. Shumkov, SH. and Ivanov, DG (1976) Hydrodynamic characteristics of a fluidized bed in a magnetic field J. Appl. Chem. (Russia) Noll: 2406-2409
140. Siegell (1987) Liquid-fluidized magnetically stabilized beds, Powder Technology 52:159-168
141. Sornhchami T (2004) magnetically assited liquid-solid fluidization in a gradient magnetic field: theory and applications, PhD Thesis, Oregon
142. State University, Corvallis, OR, USA.
143. Sornchamni T, Jovanovic GN, Reed BP, Atwater JE, Akse JR, Wheeler Jr RR (2004) Opertaion of magnetically assited fluidized beds in microgravity and variable gravity: experiment and theory, Adv.Spcae Res. 34:1494-1498.
144. Sonolikar RL, Ingle, SG, Giradkar JR, Mene PS (1972) Influence of magnetic field on fluidization of iron particles, Indian J. of Technology 10:377-379
145. Stevens JG, Siegell JH, Rosensweig RE, Mikus T, Lee WK (1988) Magnetically stabilized fluidized beds with time-varying magnetic fields Powder Technology 56:119-128
146. Strickland PH, Lawson F (1971) The cementation of metals from dilute aqueous solution, Proceedings of the Australian Institute of Mining and Metallurgy, 237:71:76
147. Taboada-Serrano P, Chin Cj, Yiacoumi S, Tsouris C (2005) Modeling aggregation of colloidal particles, Current Opinion in Colloid & Interface Science, 10:125-132.
148. Taketomi C, Tikadzimi C (1993) Magnetic fluids, Mir, Moscow (Russian translation of Japanese edition 1988, ISBN-4-526-023523)
149. Takeuchi S, Wang S, Rhodes M (2004) Discrete element simulation of a flat-bottomed spouted bed in 3-D cylindrical coordinate system, Chem. Eng. Sci., 59:3495-3504.
150. Tong XD, Sun Y (2003) Application of magnetic agarose support in liquid magnetically stabilized fluidized bed for protein adsorption, Biotechnology Progress, 19:1721-1727.
151. Thivel PX. (1998) Contribution a l'etude des lits fluidizes stabilizes magnetiquements: application de filtration des gazes, Ph. Thesis, Universite de Savoie, ESIGEC, Chambery, France (in French).
152. Tsouris C, Scott TC (1995) Flocculation of paramagnetic particles in a magnetic field, J. Coll. Interface Sci. 171:319-330.
153. Valverde JM, Castellanos A, Mills P, Quintanilla MAS (2003) Effect of particle size and interparticle force on the fluidization behaviour of gas-fluidized beds, Physical review E: 051305:1-6.
154. Valverde JM, Castellanos A (2006) Fluidization of nanoparticles: A modified Richardson-Zaki law, AIChE J., 52(2): 838-842.
155. Webb C, Kang H-K, Moffat G, Williams RA, Estevez AMa, Cuellar J, Jaraiz E, Galan M-A (1996) The magnetically stabilized fluidized bed bioreactor: a tool for improved mass transfer in immobilized enzyme systems? The Chem. Eng. J, 61:241-246
156. Yang ZL, Fee CJ, Langdon AG (2000) Magnetic conditioning of expanded titanomagnetite filtration beds, In: Proc. 7th Annual New Zealand Engineering and Technology Postgraduate Conference, 23-24 Nov, 2000, Massey University, New Zealand.
157. Yang ZL, Langdon AG (2004) The use of magnetic field conditioning and pH control to enhance filtration by natural titanomagnetite, Water Research, 38:3304-3312.
158. Zabrodsky SS, Tambovtsev YI (1976) A Possibility of a magnetic control of the heat transfer between a surface and a ferromagnetic fluidized bed, Vesti Acad. Nauk BSSR, Series of Physical and Energetic Sciences 1:51-56.
159. Zheng C, Tung Y, Ma X, Kwauk M (1990) Mathematical model and generalized phase diagram for liquid –solid fluidization in uniform magnetic field, Chem. Reaction Eng. Technol. (China) 2(6):1-8 (in Chinese).