Thermo-kinetic modelling of dust explosions

Journal of Loss Prevention in the Process Industries

Volumn 20, Issue 4-6, 2007, Pages 303-309

  Di Benedetto, A ^a   Russo, P ^b  

^a CNR   (Italy)

^b UNIVERSITY OF SALERNO   (Italy)

Author keywords

Dust explosion; KSt; Laminar burning velocity; Modeling

Indexed keywords

COMBUSTION; LAMINAR FLOW; MATHEMATICAL MODELS; REACTION KINETICS;

DUST EXPLOSION; LAMINAR BURNING VELOCITY;

DUST;

COMBUSTION; DUST; LAMINAR FLOW; MATHEMATICAL MODELS; REACTION KINETICS;

EID: 34548379540     PISSN: 09504230     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jlp.2007.04.001     Document Type: Article

References (28)

1. Bartknecht W. Explosions (1981), Springer, Berlin, Heidelberg, New York
2. Bradley D., and Mitcheson A. Mathematical solutions for explosions in spherical vessels. Combustion and Flame 26 (1976) 201-217
3. Cashdollar K.L. Coal dust explosibility. Journal of Loss Prevention in the Process Industries 9 1 (1996) 65-76
4. Cashdollar K.L., Hertzberg M., and Zlochower I.A. Effect of volatility on dust flammability limits for coals, gilsonite and polyethylene. Proceeding of the 22nd symposium (international) on combustion (1988), The Combustion Institute, Pittsburgh 1757-1765
5. Continillo G. A two-zone model and a distributed-parameters model of dust explosions in closed vessels. Archivum Combustionis 9 (1989) 79-94
6. Dahoe A.E., and de Goey L.P.H. On the determination of the laminar burning velocity from closed vessel gas explosions. Journal of Loss Prevention in the Process Industries 16 6 (2003) 457-478
7. Dahoe A.E., Hanjalic K., and Scarlett B. Determination of the laminar burning velocity and the markstein length of powder air flames. Powder Technology 122 (2002) 222-238
8. Dahoe A.E., Zevenbergen J.F., Lemkowitz S.M., and Scarlett B. Dust explosions in spherical vessels: The role of flame thickness in the validity of the 'cube-root law'. Journal of Loss Prevention in the Process Industries 9 1 (1996) 33-44
9. Eckhoff R.K. Dust explosions in the process industries. 3rd ed. (2003), Gulf Professional Publishing
10. Encinar J.M., Beltran F.J., Gonzalez J.F., and Moreno M.J. Pyrolysis of maize, sunflower, grape and tobacco residues. Journal of Chemical Technology & Biotechnology 70 (1997) 400-410
11. Font R., Marcilla A., Garcia A.N., Caballero J.A., and Conesa J.A. Comparison between the pyrolysis products obtained from different organic wastes at high temperatures. Journal of Analytical and Applied Pyrolysis 32 (1995) 41-49
12. GESTIS-DUST-EX 〈http://biaonline.hvbg.de/EXPLOE.htm〉.
13. Graham R.G., Bergougnou M.A., and Freel B.A. The kinetics of vapor-phase cellulose fast pyrolysis reactions. Biomass and Bioenergy 7 (1994) 33-47
14. Krause U., and Kasch T. The influence of flow and turbulence on flame propagation through dust-air mixtures. Journal of Loss Prevention in the Process Industries 13 3-5 (2000) 291-298
15. Lee, J. H. S. (1987). Dust explosions: an overview. In: Proceedings of the international symposium on shock tubes and waves (pp. 21-38). Aachen, Germany.
16. Mastral F.J., Esperanza F., Garcia P., and Juste M. Pyrolysis of high-density polyethylene in a fluidised bed reactor. Influence of the temperature and residence time. Journal of Analytical and Applied Pyrolysis 63 (2002) 1-15
17. Mazurkiewicz J., Jarosinski J., and Wolanski P. Investigations of burning properties of cornstarch dust-air flame. Archivum Combustionis 13 3-4 (1993) 189-201
18. Nagy J., and Verakis H.C. Development and control of dust explosions (1983), Marcel Dekker, New York
19. NFPA 68. Guide for venting of deflagration (2002), National Fire Protection Association, Quincy
20. Öztürk Z., and Merklin J.F. Rapid pyrolysis of cellulose with reactive hydrogen gas in a single-pulse shock tube. Fuel 70 11 (1995) 1658-1663
21. Peukert W. Trends in the development of solids process engineering. Chemie -Ingenieur-Technik 68 10 (1996) 1254-1263
22. Proust C. Experimental determination of the maximum flame temperatures and the laminar burning velocities for some combustible dust-air. Archivum Combustionis 13 3-4 (1993) 175-188
23. Proust C. Flame propagation and combustion in some dust-air mixtures. Journal of Loss Prevention in the Process Industries 19 1 (2006) 89-100
24. Proust C., and Veyssiere B. Fundamental properties of flames propagating in starch dust-air mixtures. Combustion Science and Technology 62 (1988) 149-172
25. Roser M., Vogl A., Radandt S., Malalasekera W., and Parkin R. Investigations of flame front propagation between interconnected process vessels. Development of a new flame front propagation time prediction model. Journal of Loss Prevention in the Process Industries 12 5 (1999) 421-436
26. van Wingerden, K., & Stavseng, P. L. (1995). Measurement of fundamental burning velocity of dust-air mixtures in industrial situations. Chr. Michelsens institutt (CMI), Report nr. CMR-95-F20018.
27. van Wingerden, K., Arntzen, B. J., & Kosinski, P. (2001). Modelling of dust explosions (vol. 1601, pp. 411-421). VDI-Berichte, 〈www.gexcon.com/download/DustCFD1.pdf〉.
28. Yoshizawa Y., and Kubota H. Experimental study on gas-phase ignition of cellulose under thermal radiation. Proceeding of the 19th symposium (international) on combustion (1982), The Combustion Institute, Pittsburgh 787-795