Velocity measurements in a cylindrical hydrocyclone operated with an opaque fiber suspension

Minerals Engineering

Volumn 17, Issue 5, 2004, Pages 599-604

  Bergström, Jonas ^a   Vomhoff, Hannes ^a  

^a INNVENTIA AB   (Sweden)

Author keywords

Hydrocyclones; Shear forces

Indexed keywords

PRESSURE EFFECTS; PURGING; SHEAR STRESS; SUSPENSIONS (FLUIDS); TRANSDUCERS; ULTRASONIC VELOCITY; VELOCITY MEASUREMENT;

FLOW FIELD; HYDROCYCLONE; OPAQUE FIBER; SHEAR FORCES;

SYNTHETIC FIBERS;

EID: 2442668006     PISSN: 08926875     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.mineng.2003.12.012     Document Type: Conference Paper

References (20)

1. Chu L.-Y., Chen W.-M. Research on the motion of solid particles in a hydrocyclone. Separation Science and Technology. 28(10):1993;1875-1886.
2. Coppick, S., Brown, R., 1967. Pulp processing method for mixed cellulosic materials. US Pat. 3301745.
3. Dabir B., Petty C.A. Measurement of mean velocity profiles in a hydrocyclone using laser Doppler anemometry. Chemical Engineering Communications. 48(4-6):1986;377-388.
4. Duffy G., Ek R., Moller K., Norman B. Hydrodynamics of papermaking fibres in water suspensions. Fibre-Water Interactions in Papermaking. 1977;Oxford.
5. Dyakowski T., Hornung G., Williams R.A. Simulation of non-Newtonian flow in a hydrocyclone. Transactions of the Institution of Chemical Engineers. 72:1994;513-520.
6. Forgacs, O.L., Robertson, A.A., Mason, S.G., 1957. The hydrodynamic behaviour of papermaking fibres. In: Fundamental Aspects of Fibres and Their Treatment for Papermaking, pp. 447-473.
7. Jones E.D., Campbell R.T., Nelson G.G. Springwood-summerwood separation of southern pine pulp to improve paper qualities. Tappi. 49(9):1966;410-414.
8. Kelsall D.F. A study of the motion of solid particles in a hydraulic cyclone. Transactions of the Institution of Chemical Engineers. 30:1952;87-108.
9. Knowles S.R., Woods D.R., Feuerstein I.A. The velocity distribution within a hydrocyclone operating without an air core. The Canadian Journal of Chemical Engineering. 51(June):1973;263-271.
10. Luo Q., Deng C., Xu J., Yu L., Xiong G. Comparison of the performance of water-sealed and commercial hydrocyclones. International Journal of Mineral Processing. 25:1989;297-310.
11. Malm, G.E., 1967. Process of separating fibrous pulp into springwood and summerwood fibers by centrifuging. US Pat. 3352745.
12. Massey B.S. Mechanics of Fluids. sixth ed. 1989;Chapman & Hall, London.
13. Met-Flow SA, 2003. www.met-flow.com.
14. Mih W., Parker J. Velocity profile measurements and a phenomenological description of turbulent fiber suspension pipe flow. Tappi. 50(5):1967;237-246.
15. Norman, B., 1989. Overview of the physics of forming. In: Fundamentals of Papermaking: 9th Fundamental Research Symposium, Cambridge, p. 3, 73-149.
16. Norman, B., Söderberg, D., 2001. Overview of forming literature 1990-2000. In: The Science of Papermaking, 12th Fundamental Research Symposium, Oxford, vol. 1, pp. 431-558.
17. Pesch, A.W., 1963. Process for separation of fibers having different characteristics. US Pat. 3085927.
18. Samba Sensors AB, 2001. www.samba.se.
19. Wang T., Wang J., Ren F., Jin Y. Application of ultrasound velocimetry in multiphase flow. Chemical Engineering Journal. 92:2002;111-122.
20. Yoshioka N., Hotta Y. Liquid cyclone as a hydraulic classifier. Chemical Engineering Japan. 19(12):1955;633-641.