Progress and recent utilization trends in combustion of Chinese oil shale

Progress in Energy and Combustion Science

Volumn 33, Issue 6, 2007, Pages 552-579

  Jiang, X M ^a   Han, X X ^a   Cui, Z G ^a  

^a SHANGHAI JIAO TONG UNIVERSITY   (China)

Author keywords

Characteristic; Circulating fluidized bed; Combustion; Future use; Oil shale

Indexed keywords

BIOLOGICAL MATERIALS; COAL; COMBUSTION; ENERGY RESOURCES; ENERGY UTILIZATION; ENVIRONMENTAL PROTECTION;

CIRCULATING FLUIDIZED BEDS; FURNACE DESULFURIZATION; FUTURE USE; OIL SHALE ASH;

OIL SHALE;

EID: 36048942621     PISSN: 03601285     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.pecs.2006.06.002     Document Type: Review

References (65)

1. Lisboa ACL. Investigations on oil shale particle reactions. PhD thesis, The University of British Columbia, Vancouver, BC Canada, 1997, p. 1-12.
2. Parker S.P. Encyclopedia of energy [Cheng HE, Transl.] (1992), Science Press p. 447-452 [in Chinese]
3. Jaber J.O., and Probert S.D. Exploitation of Jordanian oil-shales. Appl Energy 58 2-3 (1997) 161-175
4. Jiang X.M., Liu D.C., Chen H.P., Zheng C.G., and Qin Y.K. Experimental investigation on oil shale circulating fluidized bed boiler. Oil Shale 18 1 (2001) 73-83
5. Trikkel A., Kuusik R., and Maljukova N. Distribution of organic and inorganic ingredients in Estonian oil shale semicoke. Oil Shale 21 3 (2004) 227-236
6. Paist A. New epoch in Estonian oil shale combustion technology. Oil Shale 21 3 (2004) 181-182
7. Akash B.A., and Jaber J.O. Characterization of shale oil as compared to crude oil and some refined petroleum products. Energy Sources 25 12 (2003) 1171-1182
8. Baum H., Bentur A., and Soroka I. Properties and structure of oil shale ash pastes. 2: Mechanical properties and structure. Cem Concr Res 15 3 (1985) 391-400
9. Baum H., Soroka I., and Bentur A. Properties and structure of oil shale ash pastes. 1: Composition and physical features. Cem Concr Res 15 2 (1985) 303-314
10. Ish-shalom M., Bentur A., and Grinberg T. Cementing properties of oil shale ash: 1. Effect of burning method and temperature. Cem Concr Res 10 6 (1980) 799-807
11. Smadi M.M., and Haddad R.H. The use of oil shale ash in Portland cement concrete. Cem Concr Compos 25 1 (2003) 43-50
12. Al-Qodah Z., and Lafi W. Adsorption of reactive dyes using shale oil ash in fixed beds. J Water Supply Res Technol Aqua 52 3 (2003) 189-198
13. Jaber J.O., Probert S.D., and Williams P.T. Evaluation of oil yield from Jordanian oil shales. Energy 24 9 (1999) 761-781
14. Nazzal J.M. Influence of heating rate on the pyrolysis of Jordan oil shale. J Anal Appl Pyrolysis 62 2 (2002) 225-238
15. Li S.Y., and Yue C.T. Study of different kinetic models for oil shale pyrolysis. Fuel Process Technol 85 1 (2004) 51-61
16. Olukcu N., Yanik J., Saglam M., and Yuksel M. Liquefaction of beypazari oil shale by pyrolysis. J Anal Appl Pyrolysis 64 1 (2002) 29-41
17. Lisboa A.C.L., and Watkinson A.P. Operating conditions for oil shale thermogravimetry. Powder Technol 101 9 (1999) 151-156
18. Jiang X.M., Han X.X., and Cui Z.G. Mechanism and mathematical model of Huadian oil shale pyrolysis. J Therm Anal Calorim 86 2 (2006) 457-462
19. Williams P.T., and Ahmad N. Influence of process conditions on the pyrolysis of Pakistani oil shales. Fuel 78 6 (1999) 653-662
20. 2 evolved from oil shale. Fuel Process Technol 53 1-2 (1997) 41-47
21. Sun X.X., and Chen J.Y. Physicochemical principle of pulverized coal combustion (1991), HUST Press, Wuhan p. 118-123 [in Chinese]
22. Kok M.V., and Pamir M.R. Comparative pyrolysis and combustion kinetics of oil shales. J Anal Appl Pyrolysis 55 2 (2000) 185-194
23. Williams P.T., and Ahmad N. Investigation of oil shale pyrolysis processing conditions using thermogravimetric analysis. Appl Energy 66 2 (2000) 113-133
24. Arenillas A., Rubiera F., Arias B., Pis J.J., Faundez J.M., Gordon A.L., et al. A TG/DTA study on the effect of coal blending on ignition behaviour. J Therm Anal Cal 76 2 (2004) 603-614
25. Han X.X., Jiang X.M., and Cui Z.G. Thermal analysis studies on combustion mechanism of oil shale. J Therm Anal Calorim 84 3 (2006) 631-636
26. Kok M.V. Thermal analysis applications in fossil fuel science: Literature survey. J Therm Anal Calorim 68 3 (2002) 1061-1077
27. Kok M.V. Evaluation of Turkish oil shales-thermal anlaysis approach. Oil Shale 18 2 (2001) 131-138
28. Kok M.V., Senguler I., Hufnagel H., and Sonel N. Thermal and geochemical investigation of Seyitomer oil shale. Thermochim Acta 371 1,2 (2001) 111-119
29. Kok M.V., Pokol G., Keskin C., Madarasz J., and Bagci S. Combustion characteristics of lignite and oil shale samples by thermal analysis techniques. J Therm Anal Calorim 76 1 (2004) 247-254
30. Kok M.V., and Pamir M.R. ASTM kinetics of oil shales. J Therm Anal Calorim 53 2 (1998) 567-575
31. Al-Otoom A.Y., Shawabkeh R.A., Al-Harahsheh A.M., and Shawaqfeh A.T. The chemistry of minerals obtained from the combustion of Jordanian oil shale. Energy 30 5 (2005) 611-619
32. Hayhurst A.N. The mass transfer coefficient for oxygen reacting with a carbon particle in a fluidized or packed bed. Combust Flame 121 4 (2000) 679-688
33. Imai T., Murayama T., and Ono Y. Estimation of convective heat transfer coefficients between a spherical particle and fluid at lower Reynolds number. ISIJ Int 35 12 (1995) 1438-1443
34. Sheng C.D., Yuan J.W., Xu M.H., and Ma Y.Y. Ignition model of pulverized-coal cloud heated by radiation. J Combust Sci Technol 2 1 (1996) 38-45 [in Chinese, with English abstract]
35. Han X.X., Jiang X.M., and Cui Z.G. Mathematical model of oil shale particle combustion. Combust Theory Model 10 1 (2006) 145-154
36. Field M.A., and Zhang M.C. Pulverized coal combustion (1989), Water Conservancy and Electric Power Press pp. 156-159 [in Chinese]
37. Zajdlik R., Jelemensky L., Remiarova B., and Markos J. Experimental and modelling investigations of single coal particle combustion. Chem Eng Sci 56 4 (2001) 1355-1361
38. Sainz F.A., Warfe W.A., Douglas M.A., Day R.F., and Anders R. Chatham circulating fluidized bed demonstration project. Circulating Fluidized Bed Technology. Proceedings of the first international conference (1986), Halifax, Canada 349-362
39. Jiang X.M., Cui Z.G., Han X.X., and Yu H.L. Thermogravimetric investigation on combustion characteristics of oil shale and high sulphur coal mixture. J Therm Anal Calorim 85 3 (2006) 761-764
40. X emissions from Huadian oil shale during circulating fluidized-bed combustion. Oil Shale 21 3 (2004) 249-257
41. 2O emission from oil shale-fired circulating fluidized bed. Oil Shale 23 2 (2006) 99-109
42. 2O emission control in coal combustion. Fuel 73 9 (1994) 1416-1422
43. Mann M.D., Collings M.E., and Botros P.E. Nitrous oxide emissions in fluidized-bed combustion: fundamental chemistry and combustion testing. Prog Energy Combust Sci 18 5 (1992) 447-461
44. Fu C.Y., Zheng J.S., Zhao J.M., and Xu W.D. Application of grey relational analysis for corrosion failure of oil tubes. Corros Sci 43 5 (2001) 881-889
45. Van den Moortel T., Azario E., Santini R., and Tadrist L. Experimental analysis of the gas-particle flow in a circulating fluidized bed using a phase Doppler particle analyzer. Chem Eng Sci 53 10 (1998) 1883-1899
46. Zhou H.S., Lu J.D., and Lin L. Turbulence structure of the solid phase in transition region of a circulating fluidized bed. Chem Eng Sci 55 4 (2000) 839-847
47. Van der Meer E.H., Thorpe R.B., and Davidson J.F. Flow patterns in the square cross-section riser of a circulating fluidized bed and the effect of riser exit design. Chem Eng Sci 55 19 (2000) 4079-4099
48. Wang Q.H., Luo Z.Y., Fang M.X., Ni M.J., and Cen K.F. Experimental research for characteristics of fluid dynamics and combustion in a circulating fluidized bed boiler furnace. Powder Eng 19 3 (1999) 11-17 [in Chinese, with English abstract]
49. Zhang J.S., Lu J.F., Jin X.Z., Zhang J.F., Lu X.M., Liu Q., et al. Density distribution in the furnace in 75 t/h CFB boiler with water cooled square separator. J Tsinghua Univ Sci Technol 38 5 (1998) 11-14 [in Chinese, with English abstract]
50. Pugsley T.S., and Berruti F. Predictive hydrodynamic model for circulating fluidized bed risers. Powder Technol 89 1 (1996) 57-69
51. Adanez J., Gayan P., Grasa G., De Diego L.F., Armesto L., and Cabanillas A. Circulating fluidized bed combustion in the turbulent regime: modelling of carbon combustion efficiency and sulphur retention. Fuel 80 10 (2001) 1405-1414
52. Hyre M.R., and Glicksman L.R. Axial and lateral solids distribution modeling in the upper region of circulating fluidized beds. Powder Technol 110 1 (2000) 98-109
53. Wong R., Pugsley T., and Berruti F. Modelling the axial voidage profile and flow structure in risers of circulating fluidized beds. Chem Eng Sci 47 9-11 (1992) 2301-2306
54. Jiang X.M., Han X.X., Cui Z.G., and Yu L.J. Flow structure and combustion characteristic of 65 t/h oil shale-fired circulating fluidized bed riser. 1: Dense phase. Ind Eng Chem Res 45 12 (2006) 4329-4334
55. Han X.X., Jiang X.M., and Cui Z.G. Flow structure and combustion characteristic of 65 t/h oil shale-fired circulating fluidized bed riser 2: Dilute phase. Chem Eng Sci 61 8 (2006) 2533-2539
56. Cheng L., and Basu P. Effect of pressure on loop seal operation for a pressurized circulating fluidized bed. Powder Technol 103 3 (1999) 203-211
57. Bai D., Shibuya E., Masuda Y., Nishio K., Nakagawa N., and Kato K. Distinction between upward and downward flows in circulating fluidized beds. Powder Technol 84 1 (1995) 75-81
58. Kim S.W., Kirbas G., Bi H., Lim C.J., and Grace J.R. Flow behaviour and regime transition in a high-density circulating bed riser. Chem Eng Sci 59 18 (2004) 3955-3963
59. Basu P., Horio M., and Hasatani M. Circulating fluidized bed technology III. Proceedings of the 3rd international conference on circulating fluidized (1991), Pergamon Press, Oxford 201-206
60. An E.K., and Xu T.M. The mechanism of downward flow occurring along side-walls of CFB boiler. Power Eng 17 6 (1997) 69-72 85 [in Chinese, with English abstract]
61. 2 emission. Prog Energy Combust Sci 8 4 (1982) 261-276
62. Gray V.R. Retention of sulphur by laboratory-prepared ash from low-rank coal. Fuel 65 11 (1986) 1618-1619
63. Han X.X., Jiang X.M., Wang H., and Cui Z.G. Study on design of Huadian oil shale-fired circulating fluidized bed boiler. Fuel Process Technol 87 4 (2006) 289-295
64. Jiang X.M., Han X.X., and Cui Z.G. New technology for the comprehensive utilization of Chinese oil shale resources. Energy 32 5 (2007) 772-777
65. Han XX, Jiang XM, Cui ZG. Study of the combustion mechanism of oil shale semicoke in a thermogravimentric analyzer. J Therm Anal Calorim, under review.