Kinetics of HCl emission from inorganic chlorides in simulated municipal wastes incineration conditions

Chemical Engineering Science

Volumn 60, Issue 2, 2005, Pages 545-552

  Matsuda, H ^a   Ozawa, S ^a   Naruse, K ^a   Ito, K ^a   Kojima, Y ^a   Yanase, T ^b  

^a NAGOYA UNIVERSITY   (Japan)

^b Engineering Business Group   (Japan)

Author keywords

Environment; Gases; Hydrogen chloride; Inorganic chlorides; Kinetics; Reaction engineering

Indexed keywords

CHEMICAL REACTORS; CHLORIDE MINERALS; COMPUTER SIMULATION; PARTICLE SIZE ANALYSIS; RATE CONSTANTS; SODIUM CHLORIDE; WASTE INCINERATION;

INORGANIC CHLORIDES; LAB-SCALE TUBULAR REACTOR; SULFATION;

HYDROGEN INORGANIC COMPOUNDS;

INCINERATION;

EID: 10044247067     PISSN: 00092509     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ces.2004.07.131     Document Type: Article

References (16)

1. Boonsongsup, L., Iisa, K., Frederick Jr., W.J., 1997. Kinetics of the sulfation of NaCl at combustion conditions. Industrial and Engineering Chemistry Research 36, 4212-4216.
2. Evalena, W., Lofvenius, G., Rappe, C., Marklund, S., 1996. Influence of level and form of chlorine on the chlorinated dioxins dibenzofurans, and benzenes during combustion of an artificial fuel in a laboratory reactor. Environmental Science and Technology 30, 1637-1644.
3. 2O(g). Industrial Chemistry Process Design and Development 18, 249-254.
4. Jensen, P.A., Frandsen, F.J., Dam-Johansen, K., Sander, B., 2000. Experimental investigation of the transformation and release to gas phase of potassium and chlorine during straw pyrolysis. Energy and Fuels 14, 1280-1285.
5. Kondo, H., Moritomi, H., Yoshiie, R., Nishimura, M., 2001. Characteristics on HCl absorption and emission by limestone. Kagaku Kogaku Ronbunshu 27, 624-628.
6. Kubota, H., Kanaya, K., 1979a. Thermodynamics of production and removal of hydrochloride in refuse incinerator. Kougai to Taisaku 15, 15-20.
7. Kubota, H., Kanaya, K., 1979b. Thermodynamic study of formation of HCl from inorganic chlorides in municipal solid waste incinerators. Toshi to Haikibustu 9, 19-24.
8. Lawrence, A.D., Bu, J., 2000. The reactions between Ca-based solids and gases representative of those found in a fluidized-bed incinerator. Chemical Engineering and Science 55, 6129-6137.
9. Liu, K., Pan, W.P., Riley, J.T., 2000. A study of chlorine behavior in a simulated fluidized bed combustion system. Fuel 79, 1115-1124.
10. Matsukata, M., Takeda, K., Miyatani, T., Umemiya, K., 1996. Simultaneous chlorination and sulphation of calcined imestone. Chemical Engineering and Science 51 (11), 2529-2534.
11. Nielsen, H.P., Baxter, L.L., Sclipab, G., Morey, C., Frandsen, F.J., Dam-Johansen, K., 2000a. Deposition of potassium salts on heat transfer surfaces in straw-fired boilers: a pilot-scale study. Fuel 79, 131-139.
12. Nielsen, H.P., Frandsen, F.J., Dam-Johansen, K., Baxter, L.L., 2000b. The implications of chlorine-associated corrosion on the operation of biomass-fired boilers. Progress in Energy and Combustion Science 26, 283-298.
13. 2O under conditions simulating municipal solid waste incinerator. Kagaku Kogaku Ronbunshu 28, 396-403.
14. Uchida, S., Kamo, H., Kubota, H., Kanaya, K., 1983. Reaction kinetics of formation of HCl in municipal refuse incinerators. Industrial Chemistry Process Design and Development 22, 144-149.
15. Uchida, S., Kamo, H., Kubota, H., 1988. The source of HCl emission from municipal refuse incinerators. Industrial and Engineering Chemistry Research 27, 2188-2190.
16. Weinell, C.E., Jensen, P.I., Dam-Johansen, K., Livbjerg, H., 1992. Hydrogen chloride reaction with lime and limestone: kinetics and sorption capacity. Industrial and Engineering Chemistry Research 31, 164-171.