Zeta-potential and local filtration properties: Constitutive relationships for TiO2 from experimental filtration measurements

Chemical Engineering Science

Volumn 66, Issue 20, 2011, Pages 4573-4581

  Mattsson, Tuve ^a   Sedin, Maria ^a   Theliander, Hans ^a  

^a CHALMERS UNIVERSITY OF TECHNOLOGY   (Sweden)

Author keywords

potential; Filtration; Local properties; Mathematical modelling; Porous media; Separations

Indexed keywords

CONSTITUTIVE RELATIONSHIPS; CONTROLLED CONDITIONS; FILTRATION MODEL; FILTRATION PROCESS; INTER-PARTICLE INTERACTION; INTERPARTICLE FORCE; LOCAL DATA; LOCAL PROPERTY; MATHEMATICAL MODELLING; MODEL MATERIALS; SCALE-UP; SPECIFIC FILTRATION RESISTANCE; TIO;

POROUS MATERIALS; TITANIUM DIOXIDE;

FILTRATION;

EID: 80051697958     PISSN: 00092509     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ces.2011.06.012     Document Type: Article

References (29)

1. Bertin E.P. Principles and Practice of X-ray Spectrometric Analysis 1975, Plenum Press, New York.
2. Bierck B.R., Wells S.A., Dick R.I. Compressible cake filtration: monitoring cake formation and shrinkage using synchrotron X-rays. Journal WPCF 1988, 60(5):645-650.
3. Chase G.G., Willis M.S. Compressive cake filtration. Chemical Engineering Science 1992, 47(6):1373-1381.
4. Darcy H.P.G. Les Fontaines Publiques de la Ville de Dijon 1856, Victor Dalamont, Paris.
5. Deo S. Stokes flow past a swarm of deformed porous spheroidal particles with Happel boundary condition. Journal of Porous Media 2009, 12(4):347-359.
6. Fathi-Najafi M., Theliander H. Determination of local filtration properties at constant pressure. Separation Technology 1995, 5(3):165-178.
7. Fu L.F., Dempsey B.A. Modeling the effect of particle size and charge on the structure of the filter cake in ultrafiltration. Journal of Membrane Science 1998, 149:221-240.
8. Happel J. Viscous flow in multiparticle systems: slow motion of fluids relative to beds of spherical particles. AIChE Journal 1958, 4(2):197-201.
9. Holdich R.G., Sinclair I. Measurement of slurry solids content by electrical conductivity. Powder Technology 1992, 72:77-87.
10. Johansson C., Theliander H. Measuring concentration and pressure profiles in deadend filtration. Filtration 2003, 3(2):114-120.
11. Koenders M.A., Wakeman R.J. Filter cake formation from structured suspensions. Chemical Engineering Research and Design 1997, 75(A3):309-320.
12. Koenders M.A., Wakeman R.J. Initial deposition of interacting particles by filtration of dilute suspensions. AIChE Journal 1997, 43(4):946-958.
13. Koenders M.A., Williams A.F. Flow equation for a particle-fluid mixture. Acta Mechanica 1992, 92(1-4):91-116.
14. Kozeny J. Uber Kapillare Leitung des Wasser im Boden. Sitzungsberichte der Akademia der Wissenschaften in Wien, Mathematisch-Naturwissenschaftliche. Klasse 1927, 136 IIa:271-306.
15. La Heij E.J., Kerkhof P.J.A.M., Kopinga K., Pel L. Determining porosity profiles during filtration and expression of sewage sludge by NMR imaging. AIChE Journal 1996, 42(4):953-959.
16. Larue O., Vorobiev E., Vu C., Durand B. Electrocoagualtion and coagulation by iron of latex particles in aqueous suspensions. Separation and Purification Technology 2003, 31:177-192.
17. Meeten G.H. A dissection method for analysing filter cakes. Chemical Engineering Science 1993, 48(13):2391-2398.
18. Reichmann B., Tomas J. Expression behaviour of fine particle suspensions and the consolidated cake strength. Powder Technology 2001, 121:182-189.
19. Ruth B.F. Studies in filtration III. Derivation of general filtration equations. Industrial and Engineering Chemistry 1935, 27:707-723.
20. Sanchez Torres R.M. Filtration as a method of isoelectric point determination. Materials Chemistry and Physics 1990, 26:173-180.
21. Sedin P., Johansson C., Theliander H. On the measurement and evaluation of pressure and solidosity in filtration. Chemical Engineering Research and Design 2003, 81(A10):1393-1405.
22. Sharma M.M., Zongming L. A model for clay filter cake properties. Colloids and Surfaces 1991, 56:357-381.
23. Shirato M., Aragaki T., Ichimura K., Ootsuji N. Porosity variation in filter cake under constant-pressure filtration. Journal of Chemical Engineering of Japan 1971, 4(2):60-65.
24. Shirato M., Sambuichi M., Kato H., Aragaki T. Internal flow mechanism in filter cakes. AIChE Journal 1969, 15(3):405-409.
25. Sørensen P.B., Hansen J.A. Extreme solid compressibility in biological sludge dewatering. Water Science and Technology 1993, 28(1):133-143.
26. Teoh S., Tan R.B.H., Tien C. Analysis of cake filtration data-a critical assessment of conventional theory. AIChE Journal 2006, 52(10):3427-3442.
27. Tiller F.M., Leu W.F. Basic data fitting in filtration. Journal of the Chinese Institute of Chemical Engineers 1980, 11:61-70.
28. Tiller F.M., Shirato M. The role of porosity in filtration: VI. New definition of filtration resistance. AIChE Journal 1964, 10(1):61-67.
29. Wakeman R.J., Thuraisingham S.T., Tarleton E.S. Colloid science in solid/liquid separation technology. Is it important?. Particle Technology in Relation to Filtration and Separation. 1988, 3.39-60. The Royal Flemish Society of Engineers, Antwerp. A. Faseur, R. de Bruyne (Eds.).