NO reduction capacity of four major solid fuels in reburning conditions - Experiments and modeling

Fuel

Volumn 87, Issue 3, 2008, Pages 274-289

  Cancès, Julien ^a   Commandré, Jean Michel ^a   Salvador, Sylvain ^a   Dagaut, Philippe ^b  

^a ECOLE DES MINES D ALBI CARMAUX   (France)

^b Lab de Combust et Syst Reactifs   (France)

Author keywords

Experimental; Nitric oxides formation reduction; Numerical model; Reburning; Solid fuels

Indexed keywords

ANTHRACITE; CALCINATION; CEMENT PLANTS; CHARCOAL; MATHEMATICAL MODELS; WOOD FUELS;

DEVOLATILISATION; ENTRAINED FLOW REACTOR (EFR); REBURNING; SOLID FUELS;

NITRIC OXIDE;

EID: 36348998519     PISSN: 00162361     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.fuel.2007.05.011     Document Type: Article

References (59)

1. Iliuta I., et al. Modeling of in-line low-NOx calciners - a parametric study. Chem Eng Sci 57 (2002) 789-803
2. Commandré JM. Formation des oxydes d'azote lors de la combustion de cokes de pétrole dans des conditions de précalcinateur de cimenterie, Ph.D. Thesis, Albi, France, 2002.
3. Pillet S. Réalisation d'un système expérimental pour caractériser la combustion et les émissions d'oxydes d'azote des combustibles solides: application aux charbons et à la biomasse, Ph.D. Thesis, Orléans, France, 2004.
4. Smoot L.D., Hill S.C., and Xu H. NOx control through reburning. Prog Energy Combust Sci 24 (1998) 385-408
5. Glarborg P., Jensen A.D., and Johnsson J.E. Fuel nitrogen conversion in solid fuel fired systems. Prog Energy Combust Sci (2003) 89-113
6. Jones J.M., et al. Approches to modelling heterogeneous char NO formation/destruction during pulverised coal combustion. Carbon 37 (1999) 1545-1552
7. Warnatz J., Maas U., and Dibble R.W. Combustion (1999), Springer, Berlin
8. Iliuta I., Dam-Johansen K., and Jensen L.S. Mathematical modeling of an in-line low NOx calciner. Chem Eng Sci 57 (2002) 805-820
9. Jensen LS. NOx from cement production - reduction by primary measures, Ph.D. Thesis, Lyngby, Denmark, 1999.
10. Rüdiger H., et al. Distribution of fuel nitrogen in pyrolysis products used for reburning. Fuel 76 (1997) 201-205
11. Cadavid F. Simulation numérique de la réaction des émissions de NOx dans un four pilote de 4 MW et une chaudière tangentielle de 609 MW à charbon pulvérisé, Ph.D. Thesis, Douai, France, 2004.
12. Hampartsoumian E., et al. Optimisation of NOx reduction in advanced coal reburning systems and the effect of coal type. Fuel 82 (2003) 373-384
13. Suuberg EM, Peter WA, Howard JB. Product compositions and formation kinetics in rapid pyrolysis of pulverised coal - implications for combustions. In: 17th international symposium on combustion; 1978. p. 117-30.
14. Serio M.A., et al. Kinetics of volatile product evolution in coal pyrolysis: Experiment and theory. Energy Fuels (1987) 138-152
15. Serio M.A., Peters W.A., and Howard J.B. Kinetics of vapor-phase secondary reactions of prompt coal pyrolysis tars. Ind Eng Chem Res 26 (1987) 1831-1838
16. Solomon P.R., Serio A.M., and Suuberg E.M. Coal pyrolysis: experiments, kinetic rates and mechanisms. Prog Energy Combust Sci 18 (1992) 133-220
17. Cho S., Marlow D., and Niksa S. Burning velocities of multicomponent organic fuel mixtures derived from various coals. Combust Flame 101 (1995) 399-410
18. Cho S., and Niksa S. Elementary reaction models and correlations for burning velocities of multicomponent organic fuel mixtures. Combust Flame 101 (1995) 411-427
19. Perry S.T., and Fletcher T.H. Modeling nitrogen evolution during coal pyrolysis based on a global free-radical mechanism. Energy Fuels 14 (2000) 1094-1102
20. 3). In: 24th international symposium on combustion; 1992. p. 1259-67.
21. Miller J.A., and Bowman C.T. Mechanism and modelling of nitrogen chemistry in combustion. Prog Energy Combust Sci 15 (1989) 287-338
22. Dagaut P. The kinetics of hydrocarbons-NO interactions in relation with reburning. In: Trends in physical chemistry, Vol. 7. Trivandrum, India: Research Trends; 1999. p. 25-46.
23. 2 at 1 atm. Fuel 82 (2003) 1033-1040
24. Dagaut P., et al. Experimental and kinetic modeling of nitric oxide reduction by acetylene in an atmospheric pressure jet-stirred reactor. Fuel 78 (1999) 1245-1252
25. Dagaut P, Luche J, Cathonnet M. The kinetics of C1 to C4 hydrocarbons/NO interactions in relation with reburning. In: 28th international symposium on combustion; 2000. p. 2459-65.
26. Dagaut P., Luche J., and Cathonnet M. Experimental and kinetic modeling of the reduction of NO by propene at 1 atm. Combust Flame 121 (2000) 651-661
27. Alzueta M.U., Glarborg P., and Dam-Johansen K. Low temperature interactions between hydrocarbons and nitric oxide: an experimental study. Combust Flame 109 (1997) 25-36
28. Glarborg P., et al. Kinetic modeling of hydrocarbon/nitric oxide Interactions in a flow reactor. Combust Flame 115 (1998) 1-27
29. Miller JA, Durant JL, Glarborg P. Some chemical kinetics issues in reburning: the branching fraction of the HCCO + NO reaction. In: 27th international symposium on combustion; 1998. p. 235-43.
30. Aarna I., and Suuberg E.M. A review of the kinetics of the nitric oxyde-carbone reaction. Fuel 76 (1997) 475-491
31. Commandré J.M., Stanmore B.R., and Salvador S. The high temperature reaction of carbon with nitric oxide. Combust Flame 128 (2002) 211-216
32. Garijo E.G., Jensen A.D., and Glarborg P. Reactivity of coal char in reducing NO. Combust Flame 136 (2004) 249-253
33. Molina A., et al. Nitric oxide destruction during coal and char oxidation under pulverized-coal combustion conditions. Combust Flame 136 (2004) 303-312
34. Van de Steene L. Thermochimie de la combustion à basses températures de solides pulvérisés: application à un charbon, Ph.D. Thesis, Albi, France, 1999.
35. Commandré J.M., et al. The formation and reduction of NO during the combustion of powdered petroleum coke - the case of cement plant precalciner conditions. Combust Sci Technol 177 (2005) 579-611
36. Kee RJ, Rupley FM, Miller JA. CHEMKIN II: a fotran chemical kinetics package for the analysis of the gas-phase chemical kinetics. SAND87-89-8009, Sandia Nat. Lab.; 1989.
37. Van de Steene L., Salvador S., and Charnay G. Controlling powdered fuel combustion at low temperature in a new entrained flow reactor: laboratory experiments and modelling. Combust Sci Technol 159 (2000) 255-279
38. Commandré J.M., and Salvador S. Lack of correlation between the properties of a petroleum coke and its behaviour during combustion. Fuel Process Technol 86 (2005) 795-808
39. AFNOR, NF M03-003 - combustibles minéraux solides - Détermination du taux de cendres; 1994.
40. AFNOR, NF M03-004 - combustibles minéraux solides - Détermination de l'indice de matières volatiles du charbon et du coke; 2003.
41. AFNOR, NF M03-002 - combustibles minéraux solides - Détermination de l'humidité; 1995.
42. Mermoud F., et al. Influence of the pyrolysis heating rate on the steam gasification rate of large wood char particles. Fuel 85 (2006) 1473-1482
43. Cancès J. NOx formation and reduction by a coal, a lignite, an anthracite and a petroleum coke in conditions of cement plant calciner, Ph.D. Thesis, Albi, France, 2006.
44. Salvador S., et al. The catalytic effect of vanadium on the reactivity of petroleum cokes with NO. Energy Fuels 18 (2004) 296-301
45. Solomon P.R., et al. General model of coal devolatilization. Energy Fuels (1988) 405-422
46. Smith KL, Smoot LD, Fletcher TH. 3 - Coal characteristics, structure, and reaction rates. In: Smoot LD, editor. Fundamental of coal combustion for clean and efficient use; 1993. p. 131-298.
47. Williams A., Pourkashanian M., and Jones J.M. Combustion of pulverised coal and biomass. Prog Energy Combust Sci 27 (2001) 587-610
48. Kobayashi H, Howard JB, Sarofim AF. Coal devolatilisation at high temperatures. In: 16th international symposium on combustion; 1976. p. 441-95.
49. Gururajan V.S., Wall T.F., and Truelove J.S. The combustion of evolved volatile matter in the vicinity of a coal particle - an evolution of the diffusion limited model. Combust Flame 72 (1988) 1-12
50. Smith I.W. The intrinsic reactivity of carbons to oxygen. Fuel 57 (1978) 409-414
51. Smith IW. The combustion rates of coal chars: a review. In: 19th international symposium on combustion; 1982. p. 1045-65.
52. Thiele E.W. Relation between catalytic activity and size of particle. Ind Eng Chem 31 (1939) 916-920
53. Fogler H.S. Element Chem React Eng (1999) 738-808
54. Aarna I, Suuberg EM. Changes in reactive surface area and porosity during char oxidation. In: 27th international symposium on combustion; 1998. p. 2933-9.
55. Dagaut P. On the kinetics of hydrocarbons oxidation from natural gas to kerosene and diesel fuel. Phys Chem Chem Phys (2002) 2079-2094
56. Dagaut P., et al. The reduction of NO by ethylene in a jet-stirred reactor at 1 atm: experimental and kinetic modelling. Combust Flame 119 (1999) 494-505
57. Miller J.A., and Glarborg P. Modeling the thermal De-NO x process: Closing in on a final solution. Int J Chem Kinet 31 (1999) 757-765
58. Prada L., and Miller J.A. Reburning using several hydrocarbon fuels: a kinetic modeling study. Combust Sci Technol 132 (1998) 225-250
59. 2 on the reduction of NO by ammonia. Proc. Combust. Inst 30 (2005) 1211-1218