1 |
Koch, W.H. and W. Licht (1977) New design approach boosts cyclone efficiency, Chemical engineering, 7, 80-88
|
2 |
Mothes, H. and Loffler Friedrich (1985) Motion and Deposition of Particles in Cyclones, Ger. Chem. Eng., 8, 223-233
|
3 |
Ray, M.B., P.E. Luning, and A.C. Hoffman (1997) Post cyclone (PoC): an innovative way to reduce the emission of fines from industrial cyclones, Ind. Eng. Chem. Res., 36, 2766-2774
|
4 |
Yun, S., T. Jotani, Y. Tomita, and T. Yoshida (1978) High efficiency Cyclone Technology, Chem. Eng. Sci. 3, 1573-1580
|
5 |
Jo, Y.M., C. Tien, and M.B. RAY (2000) Development of A Post Cyclone to Improve the Efficiency of Reverse Flow Cyclones, Powder Technology, 113, 97-108
|
6 |
Berezowski, B. and K. Warrnuzinski (1993), Gas recycling as a means of controlling the operation of cyclones, Chem. Eng. Process, 32, 345-357
|
7 |
Dirgo, J. and D. Leith (1985) Cyclone Collection Efficiency; Comparison of Experimental Results with Theoretical Predictions, Aerosol Sci., 4, 401
|
8 |
Hoffman, A.C., A. van Santen, and R.W.K. Allen (1992) Effects of geometry and solid loading on the performance of gas cyclone, Powder Technology, 70, 83 -91
|
9 |
Jo, Y.M. (1999) Emission Control of Fine Dust from GasSolid Cyclone, Journal of Korean Society for Atmospheric Environment, 15(2),201-210
|
10 |
FLUENT User's guide, version 4.4, Fluent, Lebanon, NH, USA,1996
|
11 |
Jiao, X. and K. Yamamoto (1993) Cyclone Dust Collector with An Internal Perforated Cylindrical Tube, Society of Mechanical Eng. in Japan, B. no-93-0393, 3153-3157
|
12 |
Molerus, O. and M. Gluckler (1989) Development of a cyclone separation with new design, Powder Technology, 86, 87-97
|
13 |
Venkata, K.R. and M.B. Ray (1998) Numerical simulation of swirl flow in cyclone separator with an auxiliary device, Environmental Strategies for the 21st Century- an asia pacific conference, 8-10, April, 1998 at National University of Singapore, 293-298
|