Two-phase CFD simulation of the monodyspersed suspension hydraulic behaviour in the tank apparatus from a circulatory pipe

Polish Journal of Chemical Technology

Volumn 10, Issue 1, 2008, Pages 22-27

  Plewik, Roch ^a   Wójcik, Janusz ^a   Synowiec, Piotr ^a,b  

^a SILESIAN UNIVERSITY OF TECHNOLOGY   (Poland)

^b Institute of Inorganic Chemistry   (Poland)

Author keywords

CFD; crystallizers; fluidized bed; tow phase flow

Indexed keywords

EID: 85025282889     PISSN: 15098117     EISSN: 18994741     Source Type: Journal    
DOI: 10.2478/v10026-008-0006-6     Document Type: Article

References (21)

1. Isaachsen, I. & Jeremiassen, F.(1925). Ein neues industrielles Kristallisierungs-verfahren, Zeitsch. Ang. Chem., 38, 317-322.
2. Ulrich, J. & Stepanski, M. (1987). Einfluß der Oberflächen-Beschaffenheit auf das Kristallwachstum aus Lösungen, Chem.-Ing.-Tech., 59, 5, 402-404.
3. Frances, C., Biscans, B. & Laguerie, C. (1994). Mod­elling of a continuous fluidized-bed crystallizer Effect of mixing and segregation on crystal size distribution during the crystallization of tetrahydrate sodium perborate, Chem. Engng Sci. 49, 3269-3276.
4. Mohameed, H. A. & Ulrich, J. (1996). Influence of the pH-Value on the growth and dissolution rate of potassium chloride, Cryst. Res. Technol., 31, 1, 27-31.
5. Belcu, M. & Turtoi, D. (1996). Simulation of the fluid­ized-bed crystallizers (I) Influence of parameters, Cryst.Res.Technol, 31, 8, 1015-1023.
6. Omar, W. & Ulrich, J. (1997). Influence of the Fe+2 ions on the dissolution rate of potassium chloride, Cryst.Res. Technol., 32, 6, 789-797.
7. Pulley, C. A. (1962). The Krystal crystallizer, The Ind. Chem, 38, 63-66, 127-132, 175-178.
8. Matz, G. (1964). Untersuchungsmethoden für die klassifizierende Krystallisation, Wärme, 70, 3, 99-107.
9. Bransom, S. H. (1965). Continuous crystallizer design, Chem.Proc.Eng, 46, 12, 647-653.
10. Shirotsuka, T, Toyokura, K. & Sekiya, Y. (1965). Method for calculating the height of the continuous clasified- bed type crystallizer, Kagaku Kogaku, 29, 698-704,.
11. Mullin, J. W. & Nývlt, J. (1970). Design of classifying crystallizers, Trans. Instn Chem. Engrs, 48, T7 - T14.
12. Wójcik, J. (1997). Population balance in a fluidized- bed crystallizer with ideal classification, In?. Chem. Proc, 18, ?, 411-426 (in Polish).
13. Toyokura, K, Tanaka, H. & Tanahashi, J. (1973). Size distribution of crystals from classified bed type crystallizer, J. Chem. Eng. Jap, 6, 4, 325-331.
14. Kennedy, S. C. & Bretton, R. H. (1966). Axial disper­sion of spheras fluidized with liquids, AIChEJ, 12, 1, 24-32.
15. Wójcik, J. & Plewik, R. (2007). CFD modelling of a fluidized-bed crystallizer, In? Chem. Proc. 28, 75-83.
16. Synowiec, P., Kwiecie?, J. & Tomanek, G. (2003). Opracowanie metody obliczeniowej odnogi klasyfikujǿcej w krystalizatorach przemysǿowych, IChN report 4268, Gliwice.
17. Messing, T. & Hofmann, G. (1980). Industrielle Kristallisation - Moderne grobtechnische Anlagen und Fallstudien, Chem.-Ing.-Tech. 52, 11, 870-874.
18. Rumford, F. & Bain, J. (1960). The controlled crystal­lization of sodium chloride, Trans. Instn. Chem. Engrs, 38, 10-20.
19. Jaworski, Z. (2005). Numeryczna mechanika pǿynów w inǿynierii chemicznej i procesowej, A. o.w. EXIT, Warszawa.
20. Sha, Z. & Palosaari, S. (2000). Mixing and crystalliza­tion in suspensions Chem. Eng. Sci, 55, 1797-1806.
21. Baǿdyga, J. (2001). Zastosowanie obliczeniowej mechaniki pǿynów (CFD) w inǿynierii chemicznej i procesowej, In?. Chem. Proc, 22, ??, 3-14.