The development and validation of a system model for a countercurrent cascading rotary dryer

Drying Technology

Volumn 18, Issue 1-2, 2000, Pages 99-115

  CAO, W F ^a   LANGRISH, T A G ^a  

^a UNIVERSITY OF SYDNEY   (Australia)

Author keywords

Rotary dryer; System model

Indexed keywords

COMPUTER SIMULATION; DRYING; HEAT TRANSFER; MATHEMATICAL MODELS; MOISTURE; ORDINARY DIFFERENTIAL EQUATIONS; PARTIAL DIFFERENTIAL EQUATIONS; REACTION KINETICS; TEMPERATURE;

COUNTERCURRENT CASCADING ROTARY DRYER; DRYING KINETICS; HEAT BALANCE; MASS BALANCE;

DRYERS (EQUIPMENT);

DRYER; HEAT TRANSFER; MASS TRANSFER; MATHEMATICAL MODELING;

EID: 0034109631     PISSN: 07373937     EISSN: None     Source Type: Journal    
DOI: 10.1080/07373930008917695     Document Type: Article

References (30)

1. Cao, W.F. and T.A.G. Langrish, 1998, Comparison of Residence Time Models for Cascading Rotary Dryers, accepted for publication in Drying Technology -An International Journal.
2. Chandra, P.K. and R.P. Singh, 1984, Simulation of Parboiled Rice Drying in a Cocurrent Flow Rotary Dryer, Proc. Fourth International Drying Symposium, Kyoto, Vol. 2 pp. 565-570.
3. Fan, L.T. and Y.K. Ahn, 1961, Axial Dispersion of Solids in Rotary Solid Flow Systems, Appl. Sci. Res. A, 10 pp. 465-470.
4. Friedman, S.J. and W.R. Marshall, 1949, Studies in Rotary Drying. Part 1. Holdup and Dusting. Part 2. Heat and Mass Transfer, Chem. Eng. Progr., 45(8&9) pp. 482-493 & pp. 573-588.
5. Hallström, A., 1985, Drying of Porous Granular Materials, PhD Thesis, Univ. Lund.
6. Harvey, A.C., 1996, The Operability of Countercurrent Dryers and the Computational Modelling of Dryers, B.E. Thesis, Department of Chemical Engineering, The University of Sydney.
7. Hirosue, H., 1980, Axial Mixing of Particles in Rotary Dryers and Coolers, J. Chem. Eng. Japan, 13 pp. 365-371.
8. Hirosue, H., 1989, Influence of Particles Falling from Flights on Volumetric Heat Transfer Coefficient in Rotary Dryers and Coolers, Powder Technology, 59 pp. 125-128.
9. Kamke, F.A. and J.B. Wilson, 1986, Computer Simulation of a Rotary Dryer. Part 1. Retention Time. Part 2. Heat and Mass Transfer, A.I.Ch.E.J., 32 pp. 263-275.
10. Kayihan, F., 1982, Simultaneous Heat and Mass Transfer with Local Three-Phase Equilibria in Wood Drying, Proc. Third International Drying Symposium, Birmingham, Vol 1. pp. 55-61.
11. Keey, R.B., 1978, An Introduction to Industrial Drying Operations, Pergamon Press, Oxford.
12. Kelly, J.J., 1968, Analysis of Design and Operating Procedures for Rotary Dryers and Coolers. Part 1. Flight Design and Granule Distribution in Rotary Dryers and Coolers, Bull. Inst. Ind. Res. & Standards, 5 pp. 361-365.
13. Kelly, J.J. and P. ODonnell, 1977, Residence Time Model for Rotary Drums, Trans. I. Chem. E., 55 pp. 243-250.
14. Kisakurek, B., 1982, Retention Time in a Rotary Dryer, Proc. Third International Drying Symposium, Birmingham, Vol 2. pp. 40-45.
15. Langrish, T.A.G., 1989, The Mathematical Modelling of Cascading Rotary Dryers, D.Phil. Thesis, University of Oxford.
16. th Meat Industry Research Conference, Hamilton, New Zealand, pp. 269-280.
17. Langrish, T.A.G., Cao, W.F. and A.C. Harvey, 1998, An Evaluation of the Relative Ease of Operation for Cocurrent and Countercurrent Dryers, Proc. Sixth Australasian Heat and Mass Transfer Conference, Sydney, Australia, pp. 435-442.
18. Matchett, A.J. and C.G.J. Baker, 1988, Particle Residence Times in Cascading Rotary Dryers. Part 2 - Application of the Two-Stream Model to Experimental and Industrial Data, J. Separ. Proc. Technol., 9 pp. 5-13.
19. Platin, B.E., Erden, A. and O.L. Güelder, 1982, Modelling and Design of Rotary Dryers, Proc. Third International Drying Symposium, Birmingham, Vol 2 pp. 46-52.
20. Ranz, W.E. and W.R. Marshall, 1952, Evaporation from Drops. Part 1 & 2, Chem. Eng. Progr., 48(3) pp. 141-146 and pp. 173-180.
21. Reay, D., 1988, Fluid Flow, Residence Time Simulation and Energy Efficiency in Industrial Dryers, Proc. Sixth Int. Drying Symp., Versailles, Vol. 1 pp. KL1-KL8.
22. Rosen, H.N., 1982, Functional Relations and Approximation Techniques for Characterising Wood Drying Curves, Wood Sci., 15 pp. 49-51.
23. Saeman, W.C. and T.R. Mitchell, 1954, Analysis of Rotary Dryer and Cooler Performance, Chem. Eng. Progr., 50 pp. 467-475.
24. Schofield, F.R. and P.G. Glikin, 1962, Rotary Dryers and Coolers for Granular Fertilisers, Trans. I. Chem. E., 40 pp. 183-190.
25. Sharples, K., Glikin, P.G. and R. Warne, 1964, Computer Simulation of Rotary Dryers, Trans. I. Chem. E., 42 pp. T275-T284.
26. Shene, C., Cubillos, F., Perez, R. and P.I. Alvarez, 1996, Modelling and Simulation of a Direct Contact Rotary Dryer, Drying Technology - An International Journal, 14(10) pp. 2419-2433.
27. Thorne, B. and J.J. Kelly, 1980, Mathematical Modelling of Rotary Dryers, Int. Symp. on Solids Separation Processes, I.Chem.E. Symp. Series 59 pp 1-12.
28. Thorpe, G.R., 1972, The Mathematical Modelling of Dryers, PhD Thesis, Univ. Nottingham.
29. Wang, F.Y., Cameron, I.T., Litster, J.D. and P.L. Douglas, 1993, A Distributed Parameter Approach to the Dynamics of Rotary Drying Processes, Drying Technology - An International Journal, 11(7) pp. 1641-1656.
30. Wang, F.Y., Cameron, I.T. and Litster, J.D., 1995, Further Theoretical Studies on Rotary Drying Processes Represented by Distributed Systems, Drying Technology - An International Journal, 13(3) pp. 737-751.